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Readers are asked to re- port all cases of books marked or mutilated. face books by marks and writing. Professor of Philosophy, Columbia University MORRIS LLEWELLYN COOKE, Consulting Engineer. Philadelphia Cornell University Library B945.K66 U5 Universe, by Scudder KWee. with three i olin 3 1924 029 066 343 This book solves all problems of why, how, what, in science, religion, and philosophy. Or, it gives an intelligible and unified statement of the fundamentals of all things, and applies that to everyday life. It is addressed to the average educated man, but is designed to meet the requirements of experts in various branches. The book is experimentally verifiable. Some of the particular things the book does are:- Establishes a sound logic. The logic used by the ordinary man is right ; that used by Aristotle and nearly all books is wrong . Removes the fundamental error from mathematics, and makes mathematics simple ; proves Euclid's "axiom" about parallels, and intelligibly solves the various problems of non-Euclidian and n -dimension space. Revises and unifies the equations of physics. Completes conventional "theories" of physics — about a dozen, — and makes a somewhat new one that is easier :- vortex whirls . Shows how gravity works. Shows what is wrong with Newton's law of gravity, and why. Makes Einstein's theory actually intelligible — showing that it is one sort of possible language out of an infinite number of possible valid languages or logics. The book shows that everyday language (Euclid's and Newton's and Christ's) is valid, and the most economical and practical — and uses it. Extracts from the INTRODUCTIONS :- Dr. JORDAN, one of the leading scientists of the world, says:- ". . .unique . . . daring . . . successful . . . Mr. Klyce makes no attempt to solve any scientific problem by pure reason, but he would have us make rational use of the knowledge we possess." Professor DEWEY, by many regarded as the leading living philosopher and logician, says:- ". . .The sincerity and power of the book, and the radical simplicity of its unifying idea give it every claim to a hearing. ... I hope what has been said may indicate the extraordinary value of Mr. Klyce's work for philosophers, and, in connection with the way in which he applies the formal unification outlined to the mathematical, natural and social sciences, to all persons inter- ested in reducing intellectual bbfuscation and confusion. . . . . . .Mr. Klyce's book is remarkable, noteworthy. If experts in various lines shall find his special results as fruitful, as illuminating, as his general treatment of knowledge and technical philosophy has been to me, the remark just made will turn out to be altogether too moderate. Any remark of mine about the value of the book in anticipation of this result will seem intemperately extravagant." Shows intelligibly what electricity, light, matter, energy, etc., are. Gives birth, life, death of solar system. Shows how to get energy out of atoms, etc. That simple and easy physics is used in the last third of the book to solve qualitatively the more complicated human problems — those of age, growth, death, life, birth, sex, medicine, immortality, good and evil, freedom of will, religious experiences and ethics in general, money, taxes, business principles, value, etc. Proves that the Constitution is right, and shows what democracy is, and proves that it is right and that all other forms of government and 'legal' law are wrong. Proves (verifiably, of course) the doctrines of Christ: disproves the essential ones of Paul and theologians. Mr. COOKE, a leading engineer, says:- "The world today needs broad generalizations, but even more it needs counsel as to their application to specific situations. This book fulfils both these requirements in a very special way. For this reason I am recommending it, not as a philosophical treatise, but as a text book with an everyday usefulness for all those who are trying to bring some measure of reasonableness and order and effectiveness into our turbulent industrial life. . . The book as a whole, in spite of its austere mecha- nics, is not hard reading. This does not mean that there are not places — in fact whole sections — which I made no effort to get and others which I read superficially. But the author has developed quite a knack of using words in not only a precise but a commonly accepted way, so that over a greater part of the journey, a lack of mathematical and scientific training is not an insuperable handicap. . . Of course, if one readily understood and as readily agreed with everything in a book like this, it would be too simple a document to merit much attention. ... I will be much surprised if to most men a reading of 'Universe' will not make the struggle [of life] a far simpler matter than it usually seems to be." Set up, printed, and published by S. KLYCE, Winchester, Mass. Publisher's price, to everybody:- $2 plus postage POSTAGE, up to 150 miles from Boston, 7c; to 800, 10c; to 600, 15c; to 1000, 20c; to 1400, 26c; to 18oo, 33c; beyond, 88c. Bookstore price, $3 K Cornell University Library The original of this book is in the Cornell University Library. There are no known copyright restrictions in the United States on the use of the text. http://www.archive.org/details/cu31924029066343 UNIVERSE BY SCUDDER KLYCE WITH THREE INTRODUCTIONS BY DAVID STARR JORDAN Chancellor Emeritus, Stanford University JOHN DEWEY Professor of Philosophy, Columbia University MORRIS LLEWELLYN COOKE Consulting Engineer, Philadelphia Copyright, 1921, by Scudder Klyck Copyright in Great Britain First Edition. — 1000 copies. — Printed from type and no plates made: plates can be made by photographic processes later if they are needed. Set up, printed, and published by S. KLYCE Winchester, Massachusetts Publisher's Price to everybody, $2 plus postage (Wt. 3 lbs.) Bookstore price, $3 (see Preface, §Fi). 1921 CONTENTS First Introduction by John Dewey. Second Introduction by David Starr Jordan. Third Introduction by Morris Llewellyn Cooke. Preface. Introductory Remarks. chapteh I Summary of contents and their character. II Order and relationship of contents. Part One. Formal unification ; or Theory of Language. III Nature of the general problem and its conventional name; or, what apparent failure in unification requires reconcilement. IV Statement and proof of principles of language; or, logic. V General statement and proof of how to apply language. VI Names for logic, and chief application of valid logic to men. VII Statement and proof of valid logic from additional points of view. VIII Mechanical model of language. IX Theory of language in terms of physical science; or, general unification of science. Part Two. Concrete unification ; or Physical Science. CHAPTER X General principles, and general mechanical theories, of science. XI General whirl mechanics. XII Astronomy. XIII Light. XIV Electricity. XV Heat, chemistry, etc. ; and summary of Part Two by practical applications. Part Three. Spiritual Unification; or Humanics. XVI Biology. XVII Psychology. XVIII Ethics and economics. XIX Sociology and economics. Appendix A. Appendix B. Appendix C. Index. Abbreviations. Periodic table of elements. Geologic time scale. ERRATA The errors in this following first list are those which the reader can not readily see at once are errors, and see what is correct. The second error in the iist was made only in about half the copies. § 42d line 8 Read stayed instead of stated. 74f line 32 Equation should be Density=MI~ 3 . do C^QmeT. Read Reeve's instead of Reeves's. Read chapter instead of section. Read or instead of of. Read or instead of and. Read lower instead of slower. Read 1913 instead of 1903. Read F instead of the second E. Read good instead of 2nd poor. I mm ii Read of instead of in. 76e line 14 89b line 21 96c line 2 98n line 34 1 14d line 3 132a line 9 132e line 10 ]36c line 14 Footnote 168h-iii line 37 do -v line 14 This second list is a list of paragraphs in which typographical errors occur that the reader can readily correct for himself if he not- ices them. In a number of the listed cases I caught the error myself and corrected it before printing all the 1000. I know that there are some more-technical errors I haven't listed; and probably there are numbers of errors I haven't found. §§43cf, 44d, 47h. 49d, 50e, 59ae, 60i, 61a, 63c, running head p. 61, 72d, 74b, 76e, 78a, 80c, 81h, 83e, 84b, 85b, 86cdh, 90c, footnote 98d, 98g, 99ab, lOOg, 101b, 104b, 1 12a, 113c, 116b, 118e, 120ik, 122j, 126bg, 133e, 136c, 144hi, 145c (two), 146k, 147fg, 148b, 149jq, 151a, 153d (two), 155b, 161b, 162fj, footnote 166d, 166nr, 167j, 168dmnp, 170k, footnote 172c, running head p. 233, 175c, 176b, foot- note 176d, 176e. UNIVERSE Dewey's Introduction THREE INTRODUCTIONS FIRST INTRODUCTION by John Dewey Mr. Klyce has invited me to write some prefatory words for his book. In spite of my technical incompetency in physical sciences and realizing the handicap that imposes upon me, I have gladly consented. For although the argu- ment of the book as a whole must finally stand or fall with the treatment of topics where my lack of knowledge makes it impossible for me to have a real judgment, the sincerity and power of the book, and the radical simplicity of its unifying idea give it every claim to a hearing. And judging from the parts where it is possible for me to follow intelligently, I have a strong presentiment the other parts do not go far wrong in substance : — Mr. Klyce himself makes plenty of allowance for deviations in special points. Mr. Klyce says somewhere in effect that every reader of this book will have in the end to rewrite it for himself. My introductory remarks can not take any other form than re- writing that portion of Part One which sets forth the funda- mental logic — or method — of the book. He says that the book unifies or qualitatively solves science, philosophy, and religion. Many cultivated readers will be likely to stop right here. While they tolerate or laud classic philosophers for attempting such unification, they associate, with painfully good reason, contemporary profes- sions of such solutions with pretentious ignorance. To make such a claim is the common sign of the incompetent amateur in philosophy and science. My first rewriting is of this phrase. Mr. Klyce emphasizes qualitative unification. He ex- pressly points out that concrete problems of science and practical life are solved only in living them intelligently. For the word qualitative, we may write the word formal, and contrast it with material unifications. Then we note that such attempts as are in unenviable repute owe their offensive arrogance to claiming material unification. Every philoso- pher deals with the problem of formal unification, either positively or negatively. What is significant in this book is not, then, the claim of unification but the way it is worked out. Every reader knows how common are phrases that combine antithetical terms, terms that taken separately oppose each other. Examples of such pairs are :- rest and motion, space and time, matter and energy, potential and actual, analysis and synthesis, one and many, individual and society, common and proper noun, cause and effect, freedom and authority, quantity and quali- ty, prose and poetry, parts and whole, mind and body, flesh and spirit, God and nature, purpose and mechanism, static and dynamic; or upon a slightly more technical plane, dis- crete and continuous, substance and properties, elements and relations, existence and essence. Now the natural mind, the commonsense mind in the best usage of that ambiguous phrase, is not perplexed by those combinations of opposites. They seem natural, complementary ; expression is incomplete without both. Philosophic reflection begins with an express noting of the opposition between the terms of such pairs. It sets out to reconcile them, to get a qualitative or formal unification. Or it denies the possibility of any unification, and holds that all knowledge since it goes on in such terms as motion and rest, space and time, is relative." Or, the apparatus of knowing gets between us and the things to be known. Or it gener- alizes the pairing off into a rigid dualism of the separate, in- dependent forces, substances, principles. Or, like Hegel, it takes the bull by the horns and declares that all reality, all truth" is a union of contradictories. Now it is a conceivable hypothesis that commonsense is innocent of these contradictions because it always uses the terms with reference in a context, to mark or point out features in a situation, and with no other intent than calling attention to them, either as memoranda for one s self or as guides for another. This supposition does not as yet explain the opposed character of the terms, or why they go in pairs. But it raises another interesting hypothesis. What would be the effect if some one else reflecting on the agencies of point- ing and marking forgot their directive use, and took them to convey something otherwise than as pointers to observations? May not this explain why the terms are effective in ordinary usage and stumbling blocks to the philosopher? This last paragraph is one way of rewriting another sen- tence of his Introductory Remarks which will give offense to some readers :- that the author s method of complete formal solution has to do with a mere trick of words. Unfortu- nately, not all readers, or writers, take words as seriously as Mr. Ktyce does. He himself points out that a mere word is but a passing sound or a patch of ink. What he is doing, as he clearly points out in §2de, is to investigate the fact that knowledge is a statement or expression, and to investigate this fact by the same experimental methods that have hither- to been confined to the things stated or expressed. Now language as a machine of expression or statement is something quite different from a mere trick of words; and in §155 Mr. Klyce vividly depicts the psychology that makes him from time to time resort to such depreciatory phrases. The reader must balance it with the term absolute unification of science, philosophy, and religion," as he is used to balancing the terms rest and motion, whole and parts. Let us return then to the hypothesis that in actual use names call attention to features of a situation ; that they are tools for directing perception or experimental observations. The first thing to be noted is that the situation" is referred to only in the (literally) most general way, as the limiting in- cluding thing within which specific things are pointed out. A gesture calls attention to a dog-fight. It doesn't call at- tention to the town, to the world or the sun and its light or to the previous history of the animals or to the position and expectations of the observer. And if some special feature within the dog-fight is then pointed out, a broken leg, the fight itself is no longer specified. It takes care of itself. It is now the situation as the entire visible scene was form- erly the situation within which the fight was discriminated. The situation as such in short is taken for granted. It is not stated or expressed. It is implicit, not explicit. Yet it sup- plies meaning to all that is stated, pointed out, named. Its presence makes the difference between sanity and insanity. We may say if we will that it is ignored. But the ignoring is not the ignorance of denial. Ignoring means "under- stood," assumed as a matter of course as the background and foreground which gives intelligibility and state-ability to what is explicit, expressly pointed out. Now the implicit situation cannot (save arbitrarily ; that is, by some agreement for a purpose) be stopped short of Everything. The setting, Dewey's Introduction the implicit situation, shades off from the explicit, indefin- itely and continuously. Everything" is understood, im- plied, then as the setting, or meaning-giving force, of what we explicitly say or state. Recur now to the actual naming or pointing. It discrimi- nates, distinguishes something; makes it explicit, states or expresses it. That which is pointed to gives the meaning of the word or directive gesture. But the lone thing pointed at has no meaning. We always distinguish one thing from something. All explicit names point out then a comparison- contrast of at least two things. A This by itself, as Mr. Klyce points out, has no meaning. It is not an expression or statement, but merely another thing, a noise or figure. This explicitly implies That; Here explicitly implies There; Now, Then. In short, the simplest possible intelligible state- ment explicitly implies a number-of-things-related-together, while it implicitly implies a sum total, or an Everything with which the related plurality of things is continuous. This is a "trick" of language just as a watch may be called a trick of steel. It is the only way a thing can be done, in one case keeping time, in another case giving direction to observations of existence. Size and complexity in both cases may vary indefinitely ; and substitutes may be found for steel, and different signs in language. But the way, the principle, re- mains the same. Here is the qualitative or formal unification. This is one way in which one basic proposition of Mr. Klyce may be rewritten. This way of writing will probably appeal especially to those habituated to philosophical modes of writing. For it suggests that the problem of statement, or language, is identical with what in philosophical writing is called the epistemological problem, the problem of know- ledge. Science is the expression of experiments with things. It isn't the things over again, nor is it simply the experi- ments. It is communication of them with their results in consistent form. The simplest and most objective way then to examine knowledge experimentally is to examine consistent expression or statement experimentally — to see what happens when we do or make it. The method as used by Mr. Klyce gets rid of an enormous amount of cumbrous and largely effete psychology. It cuts out an enormous mass of historical reminiscence that obstructs the path of one who approaches the subject in the traditional way. To philosophical readers (to those who use that particular dialect) I would point out the freshness and directness of Mr. Klyce's method of ap- proach to the old problem of the nature of knowledge. This remark applies to his method irrespective of the re- sults he has obtained by its use. Let us now return to an inspection of these results. In any intelligible statement, from a gesture to a complete discourse on science, there are two kinds of implications, one implicit, the other explicit. The explicit implication is that of relations between ele- ments ; that is, between distinguished parts. The implicit, understood or taken for granted is, ultimately, as we have seen nothing less than the universe or Everything." Now (l) this implicit implication is strictly ineffable. It cannot be stated. For it is required to give meaning to any statement. Yet it is convenient, and for consistent expres- sion of complex matters it is necessary, to have a term to re- fer to it. It is necessary to have a word which reminds us that whatever we explicitly state has this implicit, unstate- able, ineffable implication. Hence the terms which Mr. Klyce calls One words, like all, nothing, only, being, every, infinity, universe, whole, never, always. These words have no (definite) meaning. In philosophical terminology they are transcendental, noumenal, a priori. They are religious terms, like God, eternity, perfect rest or peace, complete salvation. An experimental realization of their meaning is UNIVERSE had only emotionally, and the emotion may be poetic es- thetic or in some cases mystic. Speaking in philosophical terminology, we have here revealed the truth and the falsity ot the whole brood of absolutistic, transcendental phi osopher^ They have had a genuine experience of ^«, which is reqmred for the meaning of any consistent statement. But they as- sert that these One terms themselves have a meaning, that they are terms of statement. Or if they are professional mystics, the ineffable character is recognized, but the experi- ence is regarded as a special, separated, not to say unique, experience, instead of what is implicit, in some degree of intensity, in every experience. (2) The other side of statement is distinctions-in-relations, Many words, and Relationship words. Here the ways of go- ing wrong by failing to observe what we do when we state or express or know' are more numerous. The most general and fundamental one is to turn the ignoring of the Every- thing or Universe (to take Mr. Klyce's favorite term, tho to some it is too indicative of the starry heavens) which is equivalent to its implicit assertion into its explicit denial. This is the root of all kinds of phenomenalism, relativism, agnosticism. For it amounts to asserting that the very act of making known (expressing) mutilates reality, puts a veil or screen between us and reality, hides things-in-themselves from us, perverts it in bringing it within our grasp. This is the root of all agnosticism and subjectivism — the notion that the process of knowing intervenes between us and the things to be known. And Mr. Klyce s examination of Statement shows that this notion is due to failure to grasp all that is done when we state; namely, refer to the Whole as the con- text within which what is explicitly stated falls as constitut- ing its meaning. Every statement (or knowledge) fully realized in its im- port or logical form links us up with the Whole, instead of cutting us off from it. And this is true when the statement is materially wrong — as every statement in its explicitness is bound to be in some degree. For some of its implicit junc- tions with the Whole may be rendered perceptible in further statements. If the statement is sincerely taken, they not only may but will be. Every intelligible statement contains within itself, in other words, the conditions of its own recti- > fication, provided we carry out the experiments it indicates. I think that those who appreciate the force of these remarks and who find them verified in their own experience will agree that Mr. Klyce understates rather than exaggerates the emo- tional relief and expansion that may come with it. Other fallacies which arise from failure to perceive fully what happens when we state or make known (to ourselves or others) are materialism and mechanism — as a wholesale 'ism, that is. This arises from observing that parts are discrimi- nated and failing to observe that they are at the same time related. The problem of relations and elements is a familiar one in philosophical writings. Perhaps one need here only call attention to the likeness and unlikeness of Mr. Klyce's treatment with that of Mr. Bradley. The latter also points out that every statement both analyzes and synthesizes, selects or partializes and also unifies. But he places those functions over against each other. Selection mutilates the living fullness of reality. Unification adds as it were insult to injury; it falsifies, for the selected parts are not as such capable of union. They unite only in the whole. From this property of statement (judgment, in Mr. Bradley's language) he infers that everything we judge is compelled to take on the form of appearance, because it involves self-contradiction and this cannot be found in reality. All this is suggestive of Mr. Klyce's insistence upon iden- tity or circular perception" as the test of statement, and UNIVERSE Jordan's Introduction his pointing out of contradiction between the many and the one in every statement. But where Mr. Bradley ends, Mr. Klyce begins. He points out that this contradiction is itself contradicted by the assertion (indication) of the implicit Every- thing. The elements selected are so related in every intelligible statement as to constitute the Whole; or, the situation is so distinguished that it has an infinite number of elements. And infinity is again a reference to the Whole. This is the verbal trick" in its simplest form. The infinite regress of relation and element which Mr. Bradley points out in judgment is to Mr. Bradley another sign that our know- ledge does not get beyond Appearance. Mr. Klyce shows that this infinite regress is the method by which every state- ment indicates or refers to the Whole. It negates the seem- ing arbitrary selection of some parts by calling attention to the fact that the Whole has an infinite number of other parts: that is, is a whole. 1 Another fallacy arises from confusing relationship terms with many or one terms. In this case, we get pseudo- idealism, pseudo-intellectualism, abstractionism in the sense which Mr. James so vividly condemned. Mr. Klyce refers as an instance to the fact that many writers dress up the re- lationship word truth in shining armor, and exploit emotions with it. All idealism of the self-conscious, professional type is of this nature; all idealism, that is to say, that opposes the ideal to the actual, and throws contempt upon the actual and concrete; which sets up ideals as something above and too good for the common man in common experience. It is the aristocratic vice par excellence. The ideal is the Whole implicit (tho not implied in the ordinary logical sense of im- plication) as the meaning of every intelligible experience. Hegel doubtless saw this in a way, but made the typical idealistic error of supposing that the task of philosophy was to derive modes of statement superior in kind to those of commonsense and science in which the implicit whole should be rationally explicated. In fact, the philosopher has the humbler task of pointing to the fact that every consistent statement already refers to an ineffable whole. Realism, especially modern analytic realism, on the other hand, ig- nores entirely the implicit, and insists only upon logical im- plications ; that is, relationships which can be made explicit. As a consequence its relations become only another and strange kind of things or parts. An atomism results which taken strictly forbids all statement whatever — as the Greek critics of a similar view long ago pointed out. A word may be added on Mr. Klyce's elimination of the bugaboo of subjectivism. Mr. Klyce gets rid of it by start- ing with expression or statement as itself an objective fact which can be observed like any other event. His method may be said to assume or imply that expression is a function' of things just as heat is. But this assumption is, as Mr. Klyce points out, merely formal in both cases. The meaning of the assumption that heat or a statement is there (is happening) is not found in the statement about heat or ex- pression but in the observation of the happening itself. A finger-board on the road does not materially assume anything about the town to which it points. It actually or materially does nothing but point. The only assumption" is that if you take the road you will find -what you will find; that 'In rewriting one part of Mr. Klyce from the standpoint of the traditional problems of the theory of knowledge, I am doing him an injustice not only from the standpoint of the larger public not con- cerned with technical philosophy but from the standpoint of profes- sional philosophers. For reference to the positive development of implications of space, time, energy, units of science, and the formu- lae for their relations, in which Mr. Klyce makes his formal unifica- tion fruitful is omitted. which you find is alone the real meaning of the sign-board. The sign may lie; Mr. Klyce may be mistaken. But the only way to find out either thing is to take the path indi- cated. In the case of the book this means to observe, with the guidance of its author, the thing or happening called ex- pression. It takes a considerable amount of skill and a large degree of vision and good will to follow the road, but that is all. I hope what has been said may indicate the extraordinary value of Mr. Klyce's work for philosophers, and, in connec- tion with the way in which he applies the formal unification outlined to the mathematical, natural and social sciences, to all persons interested in reducing intellectual obfuscation and confusion. Many thinkers have had the laudable ambition of exhibiting the connection of science and philosophy with commonsense. But usually they have taken commonsense to mean a mixture of the operation of sound sense with a body of inherited engrained traditions and sophistications. Mr. Klyce has taken commonsense in its radical and simplest form, the form of stating or making anything known. He has himself pointed out the reason why his thought is not always easy to follow. The most difficult thing in the world to learn to see is the obvious, the familiar, the universally taken for granted. Taken as a sketch of a certain way of discovering the meaning of knowledge in general and in its typical branches, Mr. Klyce's book is remarkable, note- worthy. If experts in various lines shall find his special re- sults as fruitful, as illuminating, as his general treatment of knowledge and technical philosophy has been to me, the re- mark just made will turn out to be altogether too moderate. Any remark of mine about the value of the book in anticipa- tion of this result will seem intemperately extravagent. After the result, it will, fortunately, be quite unnecessary. John Dewev. SECOND INTRODUCTION by David Starr Jordan The unique treatise for which I have been asked to write a few words in introduction impresses me as a daring and successful effort to aid straight thinking by the accurate use of language. Its central purpose is to bring into the realm of Science the philosophical conception that all that exists is in a sense of one piece, — infinite variety embraced within infinite unity. Thus the Universe may be looked on as a majestic Federation of Energies, an infinite machine in which all parts fit and cooperate. Oneness, however, does not imply tangible sameness, though some apostles of Monism have insisted that underly- ing unity inevitably postulates at least some measure of ob- jective identity — as of matter and force, for example, — or more concretely, of all the chemical elements, one with another. But to be fundamentally at one" does not neces- sitate any such sameness. Matter and force must comple- ment each other, in some positive sense, as the key fits the lock. Indeed there are numberless intimate relations which do not necessarily involve identity of origin, form and sub- stance. In a harmonious universe (however we may describe it) there might be (and we can know only by observing) a million definitely distinct chemical elements, not interchange- able and not derived from Haeckel's fancied "Protyl," or any other primitive world stuff, whether matter or spirit. As to this and to all other questions of fact, we shall never know the answer until we find it out by looking. Moreover, the conception of the unity of the Universe need not ever Jordan's Introduction UNIVERSE reduce it to a single substance, nor even to a single definite purpose. Pluralism (multiplicity in unity) is as true as one- ness, in the meaning given by William James s assertion :- No one can question that the Universe is in some sense one, but the whole point lies in what that one is. Science is human experience tested and set in order; any belief which neither demands nor permits verification lies outside of Science. All propositions which can be proved by deduction or even proved completely (see §S5 of the book), belong to the realm of expression or Logic, not to Science, — conclusions being involved in premises. Pure mathematics, for instance, is the logic of number and space, and its dem- onstrations, however intricate, are derived from its defini- tions. Similarly, a definition of the Universe can be framed in such a way as to make its unity self-evident; — in fact no other definition that is self-consistent is possible: but no scientific conclusion can be deduced from proof thus obtained. Details of reality — matter, force and life — would be no nearer demonstration than before, for these we know only from the coordinated results of human dealings with them. Knowledge, never complete, may be relatively exact or inexact according to the sufficiency of our data. In no field has Science yet reached completion, — and it is in the nature of things impossible that it ever can. It sees some things very definitely ; but the unknown lies as a trackless wilder- ness on every hand. As details accumulate, generalizations are possible — and even prophecy with some degree of cer- tainty. In Physics, Chemistry, Astronomy, relative ex- actness prevails. The simpler the factors involved, the more definite our mastery. Obstacles in the relatively exact sciences are mainly our human limitations. The enormously distant and the extremely small elude precise observations; star and electron baffle alike; the bulk of the Universe is beyond our definite seeing. Time is as long as space is wide," and no one can conceive a limit to either. The sciences concerned with life deal also with the ele- ments of matter and force, but in highly varying relations. In any biological problem, conditions due to the relative po- sition and relation of atoms and molecules, of cells and tis- sues, of organisms and environment, are visibly varied almost to infinity ; data of one sort or another everywhere abound, but the more we have, the more we see we need. Untested problems crowd on every solution. In biology, therefore, to a degree greater than in the more exact sciences we cannot know what we know or what we do not know with complete- ness or ultimate precision. The only final test of a supposed fact is found in our ability to prove it by trusting our lives to it, or to the method by which it is gained. Simply to demonstrate that a propo- sition will work — that is, muddle along after a fashion — is not enough ; in all its parts it must stand a supreme test, that of liveableness." Such a direct and conclusive proof, however, is not available in all life's complex and im- mediately pressing situations. The next resource is to test the method behind the conclusion. The aggregate of know- ledge, so tested, constitutes Science, which then becomes the guide to conduct, though never infallible, because never complete. In default of personal experimental knowledge as to matters of fact or ideals of conduct we make the best we can of the conclusions of others, trusting to the strength of the method by which the conclusions are reached. We thus have an acceptable hypothesis on which to act until the returns from personal experience begin to come in. Mr. Klyce makes no attempt to solve any scientific prob- lem by pure reason, but he would have us make rational use of the knowledge we possess. As to the fundamental co- ordination of all which exists, known or unknown, — any consistent use of the word Universe implicitly asserts it. Man himself is able with fair success to make his way in the Cosmos; obviously then he is not utterly alien. Not only does his continued existence prove him not alien, but further- more, by taking thought, he can make headway against the forces of nature and thus in some degree shape his own ca- reer. A similar line of argument is shown to apply to every concrete thing of which we are cognizant. The burden of disproof of Mr. Klyce's thesis lies on him who, within the confines of the Universe, can conceive anything — matter, spirit, life, space, or time — which lies outside it. David Starr Jordan. Stanford University, California, March 20, 1920. THIRD INTRODUCTION by Morris Llewellyn Cooke The world today needs broad generalizations, but even more it needs counsel as to their application to specific situa- tions. This book fulfils both these requirements in a very special way. For this reason I am recommending it, not as a philosophical treatise, but as a text book with an everyday usefulness for all those who are trying to bring some measure of reasonableness and order and effectiveness into our turbu- lent industrial life. Industry is not only still in the making, but it is in its infancy rather than its adolescence. Just as we begin to realize that civilization is dependent on industry for its very ex- istence we have come to see that this same industry is really not related to Life in any vital way. It is a perilous position and no one claims that the path ahead is at all clearly de- fined. The perpetuity of our institutions seems to depend on whether in a generation or two we can come to have a better understanding of this Juggernaut we have created. For it is daily more apparent that all will not be well in the world until each unit of the structure of industry is sympa- thetically related to every other and to industry as a whole, and that industry itself must understand in some measure its relation to Ultimate Reality. Our industry has been very largely a matter of trading. But the barter basis is disappearing with the advance of science. More and more it is the trained engineer or the man with engineering training who holds the key positions in industry and commerce. But Engineering in the past concerned itself very largely with things. Up to a genera- tion ago engineers were for the most part either designers or constructors of things, i. e.,, bridges, dams, railroads, power plants, etc. Then the operation of these agencies began to be included within the scope of Engineering. Only quite recently has it come to be considered that in the operation of most industrial enterprises the engineering method is apt to be the most effective. Thus has been developed the engineer- ing of men, sometimes called human engineering' in con- trast with what has been the more technical engineering of materials. This book, from the business man s or engineer's point of view, undertakes to establish a proved and verifiable scientific basis for this new branch of engineering which some people prefer to call efficiency engineering. The book as a whole, in spite of its austere mechanics, is not hard reading. This does not mean that there are not places — in fact whole sections — which I made no effort to get and others which I read superficially. But the author has developed quite a knack of using words in not only a precise but a commonly accepted way, so that over a greater UNIVERSE Preface §Ab part of the journey, a lack of mathematical and scientific training is not an insuperable handicap. The author advises readers — especially at certain places — not to work too hard to get out all the meaning. I dare say that the average reader who will approach the book in this spirit will get about all the author expects anyone to get on first reading and will then be tempted to start all over again. The reader should be on guard against being unduly stirred by the author s mannerisms. In some of his com- ments on theologians and lawyers" for instance it seems to me that he lapses from his general technique of tolerant expres- sion and philosophy. Of course, if one readily understood and as readily agreed with everything in a book like this, it would be too simple a document to merit much attention. It is altogether impossible to epitomize the conclusions of any such book. But among many pithy phrases which Mr. Klyce has coined, balanced co-operation ' stands out as one having special significance in the industrial field. It means something more than doing unto the other fellow what you would have him do to you. It seems to involve a measure of action and reaction as between units and groups, which will in every instance be conducive to well-being and growth all around. During the War it would frequently have sug- gested to organized labor the advantage of restraint in push- ing wage claims, and at the present moment it should give pause to those employers who tend to push their opposition to labor unions beyond the checking of their obviously un- toward tendencies. According to the author, democracy al- lows or requires that each side to any discussion re-act to the other. This is the exact opposite of the We have nothing to discuss" or the Public be damned attitude. After all, whether you are king or labor leader, business man or priest, your master decision is as to whether you will be — to use the language of the book — a dualist and an autocrat" or whether, constantly studying the unity of all modes and expression of life, you will seek through bal- anced co-operation" to participate in the execution of pur- poses and a Purpose not your own. Mr. Klyce has shown a capacity for infinite pains in carrying his main thesis into so many different scientific realms and there seeking to establish its truth. Too fre- quently we have been asked to take judgments on scientific, religious and philosophical matters from men who having grown up in one group inherit points of view — even prejudices — which would be dissipated by a larger outlook on life. Vernon Kellogg says that while The biologist does have a certain positive knowledge of some conditions or factors that do help to determine the course of human life," it is also true that "the course of human life is partly determined by a set of conditions which are, so far, at least, quite out- side the special knowledge of the biologist. He can guess and wonder about them, just as other people do, but he has no right to claim that he knows about them." The same re- mark obviously can profitably be made about any specialist. Also, to any specialist is apt to come the moment — and and it is one of possible, even soul-racking, disillusionment — when the inadequacy of a narrow slant on life becomes apparent. The more sincere the worker and the more funda- mental his work the deeper the yearning to relate the indi- vidual effort to the totality of things. The surest way to give dignity to a simple act is to relate it to a purposeful life. The surest way to endow our industrial system with vitality is to scheme it out in harmony with all Life — to make the paying of a wage and the doing of the day's task in some genuine fashion God's service — to link them up with the Ultimate Purpose. Of course a great industry will only result from the activities of great men. Most industrial leaders impress us as being literally worn out fighting against a flood of isolated facts and ideas. We need the unifying thought of this book. To be effective we need above all to make our lives simple. Men vary in their mental capacity, but it is undoubtedly true that some men with great capacities are not the match for men of ordinary abilities who see life steadily and see it whole." I will be much surprised if to most men a read- ing of Universe ' will not make the struggle a far simpler matter than it usually seems to be. The very familiarity which grows out of usage has af- forded in the past in all too generous measure, the authority which we humans require to make us happy in our work and play. But in so many ways — through education, through a heightened individualism, and more immediately through the shake-up of the Great War — the mass of men are questioning all our procedures in a way heretofore unheard of. In the depths of the mines, in the vast silences where the lumber- jacks toil, on the seas and in our great manufacturing plants near the centers of population, men are counseling together as never before, on the meaning of life and the meaning of industry and the relation of one to the other. The idea that anyone knows in the old particularistic sense is gone. Have we not read only yesterday of Einstein and that theory of relativity that upsets ' one of the surest rocks on which our whole structure of knowledge has been built? We know now as never before perhaps that, to use the language of this book, There is no exact science." And yet our respect for science deepens and our sense of depend- ence upon it has become altogether profound. This under- standing of the place of science in industry and life is no longer confined to the schools. The nations begin to appre- ciate the hopelessness of preserving their identity except through science. The owners of our industries perhaps feebly — but altogether definitely — are studying in myriad ways the application of science to the production of goods. And now we detect the first beginnings of the same tendency in the organization through which labor expresses its purposes. Herein lies one of the great hopes of the race. When our workers reach the point where they can well abandon force and embrace science, humanity will be in for a new experience. But a science that is unrelated is even more fearsome than an industry that is detached from life. Hence our obligation to the author for a master generalization in which science is made to seem but another manifestation of that Ultimate Reality to which the human spirit itself is kinsman. Morris Llewellyn Cooke. PREFACE §A. Subject matter. — a. This book unifies or qualita- tively solves science, religion, and philosophy — basing every- thing on experimental, verifiable evidence. The explicit meaning of that statement is given in Chapters I and II. No assumption is made (as is shown in §22). b. The book is a condensed, preliminary rough draft of that unification of knowledge. All the qualitative problems set forth by the race — by "religion, science, and philosophy" — are herein positively, definitely, and verifiably solved. But the application of those solutions consists of quantitative §Ab Preface UNIVERSE problems ; and it is shown that no quantitative solution may be accurately expressed or given (§§25, 40-1, 50, etc.); also, such solutions are infinite in ' number" and may not be even roughly expressed in a finite book. Hence, merely general methods of the application of qualitative solutions to the problems of how much? and how many? are given. And only in so far as the reader is able to understand, verify, and ap- ply those methods to his life has the book any value to him. As each person differs from others (§§162i-j, 167m, 168p, 170p), the best book for one reader truistically can not be the best for another. So this book can not possibly be final, or the last word ; other men can continually rewrite it bet- ter, wholly or in part. And most emphatically, I propose to no reader any creed, or theory, or system of truth, or ritual of any sort. As will be seen (Part One), all such are merely passing conveniences, tricks with words — and each reader may best select his own words. c. The prime purpose of the book is to substitute posi- tive knowledge for that aggressive ignorance which is named agnosticism — thus eliminating agnosticism, the current pre- vailing ism." The accomplishment of that purpose results in raising the standard and content of living — gives life more abundantly" (Chapter XVIII, on ethics). §B. To whom addressed. — a. The book is addressed to the general reader who has a fair education. Each sub- ject is treated with the rigor that will, it is hoped, satisfy the experts in that subject. But because the book includes all branches of knowledge, probably no one of the present day would be competent to read it if it were written in highly technical terms, and gave the minute details of each branch. I certainly should not be. So in order to satisfy all the ex- perts by giving each the complete grasp of his subject which truistically includes knowledge of its relations with the sub- jects of other experts, it was necessary to avoid all but fairly common technical terms, and to omit unnecessary details. And that is equivalent to addressing the general reader. b. That reader, as will be shown implicitly throughout Parts One and Three, is quite competent to judge the validity of this book. There is nothing esoteric or hard" about the book in general. It is merely a description of things as they are. However, it requires some work to read the book. Some effort of attention will have to be made in places. c. A competent scientist of wide and successful experi- ence in writing for the general reader tells me that people tend to be frightened away from a book that uses mathemati- cal equations. I show that such a distrust and dislike of mathematics is justified, and an evidence of the wisdom of people in general: conventional mathematics contains funda- mental errors (§§80, 4)3-4-). I remove those disabilities of conventional mathematics, and then use a few algebraic equations which even the non-mathematical reader will nearly surely approve, so obviously do they economize his attention. I may add that the publishers I tried seem to disagree with that: the reader may judge whether they underrate him. §C. a. There is no originality in this book in any real or important sense. Possibly some combinations of ideas are partly new. But I myself have definitely found nearly all, ev- en of the wider combinations, previously advanced by others. b. Consequently, the reader need not anticipate being repelled by any novelty or heresy of any importance ; even when at first there is some slightly distressing apparent nov- elty, in the end it will turn out to be obviously an old belief. E. g., it is shown that the earth is cold inside (§122i). That does not happen to be the current conventional belief. But it was a common view in the past; and if the reader will ex- amine his views he will probably find that he has no more real love for a hot inside than for a cold inside — but prefers, as the important thing, the actual facts and the absence of self-contradictory views. The perspicacious reader will soon discover that I am very conservative — avoid being either radical or reactionary. c. As there is no real originality in the book it follows that I am indebted to others for the ideas set forth. I grate- fully acknowledge that debt; but those creditors are so numerous that I can name none without injustice to many whose names I do not even know. In even greater measure I am indebted, not only for ideas I have used, but for what is more, personal aid and inspiration, to my wife, Laura Kent Klyce, and to Frederick W. Taylor, David Starr Jor- dan, John Dewey, T. W. Richards, Dorothy Canfield Fisher, J. J. Thomson, and Gerald Stanley Lee. §D. a. Some personal remarks may interest the reader, and will give needed information :- b. In the early summer of 1914 I finished a book that contained substantially what this one does. It was too long, and contained literary defects quite too atrocious, for publi- cation. It ran to about -700,000 words. Since then I have written it over in whole or part continually — having much of that competently criticized. That work is here condensed into a volume of reasonable size — I have struggled to keep it down to 250,000 words (it has expanded in two rewritings and probably will be about 325,000 when I finish setting it up: this page is done in the middle of that job). That al- most violent compression of such an obviously extensive sub- ject was necessary chiefly because a long book in this day of many good books frightens away readers, and because with a subject of such a nature a long book would tend to have so many trees that it would hide the forest' from the view of the few who might have braved its length. c. The reader can of course understand that it would have given easier reading if some of the book had been ex- panded into smaller and more familiar detail. But the al- most imperative need of brevity, which has just been pointed out, has required the sacrifice of such ease. Quite possibly no reader will be satisfied with the actual compromise that has been made between such brevity and such local easy in- telligibility. The most difficult thing about the actual writ- ing of the book was to make that needed compromise in a way that was even tolerable to the reader — to conserve both his effort of attention and of memory. §E. Typographical and similar formalities. — a. Cer- tain arbitrary printing styles, which are not always used, have been followed in this book. An explicit statement of them here, if the reader keeps the statement casually in mind, will save his attention. b. The argument unifies knowledge. Consistently with that idea, often when I have a formally plural subject, in my view it is clearly unified, and I use a singular verb — some- times oddly. Always in that as well as in other grammatical constructions, I try to be conventional and hence inoffensive. But when explicitness and clearness of expression seem* to require it, I deliberately sacrifice formal grammar. c. All names of books, articles, etc. , are put in quota- tion marks. d. All algebraic symbols are given in italics. e. All words, used as words, are printed in italics; no quotation marks are placed around them unless the custom for such marks (stated in the next paragraph) also applies to them. Italics are also used for emphasizing a word or words whenever it seems to me to make the text the least bit easier to read. It would of course always be possible, by ingenious literary circumlocutions, surely to indicate the desired em- phasis without that mechanical use of italics. But the keen reader will appreciate the brevity secured by italics, and will UNIVERSE Preface §Ff readily perceive that I compliment him by taking it that he does not need the literary flattery I could give him by letting him waste energy finding the emphasis. This is not a book for stupid readers, who require even literary flattery. f. Quotations of others are marked thus:- "",etc. — in the usual way. Quotations of myself are marked thus:- '; and such quotation usually consists of my use of some word or phrase in a temporarily unusual sense. The " " marks are similarly used at times to emphasize or indicate that I am using a word or phrase quite conventionally. g. This double mark :- is used to introduce something that the previous sentence or clause has definitely prepared for and led up to," so that it just precedes some remarks that are to be expected. The ordinary colon : is reserved for its other ordinary uses. When the :- is followed by a word beginning with a small letter, it introduces merely the remainder of the sr.me sentence — when by a capital not other- wise needed, the remainder of the paragraph, etc. h. Economy of attention requires the conventional me- chanical device of treating a single topic in a paragraph. ' Sometimes in this book such a natural topic needs a lengthy paragraph which of itself contains sub-topics. If the long paragraph were split into paragraphs to indicate its natural subdivisions, it would, mechanically, at first give the reader the erroneous and confusing idea that the chief topic changed. So I split it into little paragraphs by a dash . i. Most algebraic symbols' used in this book are con- ventional initial letters; but some are whole words. A list of those symbols, etc., is given as Appendix A. The chemical elements and periodic table are given as App. B. j. The symbol ... will be reserved for the single mean- ing:- a continuing series, or infinite regress (§36n). An omission in a quotation, which often is indicated by that symbol, is indicated by ***. k. When I needed to state the source of a quotation or idea, or to indicate where fuller or analogous expression or proof is given in this book, I have tried to avoid that distract- ing and chopping up of the reader's attention which would have resulted from putting the reference in a footnote in the more usual way, by putting it directly in the text in an ab- breviated form, where the eye can recognize it at once for just what it is, and yet inattentively slide over it unless it is to be definitely used. For similar reasons I have tried to get along without footnotes. Only when a needed parentheti- cal statement seemed to make too violent a break if printed in the text, have I put it as a footnote. 1. In preparing to set up this book myself I read several books on typographical rules and practices. Then I followed that practice which I thought would least intrude itself upon the attention of the usual reader, and at the same time would cost him the least money. When there were two ways, ap- parently equally good, I have used both ways — that giving variety which I trust will please the reader as much as it did me, and relief from remembering arbitrary rules, and a trial of different ways to see if some actual preference develops. §F. a. The reader may be interested in remarks on the form of this book and the reasons for printing it myself :- b. I finished what may perhaps be called the present version in the spring of 1919 (it has been twice rewritten since), and started to look for a publisher. I quickly found that publishers were, so far as I could tell, afraid to risk any- thing on their judgment of the soundness of the book. So I proceeded to get introductions by leading authorities in the three main sorts of knowledge to vouch for its soundness. c. While continuing trying publishers I tried a number of endowed institutions and similar organizations formed for the purpose of advancing knowledge in one way or another, to see if they would help get the book published. So far as I could judge from their evasive but usually verbally cordial letters, they believed the book couldn't be sound — not one would even look at a manuscript. There was one illuminat- ing exception. I began corresponding with R. S. Woodward, a scientist then president of the Carnegie Institution of Washington, in December, 1919, and continued until he ceased to be president over a year later. Woodward made a speech to the Congress of Arts and Sciences (convened at the St. Louis exposition in 1904 to try to unify knowledge — spending about $137,000 in the attempt), on the first page of which he said in effect that a book like this is practically impossible. He steadily, with a few exceptions in which he tried safely to dodge my introductions by men with reputa- tions of the highest, asserted in effect that he didn t believe I had a sound book; and steadily refused even to look at it. He repeatedly referred me to his remarks on writers of what he in effect claimed were similar books (in the Year Book, 1917, of his Institution, 21-7), which include these epithets:- cranks, quacks, aliens, charlatans, mountebanks, arrogance, audacity pushed to the extreme of mendacity [that's a nice phrase]. I began to think, after reading his letters, that if my book was sound it must have extraordinary value. But on second thought I decided that more likely Woodward was a little timid in the presence of an idea. d. I of course went over Woodward s head to the Trus- tees of his Institution twice. As soon as Merriam took on its presidency the first of this year, I renewed my request to him and he asked for a manuscript, and for months examined it and had some of his colleagues examine it. After I found I would have to wait for a decision I began to print the book myself (see next par.), and asked the Institution to buy 350 copies for distribution to the libraries on its free list. They are still deliberating on the matter. e. I tried 18 publishers, and they were afraid to take the commercial risk. It is a common practice for authors of books to take the money risk. So I finally had a reliable publisher give me bis lowest offer:- it was that I pay $10,000 for an edition of 2500 — $4 a copy, to sell for at least $6 and probably more (if I had printed 2500 I could have sold them for $1.50 — and more, still lower). I didn't have $10,000. So I tried to borrow it on substantially a mortgage on the book, from 25 successful business men, they to have the additional satisfaction of helping advance knowledge. About one quarter of them showed genuine interest; and I am pretty sure that two or three would have advanced the money if I had waited until the present low-speed panic (footnote 168h) is over. Those business men recognized at once that I was honest and probably right (index, Sizing up men"). But I decided that the book had waited long enough. f. I spent three days reading about a dozen books on printing — they were fascinatingly easy reading, — and then about four more reading catalogs and looking at printing sup- plies and talking to printers, and buying the cheapest second- hand plant (new type), and supplies for an edition of 1000. I have tried my hand a little at being a machinist, a plumb- er, and six or eight other trades, as I had to handle men in those — and at playing golf. And printing is the easiest — and to me more entertaining and gentler exercise than golf. (Of course, my effort was chiefly to print a passable book at the lowest cost; e. g., there are two or three pages printed poorly because I deliberately would not use time waiting for the humidity to drop and hadn't learned how to counteract it satisfactorily ; and there are too many typographical errors left in, due to not spending an extra hour on each page.) It took me a week to print the first page (p. l), although I had picked up a little printing as a boy; the second took three §Ff Preface UNIVERSE days. The last half of the book was printed about eight pages a week, and once nine. I could have gone faster if I had not taken plenty of time to revise the book — to think it over and rewrite as I set it up. That revision was the only real work, except I would occasionally use my head a little to overcome obstacles that printers assured me couldn t be overcome. Printing one's own book is the best method of revising it I have found ; it gives more time to think over each word, and a very gratifying and useful sense of respon- sibility — there being no assumed-omniscient editor to rely on. Anybody with sense enough to write a readable book can learn to do passable printing in » week (of course, printing, or any other trade, can be made a fine art, and a lifetime be profitably spent on it; see §166f). g. These are the costs per copy, estimated fairly close- ly :- Plant and supplies (net, after selling them at the price tentatively offered), 17 cents; paper, 28c; binding (by a commercial binder), 25c; ink, 1-jc; engravings for pictures (they are poor, I having made the mistake of getting them from a high-price firm), 5c; transportation, 2-g-c; selling ex- penses, insurance, etc. (circulars, postage, free copies for publicity purposes), 4c. That makes a total of 83c. Then my work costs:- author's royalty at 5 per cent, 10c; pub- lisher's profit, 7c; my labor, at $25 a week, $1.00 — making the total of what I get, $1.17, and the total cost of the book, $2.00. I have charged labor at about half present printer's pay. Judged by present prices of farm products, that is probably more than a printer is worth. But if a regu- lar publisher had printed the book I would have had to use fully half as much time on it [and five times as much nerve wear and tear] as I did to do the whole work: and by that criterion $25 a week is more than it sounds. And the plant net cost figures out as a depreciation of 70 per cent a year. A regular publisher of course would not have such an extreme depreciation; so he could afford modern machinery, which is supposed to be five or six times faster than the hand methods I had to use. My overhead" is itemized above, and con- tains every legitimate item except rent, heat, and light — which would have been less than 2c if I had included it. The supervision and thinking for the job is included in the dollar for labor; it was less than a millionth of the work of writing the book, so I am getting overpaid at that. Books of about the number of words of this nowadays retail around $10. h. As that $2 is the lowest legitimate price, I had to an- noy buyers by adding postage. Few know what zone post- age will amount to, and the buyer is frequently consciously irritated by any price which adds postage. But there is a difference of as much as 600 per cent in the zone postage for this book — which makes it scarcely fair to buyers to average it, as the difference amounts to 16§ per cent of the net cost. I doubt if there is in fact any such wide divergence as that 600 per cent in actual cost of postal transportation of small packages ; if not, then the present rate is unfair, as well as being a nuisance. i. I find that some readers want to buy their book at a book store. It costs me no more to sell a book to the reader direct than it does to a dealer, and I find it far more inter- esting and pleasant to deal direct. I first offered the book by subscription" at $2 and postage, in that conventional way announcing my intention not to sell at any less. If the reader prefers to buy at a book store, I am of course pleased to have him suited; but naturally he should pay the dealer something for his trouble. I am told that usually the dealer adds about 40 per cent of the cost of the book to him, as the price of his services. So as a mere empty form I have put the retail bookstore price at $3 : I have no legal control over the dealer's price. At that price the dealer will per- haps get about 40 per cent increase on the cost to him — and incidentally he will get nearly as much for selling the book as I do for labor in selling and making it. Perhaps his service is worth that to the buyer: the buyer can judge that better than I can. Of course, if the dealer were doing me any appreciable service in selling this book I would sell it to him lower than to others. But there are only 1000 copies, and I do not want them sold to people who have to be urged in any way to buy; and the slight publicity which dealers could give the book would probably be undesirable. And naturally, if the dealer thinks that what he does for the buyer is worth the price, he will be as anxious to tell him the cost as I am, and will be grateful to me for having largely done it for him. And of course, if any dealer really wants the buyer to get satisfactory value for his money, that dealer will be glad to have the buyer accept my price if more satis- factory. So if any dealer objects to anything in this arrange- ment he thereby demonstrates that he is a profiteer, selfishly trying to deceive and grab something for himself without giving equal value in return — and I am glad to have gained his ill will. I make these remarks because my stand in this matter has already been attacked — that giving direct evidence that they are needed. (For theory of middlemen, see§170o.) §G. a. It is the opinion of those who are probably the best judges that a book is an actual commercial success if it is intrinsically interesting and so is recommended by one person directly to another. I shall spend no money adver- tising this book, and make but a negligible effort to give it publicity. I think the book is a useful one and worth read- ing — rather more so than the ordinal book. If the reader concludes that it is worth reading, he would, if he is right, usually be useful to his friends by recommending it to them. And his doing so would be ample compensation to me; for if the book is useful, thus I shall in due time get paid for the several years I have spent on it (principles of payment are in §168). If I have an opportunity I shall inclose one or more circulars in the books I send out, for the convenience of those who may want to use them. b. I find by experience with various people that, because there are so many stand-patters who consider a sound book of this sort impossible, it takes unusual courage to recommend it publicly. So judged by that evidence the men who wrote the introductions have displayed that fundamentally essential trait in the degree that is leadership (§§170r, 167b). S. Klyce. Winchester, Massachusetts, September 17, 1921. UNIVERSE Introductory I §3b INTRODUCTORY REMARKS CHAPTER I. Summary qf contents and their character. §1. a. This book is a brief description, and rigorous proof of the truth of the description, of the universe and all that appertains to it, both "spiritual" and material." Hence, the book is religion, science, and philosophy. If those three names of the main branches" of knowledge are taken in their customary senses, I am unable to determine which name properly designates any given portion of the book. The three are actually unified. b. But although all three branches of knowledge are thus included, one general method is rigidly and without excep- tion adhered to :- all statements and conclusions are based on experiment, so that the reader may also verify them by his own experiments or experience. When such a method is used, the product nowadays is usually called science; but in that case religion" and philosophy" become identical synonyms of science." Personally, I have no preference in that matter of names ; simply for convenience the three terms are hereafter used as applying respectively to the three possible and conventional ways qf expressing the same thing (§39). c. Although everything is to be experimentally verifi- able, the description is not therefore materialistic." In all conventional fundamental senses this book is far more definitely idealistic than are (say) the doctrines of Plato or Berkeley or any orthodox theologian. The leading scientists of the present day, such as Richards, Jordan, Chamberlin, Patten, Hale, reach conclusions the opposite of materialistic, as we shall see (IX, X). It is at the same time quite true that some of the men who claim to be scientists have been materialistic, and have damaged the prestige of science with intelligent people. Later we shall see explicitly how such men as Ostwald, Claiisius, and other Germans have been materialistic, and hence wrong (see especially §147). d. But the argument of this book, although idealistic in the popular sense (§49, etc.), is not sentimental; it hasmore than the conventional mathematical rigor. For conventional mathematics are defective (§44), and the argument is given with the rigor of a properly corrected mathematics. §2. a. We may first view the book as a whole by not- ing how it compares with conventional science." The brief statement of such a viewing is that we shall find present science to be quite correct essentially, except that it is in- complete — as is of course acknowledged by most scientists. So it is completed, in a qualitative sense. In many cases we shall find that science reaches what are customarily termed religious conclusions. As strict science those conclusions are wrong in the sense that they are mislabeled and misapplied. Thus, the so-called law of conservation of energy is quite true ; but it is religion, and not science. Or, to give a more directly concrete example :- Newton's law of gravity is cor- rect as pure religion ; but it is wrong, both in principle and qualitatively, when applied to any two ('scientific') bodies such as the earth and the sun (§§74, 73d, 83f). b. But that statement of the scientific aspect of the book is perhaps too broad to be comprehended at this point. So we may take a more concrete view of science, and note just how it is proposed to complete science. c. Careful mensuration is considered to be the proper basis of present science. Kelvin declares that "nearly all the grandest discoveries" of a legitimate, valid science have been "the rewards of accurate measurement and patient, long-continued labor in the minute sifting of numerical re- sults." I substantially quote this paragraph from Richards (Faraday lecture, 1911; ' Science," N. S., 878). d. The last paragraph asserts in effect that experiment or experience is the correct method of getting science, and then states the best method of experiment:- careful obser- vation or measuring. ' ' (Later I prove that the assertion is true; see especially §§38-9 ; also 36-7, 57, 59, 60, 150.) But the use of that method by no means exhausts what sci- ence must do, and actually does do :- it is obvious that what- ever is obtained by those experiments must be expressed, stated, communicated, classified — and is, before it is even known as science. e. So we investigate the expression — the consistent ex- pression, or classification — of experiments, basing that inves- tigation itself and consequent conclusions upon experiments or concrete evidence. (it is a circular^ process.) That investigation permits us to complete science. We promptly find that the fairly well informed average man is already in possession of enough experimental" data to complete sci- ence, as soon as we derive a consciously definite and con- sciously consistent method of expression. Hence, it follows that the reader needs no wide acquaintance with scientific" or technical" details in order to judge the general truth of this book. However, some scientific detail is included for the use of those who need it, and to show the general reader the further implications of his present knowledge. f. We shall find that there is a mere verbal trick which enables us to complete and unify all knowledge; to solve, verifiably and self-evidently, all qualitative problems — all problems of why, how, what, or all principles. We shall find that we already constantly use that verbal trick, but merely have not definitely noticed it — that it is an absurdly simple trick, the use of which is ordinarily named commonsense" (§49l). The application of that easy trick to the thousands of details of daily life sometimes requires the consideration of such a number of things that it is difficult to remember them all, and we say that such application is complex. That is the only actual difficulty we have in understanding" anything. A child can understand" the argument" or reasoning" of this book. I have tried it on children of six and they did. The reader already knows the argument (§49q). g. Now, Kelvin himself elsewhere clearly implied that the expression of science is defective. We have him com- plaining :- Quaternions came from Hamilton after his really good work was done; and although beautifully ingenious, have been an unmixed evil to those who have touched them in any way, including Clerk Maxwell" ("Life of Lord Kel- vin," 1138; quoted from Shaw, "Philosophy of Mathemat- ics," 98). Maxwell used quaternions to express the theory of electricity that is still substantially used. So it is clear that there is more to science than measurement. §3. a. The last section implies that mathematics is the means of expression used by orthodox science. So we may view our book from a mathematical aspect. b. We noticed Kelvin objecting to a certain sort of mathematics that is explicitly used in a large part of science. Somewhat contradicting Kelvin, it would be easy to quote a number of scientific writers who substantially hold that those without a knowledge of the so-called higher mathematics can not understand many things that are true about the universe. We shall see that those writers are wrong. §3c I Introductory c. The fact is that mathematics is simply an abbreviated method of expression — a formal shorthand language (§30). It is based on precisely the same method or trick that ordi- nary speech uses (§30). Orthodox mathematics itself contains a fundamental inconsistency or self-contradiction mathematicians themselves admit that ii UNIVERSE al- The does. Russell it may be re- ("Encr. Brit.," xvii,88l) shows it and says „ - -,, s) moved in a certain way; but Shaw ( Phil, of Math / substantially disagrees that ^-f^^nfmathematicians, Poincare, one of the most renowned of recent m ^ ^ ^ ^ as despairing of mathematicians' ever "^^ x that is clear that mathematical «J^^^™»* P J th« orthodox mathematics serves to contuse ^ ^ ^^ 'begins ; h, we have with it the table (an, ^ He rest of the u .■■••) Jetde^sSdts not see all that for himself as yet; it is something that requires * large amount of evidence, and that is given only gradually as we proceed. But what is espec- ially called to the reader's attention at this point is that there is really — in the ultimate — no sort of relationship but that of identity. And here is a formal statement of the truth of that point, simply as definite truisms :- Very obviously, if two relationships are named, the two can not be connected by a relationship word, for there is no relationship (or mutual action) between relationships. A relationship of a relation- ship is nonsense: e. g. , what is the brotherhood of mother- hood? 2811 Relationship, by all our implicit definitions above, is an indirect assertion of continuity ; and if something is continuous or the One, it obviously, as a truism, can not be more One or less One. And that is exactly identical to say- ing that all relationship is identical ultimately, and hence is an assertion of identity. As we proceed, frequently I shall point out more and more clearly and in detail, that there is but one relationship — that of identitj\ i. So, to summarize, there are One words, and Many ^The reader is usually puzzled by such a question, and by this whole subject of relationship, because he has been trained into the habit of being puzzled. All his life he has heard various species of intellectual grafters using relationships trickily to befuddle him (us- ually the grafters have long ago befuddled themselves, so that they are probably no longer conscious of being such intellectual exploit- ers). Many of us have given up in despair and let the befuddlement proceed, so that it is difficult now to come out of it. The fact is, as we shall see under religious psychology (§§153f, 162, 166), the ob- servation of a universal relationship is a profound emotional exper- ience. If the reader really grasps 'God is love,' or 'The Many is continuous,' or any other of thousands of general statements, he is much moved. All relationships are really identical and finally uni- versal. Consequently, when some conscious or unconscious deceiver wants to move the reader profoundly he begins to fire relationships at him— abstract words, "high-sounding" words, "rhetoric," "ora- tory'' which has little more sense than 'the brotherhood of mother- hood when coolly examined. Perhaps the most exaggerated form of that intellectual trickery is what in the present day is known as futurist literature and imagism, although the same sort of exaggera- InTr^ ! T^. iS P erennial - If *be reader of that if soft and flabby minded he >s much moved; if he has a normally sound mind, but has not studied out the way such chicanery with wordst accomplished, such forms more or less irritate him; ff he knlws the tack .t amuses him-and also pains him that some'people thTld try normally tough mindeTpeopWm 3^ • ^ But aU ° f ™ edly against a too-obv' n K^J^ ? 80008 ^ stru ^« ^ritat- thus to destroy their own and their neighbors' minds normally tough minded people still half-cons edly against a too-obvious befudrllpmont „* with relationships. Cole^l "f Z™ by SUch fraud up the subject of relationships eTpS^vT * here u W to take phasis on relationship, the Ir^a ea^er teX to " "^ST ^ " ternary befuddled haze, and -'-- '- - ■ '" S ° mto th towards me. also to feel irritated and e cus- resentful t_t .i ~ -~-^ uiuaicu ai bunco man's J^Z^^S^^*^** '■«"■— it; and we shortly shall hLfe old ^Z^slll^ T^T t ° W ° A Many words formally cO»' p worn- w ords in turn contra- tradict One words, /ut relation^ ^ ^ & diet Many words, and ^^ cUssica , logic link ), out a relationship wori « Therefore, ob- identity with tn ^ ^ lof , ica \ contradiction is in- and hence viously, the formal o^ ■ ^^^ But there „, ln SoVshiP words, a second-and hitherto not very explic- itly mentioned— formal or verbal contradiction which elimi- nates all real contradiction. j. Before proceeding to take up with regard to sen- tences that same formal cancellation of verbal contradiction (beginning in §3l), we shall notice that precisely the same thing is evident in theology (§29), and in mathematics (§30). We may here observe, as another form of summary of this section, that One words, especially standard Ones, are merely what science calls classes, and attempts continually in a con- scious way to make. In this book we shall see in detail just what classification is : existent texts a-re vague on that sub- ject (for implicit authoritative agreement with that assertion, see "Ency. Brit.," xvi, 900-l). §29. a. The race for many centuries has tacitly recog- nized the facts stated in the last section, in the guise of the theological Trinity. Because religion is the most important aspect of life (XVIII), men naturally gave those facts a theo- logical name. In my opinion the men who invented the Trinity — it is a verbal form, or invention," as we shall see — substantially solved all knowledge, and got the same solution as this book. And as that was done centuries ago (nobody knows just when), the reader will probably agree that there is essentially nothing novel here. The chief dif- ficulty connected with the Trinity seems to have been that the priestly intellectual aristocrats promptly started confus- ing it with various historical happenings affecting their spec- ial privileges or graft, and the rest of the people stupidly and weakly submitted. b. At this point I merely mention the outline of the Trinity:- (l) God the Father corresponds to the One. He was consistently the summation of all things (apart from the priestly exploiting, of course). (2) God the Son was a sort of emphatic symbol for Many words. As a truism, there could be no absolutely unique God the Son ; there were God the Son*. But we have already noticed briefly the similar difficulty that arises from standard universes (§28bc). His- torically it seems that Christ was first made by people rather definitely simply into a standard One — and when that fact was then afterwards overlooked, the Trinity obviously be- came nonsensical. Christ himself seems to have intelligibly and intelligently held that he was one son of God the Son* — a unit of the Many (§§160-2). (s) And then, to unify the God the Sons into or as God the Father, there was the named universal relationship, God the Holy Ghost. c. We shall take up those Trinity names for the One and Many form or language device as we nee^ them. If any reader thinks that these merely formal aspects of our way of talking can be eliminated, he will find an easily read attempt to do it in Wells's "God the Invisible King." Wells there tried to "abolish" the Trinity as being merely a theological and useless term or name. And the observant reader can readily note Wells's own reconstruction of another formal Trinity, even while he was throwing away the con- ventional names. The orthodox theological Trinity, in which Christ is a sole, or unique God the Son, is of course self- contradictory autocracy, as is already broadly apparent a »A as we shall further see (§§49, i 6 0-8, etc.); is precise]'/ posed to what Christ probably taught; and is the hJ T the aristocratic exploitation which the priests have n JT ° f practiced 17 UNIVERSE One IV §30f for centuries (the same dualistic game under names other than Christ s was worked by priests and kings long before Christ was born). §80. a. It has been asserted (§28bgh) that the chief puzzles men have had in the use of language were due to a failure to notice definitely the various kinds of words — espec- ially to a failure to observe the character of a standard One, and the character of a certain sort of relationship words (ab- stract nouns). b. Mathematics is an abbreviated language in which markedly different symbols are {usually) used for those three different sorts of words. Consequently, because all that is needed for consistency in using valid logic is (as we shall see more definitely, §§43-5, 58) the proper recognition, or con- sciousness, of the different sorts of words, it follows that mathematics is an easy, useful, safety-first language because that recognition in it is automatically provided for (usually). In short, mathematics is simply a language that is much easier to use consistently than ordinary words, because in using mathematics it is far less necessary to keep our wits about us. Orthodox mathematics has some defects which make it very puzzling. In fact, it is impossible to understand much of it (the calculus, e. g.)as it is orthodoxly explicitly written : I have cited Poincare twice as asserting something which means that (index, "Poincare," "Calcu- lus"). So there is full justification for the customary horror of mathematics. I had it myself so strongly that I investi- gated them 30b to see why I had it. c. Mathematics was probably consciously first a science of number. I. e., all Many words were, in mathematics, represented simply by numbers : instead of saying two boys mathematics wrote 2. Afterwards, those formal sym- bols were increased by writing various other brief symbols, usually letters, such as x, y, a, b, 6, etc. Obviously, it is easy just to glance at mathematical language and pick out such Many words. d. But orthodox mathematics may be said to be form- ally defective in that it has devised no symbols for One words that are readily and positively distinguishable from the Many variety of symbol. As we go along we shall see that the symbors for zero and infinity (o and °°) are always symbols for the One — although orthodox mathematics does not definitely recognize that fact (§§43-4, 55-6). But there are no other symbols in mathematics which are definitely distinguishable as being One words (unless various forms of integration signs be taken as indirect One words). Usually mathematical One words are standard universes, as the *5' in 2+3= : 5. A device is usually unconsciously or intuitively employed by conventional mathematicians to distinguish such One symbols :- putting the symbol all alone as one member 30b I apologize to the grammatical purists for my inability to con- sider such words as mathematics, ethics, as being always singular. Sometimes in my view I take them as being made up of various doc- trines or branches, and hence grammatically plural. In principle, people with minds untrained in some appreciable degree need rather elaborate verbal inflections — glaringly definite grammat- ical signs of just where and how words fit in a sentence, — as a means (1) of forcing themselves to think definitely, and (2) of definitely guiding the similarly untrained hearer's otherwise unreliable com- prehension. In so far as we are mentally keen we may drop such slavish formalities of inflection, and thereby gain fullness of thought coupled with economy in words (the characteristic of the largely uninflected English language which probably helps its continual spread). There must be a balance or compromise between no inflec- tion and fulsome, barbaric inflection. Without further remarks on the subject I shall take it that the reader of this book js mentally not barbaric and hence likes to tolerate an occasional disregard of inflectional agreements which might be unpleasant to the more plod- ding purist who in effect considers it unsafe to give up a single in- flectional crutch. of the equation — as that '5.' We shall consciously employ that device in this book, in the few algebraic equations we need for brevity. But it is obvious that it would be a considerable advance in mathematics if mathematical books would, in some practically effective manner, positively dis- tinguish One words. It would be an advance perhaps as useful as any since the invention of the calculus. We are going to see that our recognition of the fact that and <*> are not "numbers" or Many words is the practical rule or formal guidance we need in using valid logic (§43, etc.). That last sentence states the exceedingly easy and simple fact which all this detailed talk about words reduces to. The details are all so obvious that we know them without being clearly conscious of it, and I have to write at some length to make them conscious. e. But there is in mathematics a definite sort of symbol for relationship words:- X, +, — , -=-, =, V , J , etc. (An integration sign — that long *, meaning summation — is a relationship noun.) Obviously, those symbols are so dis- tinctive that they are ordinarily practically automatically recognized, and hence are not — without almost an effort — confused with Many words or with One words. If a mighty orator with no real thoughts worth mentioning, or if some similar intellectual bunco man, goes into a rhapsody over truth, and dresses it up in shining armor, etc., soft-minded people fancy he is saying something, and are impressed. But if a mathematician were to do identically the same thing, and go into a rhapsody over his X's, and -=-'s, and + s, and dress them up in shining armor, he would be ridiculous even to the soft minded. ■ The mathematician has not been wholly guiltless in the past of getting relationships confused with Many or with One words : those who take a space of anything but three dimensions very seriously are like that orator (§§59-62) — and the relativitists, unless they are defi- nite about the form of logic they are using, are practically like that orator (§66). But obviously, mathematics has a tremendous advantage over ordinary verbal language in that it is not easy to confuse relationship words with other sorts, usually. And there is another automatic advantage of nearly equal importance :- All relationships, as we saw in §28h, are-is ultimately and definitely a relationship of identity; and in mathematics that relationship is the equali- ty sign = (or some logical or formal equivalent of it— often in practice given in a negative form, such as >, =Meaning. j. Also, we truistically conclude — as another aspect of the arbitrariness and unreality of space and time, — from our way of naming L and T, that whatever they are, or however we name them, they vary directly proportionally : in fact, that is what I said when they were explicitly introduced into the equation (4th sentence, par. d), and the statement was made to agree with obvious facts which we can verify at any time by watching a baby count (for explicit statement of it from the point of view of T, see §§150-l). Hence, L and T, so far as either the meaning of our Many expression, or of Meaning, is concerned, actually cancel each other. I. e., space and time, so far as this language we are constructing is concerned, is-are absolutely arbitrary. They are mere ver- bal counters. We saw directly in par. e that space was un- real and simply a verbal form. Obviously, in precisely the same way as there used for space, we can see that time is unreal — it is implicitly done in §150. And in this paragraph we see further, and as a formally separate observation, that when we consider time and space together, they themselves formally cancel or contradict the reality of each other. In short, our language machine is a very close-knit affair. In whatever way we regard it, we may see at once that there is always the formal contradiction (here we observe it be- tween L and T), but that always the very description of the language structure truistically declares the contradiction to be unreal because it at once cancels. These somewhat mi- nute examinations of the language machine — e. g. , the one in this paragraph — need not be remembered. They are ex- ceedingly tiresome if you try to remember them; I never remember them, but work them out by direct observation when I need them. But if there is any point of the exten- sive, important conclusions we are shortly to reach which you wish to see for yourself in ultimate detail, then these minute details are here to refer to. k. Perhaps some readers have formerly been puzzled by the idea that time and space are 'real" in the sense of con- crete or objective (although leading scientists objected to the idea on the ground that L and T could not be manipu- lated in a test tube as could H 2 0) ; or by the dualists' messes of time and space, and by views as to transcending" them, apparently in our Many personality; or by the mathe- maticians' ra-fold space which they themselves blandly admit is sensibly inconceivable (§62). For those readers, as a general means of clearing up those puzzles, I add this para- graph of direct observations as to the nature of space and time. (From time to time additional concrete details, more easily seen than this paragraph, are added.) It is clear that we have above used space and time, or L and T, simply as verbal copulas. They are a paired name (i. e., LJT) for God the Holy Ghost, which we implicitly intro- duce when we first consider This and That as separate (intro- ducing it in order to make them separate), and then have to put in a second time (cancelling the original contradiction) in order to get This and That back together again into the One. Hence, L/ T is simply tautological with the X. Therefore, in the expression {TkatY..This)LJT, the contra- dictions X'and LjT' mutually cancel — which is another way of showing how close-knit is our language machine. Perhaps the simplest way of seeing the nature of time and space is to try for yourself to see which of the three kinds of words (as in the Trinity) they correspond with when used in the senses above. Of course, space is sometimes used as meaning that which is a part of the universe and UNIVERSE 24 really meaning the matter that fills it, as a cubic foot — which insofar as it is a Many term obviously indicates the human foot. And sometimes it is used to mean the total universe, as all space; then it is obviously a One word. And time m&y similarly be used as each of the three sorts of words ; but it is not so usual for time to be anything but a relationship word. 1. If we had actually done all that traveling which was or is necessary in order to get the absolutely accurate (al- though not yet fully explicit) statement, (ThatX. This)MU'lT'"=Meaning, we obviously would have traveled, naming or counting, all over the universe. And obviously, the That and This would then have finally coincided as being absolutely identical with the universe, or as forming the universe (see last sentence, par. h). Hence we can drop the verbal counters This and That if we like (as they have merged into identity ; also because it is often customary in everyday language to do so ; and also because we shall still have in the Man explicit name for concrete things), and we have left the MU'JT", which is still the universe, or a One or meaning. Or, we have M [meaning the whole universe] =Meaning^=Universe , — which is obviously the truisrn The One— The One. And we have noted or observed only one fact in the whole process of writing an explicit and accurate sentence or equation — the other observations were merely of word forms or agreements : were arbitrary inventions. That fact is that the This (which merged with the That and hence implied it: and also implied the M and is the M if we drop explicit mention of This), varied in some way while we were engaged in traveling over L in T. (The concrete fact was that the egg hatched, or at least changed in some way. The object of cold storage is to prevent as much as possible eggs' changing — and it is well known that even there they still do change. Part Two shows in detail that all things always are changing.) Also, the fact that there was change is truistically expressed by the verbal logic or form:- that the That and This changed so as absolutely to merge into each other and hence become identical with the universe (mutu- ally inclusive). But that truism has not been fully verbally expressed in our equation — especially it has not been defin- itely asserted that M, which explicitly names This, does thus vary. Therefore, we will explicitly say what we observed, thus:- M{varying ■with)!?' IT™ —Meaning, or Universe. That equation is then simply our truism, The One=The One. But the truism, in that explicit M form, asserts that the parts of the universe move or change in some way. And that motion or change is nothing more than a verbal or formal agreement (so far as expression is concerned) with our formal assumption that we 'go' from This to That (or, finally, so far as expres- sion is concerned, motion or "energy" or "life" is nothing more than that the universe is formally divided — 'changed' into parts, or into This and That; cf. §§50, 97). — Therefore, in expression, we have simply a more explicit tru- ism. And if we take it as an observable or existing fact that the parts change, then we accept motion as a fact, as change is motion. But, as we shall see (especially in §97), we do not need to assert that "motion" is a fact, or 'exists.'' We can assert "absolute rest" or "eternally static" (some peo- ple do do so); So it is Motion ; and we would finally get the same meaning immaterial whether we say 'rest' or 'motion.' is more conventional, so I take that word We now have an expression, {ThatXT h is)M{varying jl —Meaning, which is completely explicit and ac- -logically or verbally. (We as finite individuals can not of course practically use any such expression ; we come to that point in §38.) When we say 'John is a boy,' we imply that complete equation. And we have noted possible variations in the method of writing the first member of that m. ■with)L curate- 25 UNIVERSE One IV §37e equation, depending on the degree of explicitness we wish to achieve, as follows:- That X This; {ThntXThis)LJT; (TkatXThis)L co lT co ; (That X This) ML JT" ; M(varying ■with)L lT x ; and M [meaning a whole One]. In the next section we begin to note important conclusions and applica- tions. Here, we shall obtain one more variation in the method of writing it that is of considerable use. n. We have seen that in order to write That and This accurately, we are forced into an infinite regress of compar- ing them more and more carefully, because they change. The changing was a mere truism of introducing space and time at the beginning as a means of getting This and That. Above, I have explicitly expressed that regress by L x lT°°. There is another more conventional way of expressing it which we shall find more useful:- We may write it That... XThis... ; or, we may express the same thing with a single word or symbol, as That..., or M. .., or This... . The dots . . . are the usual typographical sign indicating a continuing series, or regress, or verbal step-by-step process, when ex- plicit naming of all the members of the series is not gone through with. Or, the dots ... mean simply "etc.," or mean that the completion of our ad infinitum process is omitted. (in English the dots typographically spread out, thus :- . . . ; but for obvious reasons it is preferable to use the compact French fashion in this book.) We may conceive the meaning of the dots in a much simpler (i. e., more familiar) way than to consider that they replace the M IT :- When we say This we imply that there are other Tkis's and That's. Hence, we may say that the dots ... mean that in order to state This completely or accurately we have to go on and name an infinit)' of This's in comparison. Therefore, explicit typographical expression of any This — of any part of the universe, or of any unit of the Many — is This... . §87. a. By explicitly formally expressing any statement, using general words or symbols to do it, we have derived an equation or sentence which we can put into various forms, depending on how explicit we wish to be. And we have seen that each form reduces to an explicit truism. Thus, the general explicit form was M.(imrying with)L / T =Mean- ing, or Universe: we may write that, M... = Universe, and obviously (as a truism of our agreement as to what symbols mean) M. .. is the universe, and we have Universe^ Universe. b. But clearly such explicit truisms are not useful in ordinary speech. Also, in ordinary language we can not actually express that infinite regress which is implied when- ever we use a Many word. Therefore, we need (l) to get those various forms into directly useful shape, and (2) then to note, and express very carefully in conventional terms, just what our practical typical equations or sentences mean. Actually, we are going to see that all the general laws of science, philosophy, and religion are definitely implied — even expressed — in those type sentences. It will take the whole book to show that. But it is obvious that if truth is consistent or unified, then it is a truism that all of it may be reduced to explicit expression by one typical sentence. c. The form which is usually implicitly used in every- day speech is That. . . X This. . . =Meaning. That equation simply explicitly asserts a comparison of things — a verifica- tion. And it is obvious that when we talk we compare things — describe the less well known in terms of mutually familiar things. Or, all language is metaphor or simile. It is better to know explicitly that trick of talking. Then we are less liable to depart from it, and try to talk of things as being absolutely separate (which of course implies that they are absolutely without comparison) ; such talk is nonsensical. d. As immediate rough evidence of the fact that that everyday equation "explains" things, or solves" problems, or gives intelligible talk, we may in the remainder of this section observe some examples of its use. (These samples are here quite roughly stated : the more definite statements — which would not be very intelligible at this point — are in the last chapters.) Our Constitution makes a broad comparison of (]) That and (2) This by the method or terms of comparing or joining (l) the various state governments and (2) the federal government. The (l) state governments may run into as many explicit dots (State Governments. . . ) as we can write, by naming governors, legislators, etc., on to the individual citizens — and on to the parts of their component atoms. And (2) Federal Government... may have as many dots as we care to name, such as president, congressmen, messenger boys, on to the details federal citizens, and on to pins owned by them, etc. The Constitution broadly makes the Federal Government. . . react as a verbal Many, or as a part of a machine, with State Governments..., thus:- State Governments... X Federal Government... =Country, or Na- tion. That is a standard universe (unless we consider it in the light of §47, which we need not, here). But we can divide our Nation into reacting pairs in an indefinite num- ber of ways by making a division in those infinite details or dots from other points of view. Thus, we have People... X Officials. . . (a form of equation which is recognized or indicated by the first ten amendments to the Constitution — the so- called bill of rights). Or, we may have Congress... XPresi- dent... . In that pair, the dots in President... obviously will finally include the people who elect a particular man as presi- dent (which means, for one thing, in ordinary language, that the people are perceptibly a part of the president as such, in that they can have him impeached, etc.). But Congress... also includes with more or less definiteness the same people. So there is an obvious example of That. . . and This. . . becom- ing identical when carried out a little in detail. The Constitution explicitly asserts a democracy — a reacting, or interacting, or formally and explicitly (as well as actually) related That... XThis..., or machine. And the Constitution in effect states that regardless of how the standard One or Country be considered as thus arbitrarily or logically' divided into parts, they are compared, or balanced, or are of equal logical or formal importance, but explicitly are not of equal quantitative importance or value. e. But in an attempted aristocracy or autocracy (there can not possibly be a real or actual one ; § 1 74) an attempt is made to depart from the valid equation That. . . X This. . . =Meaning. The people in an aristocracy are mostly called subjects or vassals, meaning that they are expected to be essentially or in principle subordinate, and not a complementary or re- acting part of the whole. In short, with respect to the gov- ernment (to the autocratic officials) the people are said to be officially or logically nothing or zero, so that we have the attempted equation Officials= Nation, or One. 1. e., it is in verbal effect denied that there is any reacting part, or other unit of the Many such as That... ; and it is also denied that there can be any dots, which can, by a division from » dif- ferent point of view, give reacting or comparable parts. Obviously that aristocratic or dualistic point of view is arrant nonsense. As soon as we see how we must talk about the Many if we are to talk at all in positive or concrete terms, we see that there must be reacting parts, or a machine. When the autocrat says that he is the state, he asserts:- An individual of the Many— The One — which is obviously equiva- lent to the claim of divine right, or ex officio infallibility, because in conventional terms the One is God. Such logical absurdity is admired and praised by some ; by others it is variously named autocracy, aristocracy, egotism, paranoia, megalomania, hysteria, or excessive selfishness. All §37e IV One UNIVERSE •iii of that states a logical or qualitative proposition. I have made no assertion or implication that one part of the essen- tial machine is quantitatively equal to another part. As a fact, no two parts can ever be quantitatively equal during a finite time (§§162i, 164, 167-8). The quantitative sizes of That and This become a matter for measurement, by means of L and T, and we are to investigate that matter ; but clearly, that difference in size does not affect the principle that there must explicitly be at least two reacting parts. f. Thus we see that essentially there are no superiors or inferiors" among the parts of the One. On the other hand, quantitatively, or from the arbitrary L and T point of view, the parts of the One are always of different sizes. That double aspect of the application of our equation — (l) the essentia] or qualitative aspect is the One; (2) the quantitative aspect is the Many — runs through every act of our lives. Thus:- no line" organization can, as such, pos- sibly work, as it is self-contradictory nonsense (§§ 174c, 175, 167). Aline organization is the so-called military one, wherein there are asserted to be essential superiors and in- feriors (so that by virtue of rank an order is correct, etc. — just as the pope, in the Catholic line organization or ecclesi- astic hierarchy, is nonsensically held officially infallible). g. Those conclusions are anticipated here to show that what superficially seems to be a rather trivial investigation of words clears up everyday matters that confuse and puzzle many. Continually we are going to be using that form That. . . X This. . . =Meaning. And usually we find that merely to express a point of view in that form throws such an illuminating light that further explanation is rather need- less. Also, as we all must be able to estimate the different quantitative sizes of men (XVIII, XIX), we further need to know about the measuring form of that equation — we need to know very definitely about L and T, and see how those apparently abstract" relationships are applied to simple material" parts of the universe — as a means of learning to apply that form to the complicated parts named men. CHAPTER V. General statement and proof of how to apply language. §38. a. We may write our explicit statement thus:- That...XThis... = {ThatXThis)ML x lT" = M(varying wilk)L I 'T K = Universe, or Energy. In practice, an infinite regress or the L^JT" is not positively stateable. Conse- quently, in order to get rid of it explicity, we assume (this is an actual assumption, in that it is not an exact fact, and will always in practice make our equation inaccurate quantitatively; but in §42d we get rid of the assumption formally or logic- ally or qualitatively by cancelling it out — doing that by the simple method of asserting the real truth :- that the equa- tion is inexact) \vc assume that This does not change enough to make any particular or important inaccuracy in the truth of what we say, during the time we go to That, if we do not return and re-view and re-state This. Or, we assume that we can guess at what change there will be in This, and hence state what the parts This and That are simultaneously, without going back to This to see that change — and thereby losing the exact change in That, and having to return, and so on ad infinitum. We therefore, (l) drop explicit stating of the dots before they become absolutely infinity (we as fin- ite individuals have to discontinue naming them at some time) ; and (2) we also drop the infinite L's and T's that symbolically gave the impractical positive naming, and have :- That... X This... = (ThatXThis)ML 3 lT a = Unvarying with)L 3 \T 3 =Energy. The dots ... of That..., etc., now mean in practice that we can not positively go on and name each one to infinity. They also, in practice, explicitly mean that they replace the ML 3 JT 3 in the more explicit form, ( That X This)ML 3 IT 3 ; i.e., That. . . X This. . . is really an abbreviation which implies always that a definite measure- ment by L 3 JT 3 must be made jfwe are quite practically ex- plicit. Usually in this book I do not print that full form {ThatXTkis)ML 3 JT 3 . Hence, always hereafter, unless definitely stated or indicated otherwise (e. g. , as in the cases where I am showing what pluralism or the classic logic verb- ally asserts), That and This, or any of the numerous analo- gous symbols or synonyms into which they are translated, are to be understood as having dots; i. e., logically every Many term implies the infinite regress (the classic logic verb- ally tries to deny that regress). For various reasons, on a few occasions I omit printing the dots. b. And conventional science, for reasons of convenience (§§68d, 72-3), changes the L 3 /T 3 into L 2 /T 2 . We may therefore drop out an LjT in the second member, remem- bering that it is implied (see §72), and we have what I shall call our general equation, or general sentence or statement :- That. . . X This. . . =M(varying with)L 2 T' 2 =Energy. c. That equation expresses, formally and in a fairly conventional scientific way, all knowledge. It is as conven- tional in form as it is validly possible to make it. Orthodox science usually (in the older textbooks) asserts the equation ML" T~"= := Energy ,®* — making totally illogical and somewhat inaccurate assumptions (§72, etc.). Our general equation closely resembles that orthodox one in form; and the fact is that our {varying with)' is a number or "coefficient" that in ordinary circumstances quantitatively is equal to approxi- mately 1 (§§72-3, etc.). But in principle, the orthodox equa- tion asserts that the part M is isolated (has no dots) ; that there is no other body with which that explicitly named M reacts, but that it just has energy of itself, whatever that mystic statement may mean (of course, all commonsense people, and Newton's first law in effect, hold that there is energy displayed only when that named M reacts with some other body or M; I am merely showing what the orthodox equation really asserts, and how it is interpreted). In short, the orthodox equation asserts that M=The One — which we saw in §37ef is nonsense. Our '(varying with)' is ultimately merely an explicit assertion that there are dots — that the part is really M. . . , implying an indefinite regress of other M's with which it reacts or really ultimately joins. §39. a. We begin now to note the rather numerous 38a As we shall see, the above practical use of L 3 /I^ for L^/T 00 is merely arbitrary, and not essential. When we make that practical assumption, besides (A) making the statement or equation inaccu- rate, we a)so (R) have selected our ordinary everyday language as the language we shall speak. We did not have to select that par- ticlar language. We couid (1) have selected i n /7'", and thus obv- iously got any one of the indefinite number of arbitrary languages of a "space" of other than 3 dimensions. Also, we could (2) have taken it that L was not Euclidian or "flat" space, and got any one of an indefinite number of languages — which one we got depending on the quantitative degree of "curvature" of the space which we ar- bitrarily selected. Or, we could (3) have assumed that L and T did not vary proportionally— were not mutually steady— and got anyone of an indefinite number of languages known collectively as the "rela- tivity theory"— which one, depending on the particular quantitative degree of disproportionate variation (of "jelly-fish" shaking of space described in §66) we selected for any given case or statement. We consider those different sorts of languages in VIII. ^Usually science writes that equation 'Amv 2 = Energy, where m is our M; and v is velocity, or L/T, so that «*=£2T-2; and' H is the numerical result of differentiating or averaging the change of velocity (on the erroneous assumption that there is not our 'varying with' as we shall see). Ml? T- 2 is the so-called dimensional form of K»ti> 2 which drops such "abstract" numbers (§68). 27 UNIVERSE One V §39h conclusions that are directly observable in that general form of a complete sentence. It may first be observed that the reason for using the "mathematical" form is that we have noticed such a considerable number of implications contained in language that we see we need the formality of mathemat- ics to make them explicit in a statement brief enough to be easily remembered — one that is an aid to memory rather than a burden. If we like, we can put that form which we mostly use into ' words" :- ' That and this is something . ' But even compared with that form, the "mathematical" way, That, . . X This. . . =Meaning, seems to be terser, and more illuminating to the eye. The equation is merely a mne- monic device — all equations are, and in a sense language is. b. I may repeat somewhat, in summary :- The three members of the general equation are three different forms in which identically the same thing is asserted; i. e., the three are the truism A=A=A. The first member, That...X This..., expresses the Many in everyday terms, asserting that the Many is really the One. The second member, M(varying with)L 2 T~ 2 , expresses the Many explicitly in measuring or quantitative terms (explicitly in terms of time and space)- — again asserting that the Many is really con- nected continuously into the One. The third member, Energy (or The One, or Universe, or Meaning), expresses the One as a tautological echo, without being itself positive language. e. We may now see that in so far as it is consistently possible to distinguish apart philosophy, science, and relig- ion, the three members of the equation respectively do it. The meaning or content of philosophy, science, and religion is obviously identical (assuming that each has a valid mean- ing, as is the case if the names are honestly applied or if we stick to A=A, and if this book proves that knowledge is unified). Hence (unless the book fails to unify knowledge — to show that The Many=The One), no valid essential differ- ence can exist between religion, science, and philosophy ; they are an inseparable unit, mutually including each other, just as That... ultimately merges identically into This.... Hence, the difference in form (an arbitrary, L and T, or quantitative difference) implied by the general equation is the only valid distinction between the three. d. The That... X This... member is substantially the form in which knowledge or experience has been discussed by philosophy for centuries. And the same form, which speaks of observations in customary terms such as this" and "that," and compares such Many terms with each other, is obviously the form used by the average man, in which to express everyday matters. Practically all of hu- manics is expressed in that form : it is used throughout Part Three. Theoretically or technically, it is philosophy"; practically, it is the brief commonsense way of expressing what we ordinarily see or think of. Essentially, the foregoing discussion of language (which some critics would nearly surely condemn by their curse-word philosophy" if they are not hereby discouraged) is obviously equally science, re- ligion, and philosophy — briefly, is commonsense. e. The second member, M{varying with)L T~" , is sub- stantially the scientific member, and its obviously distin- guishing characteristic is that it considers the Many explicitly in terms of L and T. In brief, science definitely and carefully uses space and time, and gets what it calls measurements — so that fundamentally and specifically science is the explicit form of Many expression (summing of course to a One or religion). That agrees with Kelvin and other authoritative scientists (§2c). But science customarily by no means confines itself to the use of that explicit form. Conventionally it spreads to the other forms, just as This... merges identically with That.... E. g., conservation of en- ergy (i. e., the absoluteness of the One — or briefly, The Ove T =The One) is religion — even technically mysticism, al- though quite intelligible, — and not formally explicitly science. And science is continually using the first member, the philo- sophical form; as in Force XLength= Energy ; Quantity of electricity X Voltage; Volume X Pressure, etc. Further, every one of science's. "mathanical theories' is definitely a philo- sophical form (§§88-90, 98, etc.). f. On the other hand, orthodox philosophers and the average man are both frequently engaged in talking of time and space — in explicitly using those words to express meas- ures definitely. In doing so, they are obviously technically scientific. As a matter of commonsense fact (i. e., taking a view of all knowledge, regardless of its forms), there can be no sharp distinction between science, philosophy, and relig- ion, even in the matter of technique or form (for rigorous implicit proof, see §§41, 40, 50). The distinction which I more or less observe in this book is to consider that science treats primarily of the Many — and by implication, is explicit about L and T where need be, — whereas religion is explicit about the One. When I use philosophy I am inclined to follow customary usages of the average man, and imply a doctrine of some sort that is rather vaguely stated. I may say in defense of that rather untechnical conduct that to use That. . . X This. . . is more vague than to use M(varying with) L~T~", and that with the exception of the few first class philosophers the professional philosopher, or particularly the amateur sort, is pretty vague. So the word philosophy is an uncertain, tricky sort of word to use. When the scientist means what is strictly technically philosophy — i. e., a That...XThis... summed into a One, — he usually calls it commonsense. ' And that is just as tricky a word : it ob- viously has been saying philosophy for the scientist at the very time he claimed he was abjuring philosophy. Moses and the theologians, when they want to indicate what we see is technical philosophy, thunder Thus sayeth the Lord" — which is even more dangerous and uncertain — now so glar- ingly so that the day of noisy dogmatism is rapidly passing. g. The third and last member, Energy, is the tautological One word, and is the technically religious part of the equa- tion. As a matter of fact, all expressed religion — when it is not mysticism and of itself unintelligible, ond hence not ex- pression in a positive sense — is necessarily expressed in Many terms that are then summed into the One that is technically religion. So, the expression of religion is thus truistically a science — or it may be technical philosophy :- a mechanical theory. The science which directly expresses religion is us- ually called ethics (§160). Orthodox theology is funda- mentally dualism, and hence is nonsense when explicitly considered, and actually in practice is neither science, nor philosoph}', nor religion (as we shall see in verifiable detail). Theology is practically a spoiled word — so spoiled that in this book I make no perhaps hopeless effort to rehabilitate it, but use it in its customary meanings to indicate a certain dogmatic species of dualism, aristocracy, etc. h. I shall use the word religion to mean that the pri- mary emphasis of a certain state of consciousness or life or of a certain collection of words is on the validly formal and also intelligible — and hence considerably emotional — summation of the Many into a One. And I shall use the term with one special implication :- the summation must be a complete or whole One, and not merely a standard universe. (Words for sum- mations that perhaps usually refer to standard Ones, and hence in such cases are not religion, are education, art, cult- ure, and such ; but those words can, and often actually do, indicate whole One meanings and are real religion, as shown §39h V One in §166.) Religion itself as being even more explicitly a conscious -meaning, can not be positively expressed : the One words which indicate religion are not positive expression. So when I say religion, I refer to the fact that the definitely used Many words give a meaning of a complete One, and that One is religion — remembering that it or its really grasped meaning gives an appreciable emotional effect. That such a meaning is the One which for centuries has been striven for by orthodox religions, is obvious from the fact that all of them undertake to express definitely a description of the universe which might be summed into a complete God or One. That expression has mostly been dualistic and hence invalid theology; the orthodox religion itself, as understood or inarticulately held by vast numbers of past and present people, is obviously real; and the expression of the great re- ligious teachers themselves (of Christ, Buddha, Confucius, etc.) was usually intelligibly or practically valid, although technically slightly vague at times (Christ, e. g., himself repeatedly asserted that he was aware of such technical vagueness in his remarks, by stating that a saying was for those with understanding, or for those who could receive it). When we come to observe the details of religion (§§153f, 162, etc.), we shall find that the more convention- ally recognized characteristic of religion is that the meaning of the complete One must be sufficiently vividly perceived to make it what is called emotional. §40. a. Probably the most important conclusion asserted by our general equation is that there is not, and never can be, any exact science. All through the book I shall be show- ing just what that means, and proof of it. A brief intelli- gible statement of its meaning is that if momentarily we succeeded, by one chance in infinity, in getting the exact dimensions of (say) this sheet of paper, then at the next in- stant those dimensions would be inaccurate. Or, stated in a more technical way, there is not a single physical or scientific constant," and can not be. There is no such thing as a constant or eternal atom, or a constant or fixed atomic weight, or conservation of a certain mass, or a fixed or eternal person" or personality — short of the total universe. b. An important, intelligible way of considering the fact that there is no exact science is to state it from the point of view of quantity — of how much.' To put it briefly, it is not possible to express accurately the quantitative solu- tion of any actual problem. That is the same as saying that we can not express all the really ad infinitum dots of actual rto...'sand This...'s. c. Quantity implies that the time and space relationships of a part of the universe are meant: i. e., quantity means measurement. In the first place, measurement implies a standard unit — of time and space. It may be readily ob- served that scientists have never been actually able to desig- nate any such units accurately. The length of a day — which gives the standard time unit :- one second — is observed to have varied in past centuries; and it varies slowly now (XII). There are carefully preserved metal bars representing the standard L (yard and meter) : and they have been repeat- edly measured and compared, and always with some slight variation. There simply does not exist any exact standard unit of any sort — and it is impossible for one to exist, short of the total universe (Part Two). d. However, we are acting — as distinguished from verb- ally expressing — all the time in exact quantitative measure. To turn this page you must exert an exact amount of force. When you turn the page you do exert that force. If you had turned it a second earlier or a second later, slightly dif- ferent amounts would have been needed (e. g,, the sun would have been in relatively different places with reference UNIVERSE 28 to the finite size of the leaf, so that the gravity pulls, or weights, of the leaf would have been slightly changed). This page is a This. . . , with an infinite regress which must be stated completely in order to achieve verbal quantitative ac- curacy; and it can not be so stated. No man can state ex- actly how much force it needs to turn the page ; of course, we can, for practical purposes, readily measure it with fair accuracy. But we are trying now to speak precisely, and by so doing avoid all the agnosticism and errors due to the vague and indefinite speech of past ages. e. Consequently, we can accurately solve quantitative problems only by doing them — living them. We can, by learning the principles of measurement (principles of L and T), predict pretty accurately the measures. Thus, without an almanac, I can guess to within say ten minutes when the sun will rise tomorrow, and that is close enough for my pur- poses. The astronomer can anticipate to within about a hundredth of a second what the average of actual measures would be, and the navigator to about a second or so what his measures would be. f. That may be expressed in a different way :- At first men expressed astronomy geocentrically — i. e., in terms of the earth as a stable or exact base, or scientific constant" or standard. Then Copernicus found it more convenient — i. e., much more accurate and brief, if we use our customary language consistently — to express astronomy heliocentrically — i. e. , with the sun as a base or constant. At present, with better observing, astronomers find the sun also mov- ing" — not exact — (so that it is unfitted to be a center"): they tacitly more or less assume a fixed base somewhere, but do not know where or why. This book shows that no such center is possible; there simply is not any (so far I have shown it by an investigation of mere words; but later I give similar proof in terms of all other things). We advance from Copernican astronomy to an astronomy without a cen- ter — without an exact center. Similarly, conventional hu- manics usually takes a man as » base or constant; all our everyday talk is anthropocentric — man creates God in man's own image. We are going to change from that standard, and see that man is a sample of the universe — is the uni- verse, if we speak absolutely accurately (§47). That makes the whole universe the center, which is logically and really the same as saying no center (cf. §§43-4). It is actually making a One God the standard or base : most of us have been claiming for many centuries that we are monotheistic or believe in one God ; now we are actually going to be, or do so. It will sound odd at first, although it is merely do- ing what the race has for centuries been claiming it does — and really has been doing in actual living. I have a profound respect for the wisdom of what, in the long run, people do — but not much for what they say about it. g. To say that we can not solve quantitative problems accurately, meaning that we can not express or in any way anticipate the solution of them accurately, is obviously equiv- alent to saying that never can man anticipate his life exactly and thus be able to quit making an effort to live a better or more successful one, or stop being interested in actually working it out. It is an obvious truism that if science ever did succeed in doing what some over-enthusiastic second rate scientists fancy is possible— accurately predict some quanti- tative measures,— then in the degree in which, those meas- ures were important it would make a man's life a bore, take away his incentive to live, and in the same degree kill his nervous system. (Qualitative agnosticism and quantitative ex- act gnosticism both kill— ultimately are death.) To restate that about quantitative exactness in more familiar terms :- Suppose that a fancied-exact science had predicted 29 UNIVERSE One V §41c accurately the important things that would happen to us to- morrow : obviously, there would be no use living to verify them, as we already absolutely experience them if the pre- diction is accurate: so we would simply die, as a truism. It is a fact, perhaps not obvious in detail until the chapters on psychology and ethics (XVII, XVIII), that such accuracy would bore us to death. However, such a quest for accuracy is obviously a quest for the impossible. It is a waste of time or life to go after something which in the nature of things does not and can not exist (but we have to be careful that there is rigorous proof of such a condition : they told me that this book was impossible ; and then when it was written that I couldn t find you, to read it; and again that it was impossible for me to print it — not to mention printing it at a reasonable price). Hence, we are, by clear seeing, finding just what knowledge we are after. h. A qualitative problem is one which asks why or how or what. It asks an explanation. And an explanation con- sists of stating the relationships of things until we find some thing in the series with which we are familiar — fundament- ally, a thing which is directly related to ourselves as a part; i* a part of us (cf. Index, s. v. "Rebirth"). If an average child asks us to explain a cow he is generally satisfied at first if we say it gives milk — is related to milk in the capacity of producer. Not having disturbed himself with the verbal puzzles of the philosophers, he knows milk, and the cow is explained. Later, he wants himself and milk explained." We are doing that in this book by relating all of the Many to each other, in a generally recognizable way. Explana- tion, then, means relating things, and direct observing of the related things as being so related, by the person to whom the explanation explains. That is circular, valid logic. i. Already, in various ways we have observed that the Many parts of the universe are all mutually related. We saw that that principle was the underlying basis of our lang- uage. Consequently, all qualitative problems" are ex- plained. We know them all: it is the fundamental fact or principle upon which we started when we started to talk. Sometimes we may not see immediately the expression of the aspect of desired relationship between (say) cabbages and kings. I show the general relationship between cabbages and kings and everything else in §47 ; also, in detail in Part Two : to get the expression of other aspects of any relation- ship is mere verbal skill easily acquired — and to get fairly accurate measures of those relationships is the whole business of life. But the essential point is that we know absolutely that there is a universal relationship. We know it from merely our investigation, so far, of the typical sentence That... ~KThis. . .=Meaning. The solution of all qualitative problems is represented or implied by any assertion of the One we may make — and we are continually asserting some One. So, speaking accurately, there are no qualitative problems. j. Consequently, as qualitative so-called problems" are the essential ones — the "riddle of the universe," — we need never worry over any unknowns. All the theological Veiled Beings, unseen Gods, mysteries," faith," etc., are like the exploiting patent medicine advertisements which in effect fool the dupe into believing he has a disease, and then into paying for an imaginary cure. Before we start doing anything, we can know positively and absolutely that the relationships — causes and effects" — are going to hold, and that the affair is going to work itself out with quantitative perfection. The joy of living is to see just how closely we can anticipate and then realize those measures — utilizing them towards what we call our wishes" or 'will" or "purpose" (§§165-8). But we know before we start that there can be no perfect anticipatory guessing. That is a very rough anticipation of the solution of the problem of Good and Evil. We are here simply getting a general idea of all things, directly from observing language. k. And we may note that the One and Many is directly exhibited or implied by "qualitative" and ' quantitative." Quantitative is the Many, and is not accurately or absolutely expressible or "soluble," but is positively expressible with as great accuracy as we have time to achieve. Qualitative is the One, and is absolutely known and soluble" — in con- ventional terms, is so absolutely known that it is not even a "problem," — but is ineffable, and can be expressed only in- directly in terms of the Many. Hence, qualitative and quan- titative are mutually contradictory. But the contradiction is formal, and not real; for it is obvious that there is a sort of double contradiction which cancels. Quantitative problems are often called problems of expediency, and their reasonably accurate solutions truistically change daily with the change in Many circumstances. And qualitative prob- lems are problems of principle, the valid solutions of which are fixed and unchangeable, and which give the general way of solving the changing quantitative problems. An oppor- tunist" is a man who more or less ignores problems of prin- ciple — which obviously must complement and serve as the base of tolerably correct expediency. A theoretical man — one with a single track mind ' — is unbalanced in the op- posite direction, and in actual practice is more dangerous than the opportunist, because he attaches One names — holy names — to his bad Many guesses. §41. a. The phrase no exact science' is a negative form of statement. It is more easily intelligible in that form. At first a negative statement of anything is always more intelligible. For there are an indefinite number of things which something is not; and as we are familiar with many of the things which it is not, we can understandingly compare it negatively with those. But there is only one thing which a thing directly is; hence, we have to observe it closely and carefully, and more or less grow some new nerve structures to provide for directly understanding it (XVII). It is hard work to grow a little of new mind; oft- en it is painful. Hence some people protest against going from the negative form of statement (which though easy to understand, is correspondingly hard to apply), to the definite positive form. b. The first member, That... X This..., obviously is an explicitly implicit assestion of no exact science. The second member, M(varying with)L 2 T~ 2 , is an explicitly implicit as- sertion of the positive form of expression of no exact science. That form is :- mass varies with velocity ; or, in everyday lang- uage, a thing changes as its speed ('acts,' 'living') changes. That is the fundamental law of science; i. e., it ex- presses a form of truism to which any scientific statement may be rather readily reduced — which is what is meant by "fun- damental law." We shall from time to time — e. g., throughout Part Two — see concrete evidence of its truth. c. When we say that a body varies with its speed, we definitely mean that what is usually called its weight varies. The best quick, concrete proof of that perhaps is to observe that if a body moves fast it perceptibly rubs off (by friction) some of its substance, and hence has a continuously lesser weight (that technically is a static view ; in moving through ether, the dynamic or 'gravity' results, in the opposite di- rection, are greater for ordinary bodies at a speed less than that of light — a complicated remark about measures that will require a thorough grasp of Part Two to understand — and only professional scientists have any use for it ; the av- erage reader will get the same thing in familiar subjects we discuss). At this point it might be asked how the weight §4 or infinity. But obviously, the concept of number as a general naming does not imply any such end to naming. Therefore, °° is is not a number, in the usual sense of number. I?finity or °° is the collective name for all numbers, and hence is a One word. Orthodox mathematics asserts ("Ency. Brit.," Art. "Mathematics") that and °° are numbers. They are not. d. Or, we may see in what is formally another way, that and °° are not numbers. As a lower limit, outside any actual number or name for a unit of the Many, there is 0. And as an upper limit, outside any actual number or name for a Many, there is °° . Therefore, obviously and =° are not numbers, but are limits of numbers, which logically is an entirely different thing. e. Or, we may see in another way that and °° are not numbers. Obviously, <*> , in any intelligible and explicit sense, means all the Many, and hence means continuous or joined or unified. In that respect, it is clearly a One word. And is a statement of a no-Many, and hence, logically at least, is a One word; with glaring obviousness it is not a positive Many word in form. In agreement with that and also par. c, we might conventionally say that is a null Many word. Also, does not name the One, in the usual sense of name; hence, it might with perhaps equal agree- ment with conventions be called a null One word. Hence, when I conclude that although zero is a null Many word and also a null One word, it is explicitly a One word, we need to see the definite reason or truism for that:- It is said that is a One word because we are taking it that Many words are positive — are explicitly language. {Zero does not actually say anything; it is ineffable — and for that reason a One word.) Consequently, when we have a null word, it posi- tively is not positive language, and hence is a One word. The mathematicians ( Ency. Brit.," Mathemat- ics") failed to see that distinction, and consequently called a number, and introduced an error that technically vitiates all of orthodox mathematics, as we shall explicitly see in this and the next section. We may see again, in a curious way, that this paragraph is consistent. The custom- ary Occidental conception of Nirvana is that it is a universal nullity, or negation. It is a One, and it is zero. We of the West do not, in holding that, hold precisely the Bud- dha's view ("Ency. Brit.," iv, 744). But we are practically right in our idea of Nirvana, because Buddhism is a sort of negative language; and if language be reversed (as it may validly be, and as validly is substantially done in Buddhism), then is positively the One (is Nirvana), and °° is the null word for the One. And obviously that reversal — which is merely formal — does not at all make a Many word, or a number. Hence, the orthodox mathematical views as to "null" classes (l. c.) are inconsistent. f. Hence, we say that and °° are One words, and are logically identical. That means formally identical, of course. and °° are "opposite" ways of speaking of the One, and although at first it may seem odd to speak of them as being formally identical, such nevertheless they are, as we shall see clearly in the mechanical model of language given in §§53-8. Also, that fact is the general or ultimate principle of "direction" (index, "Direction"). Further, as the One is really ineffable, there obviously is not any really "opposite" ways of speaking of it, and hence we may use °° and in- discriminately for it. But, the Many requires definite, posi- tive words ; and if we were to use and °° in connection with the Many, even if they correctly meant that the Many was thus summed into a whole, they would mean that the sum- ming was done in opposite directions; and that gives us two languages, logically identical, but in one of which up" is named up, and in the other is named down. g. Orthodox mathematics has two other concepts which it is continually confusing as being identical respectively with and «> :- (l) a very small number (an infinitesimal), and (2) a very large number. It is glaringly obvious that a very small number is not 0, and that a very large number is not °° . A verj' small number and are qualitatively or in principle absolutely contradictory — and similarly with "large number" and °°. In this book, which as has been stated is much more rigorous than conventional mathematics, when I mean a large number or a small number I shall say so — generally saying indefinitely large or small — except in a few negligible cases where it seems best for merely rhe- torical purposes to follow conventional phraseology. h. It is already obvious that in practice the only rule that we need follow in being strictly validly logical — i. e., rigorously consistent in expression — is to avoid naming any Many thing or °° , or by any of their numerous synonyms such as no, none, nothing, separate, distinct, all, whole, ab- solute, continuous, total, everything, perfect, God — and, on the contrary, to name all One summations by such words. Or, from another point of view :- we shall be validly logical simply by being truly scientific and always speaking of the Many as being measuraoZe and the One as immeasurable — what the measures are numerically being not a matter of log- ic, or general scientific law, but of practical life, experience, skill and good judgment or good guessing. That is the only rule, if it is taken for granted that no one is going to perpetrate the absurdity of making a relationship word — God the Holy Ghost — into a One word or into a Many word. Even the mathematicians sometimes do that (as shown in the next section). So perhaps we should always be more pre- cise, and say that the only rule to be followed to achieve ab- solute consistency or rationality in expression is to avoid confusing the three sorts of words. Or, we may state that complete rule in terms of our equation:- (l) have no zeros or infinities in the first and second members (Many mem- bers), and always include one or the other in the third or One member; and (2) never confuse the relationship symbols with the One or with the Many names — never confuse a "process" with an "entity." Incidentally, the L and T in the equation are relationship symbols. As we saw in §30f, it would have been typographically more consistent to have made them similar to the symbols X, =, etc. When we write M. . . for M(varying wiih)I?T~' i we do become thus typographically consistent. And obviously, That... and This. . . , and especially That. . . X This. . . , are thus typo- graphically consistent, the L and T being indicated by the dots, and not explicitly named by the same sort of symbol used for an entity. i. That last paragraph completely states all the rules we need in order to be always consistent. The practical, every- day rule is the one about and °° . Most people (except when they try to talk of something of which they are largely ignorant, or when they try to be oratorical or appear §43i V One UNIVERSE 39 wise and important and weighty) by natural commonsense avoid making the confusion of relationship words. Only when they begin to dress up truth, or get off some ponder- ous piffle about the glory of SCIENCE do they become such asses. But when I put that practical rule in that formal and rigorous zero-infinity guise it looks strange and hard to apply. So we may note its use and meaning in a little of familiar detail :- Suppose you are looking at what is actually a chair, and see it. Then, in order to be logical, you will refrain, first, from saying that it is not a chair — i. e., that it is a zero chair. Further, you will refrain from saying that it is a pig — i. e., that it is a zero chair, and that the resulting is then multiplied by °° to make it something, and that that something, produced by putting in the °°, is a pig." And last, you will refrain from saying that the chair is everything, or perfect, or the universe — i. e., you will refrain from multiplying the actual chair by <», or call- ing it °° or perfect: you can validly say that the chair itself is inseparably related to the total universe, and hence in that sense is or becomes the One; but that statement uses chair in a One sense different from its common, Many, actual use we started with, and in ordinary honesty that One sense ought to be explicitly distinguished when thus used. j. Obviously, the practical application of the logical rule is simple enough when we have to deal with a chair. It reduces to the rule :- say that a chair is a chair. It is only when we deal with numerous things that we begin to get confused, and to need the explicitly formulated rigorous rule. Obviously, it is essentially no more difficult to speak of numerous things than it is to speak of a chair. But the numerousness confuses us because it burdens the memory, and we need the guidance of an explicit rule. We see in the next section how even the mathematicians get confused because of not being conscious of that rule. But as a matter of fact, a large part of the logical errors of the world comes, not from any intellectual difficulty in being logical, but from the lack of courage and honesty to face facts as they are — and those are usually called emotional qualities (§155, etc.). It takes a strong man to be steadily logical — not necessarily a mathematician. k. The practical rule of logic is so well known and common that it has, in another form, been taught to children for centuries ; every well-bred person is supposed to conform to that rule. The rule is :- do not exaggerate [or if you do formally exaggerate, make it obvious to your hearer that the exaggeration is not really meant — and then, within certain limits, it gives a more vivid understanding, and is one sort of humor]. Exaggeration obviously is simply the making of things too small or too large, with » tendency to multiply them by or °° . One of the Ten Command- ments is simply a partial statement of that everyday form of the logical rule (or is that rule, expressed in ethical terms) :- do not take the name of God in vain. That Commandment clearly is:- do not use a One word as a Many word, or in such a context as to confuse it with Many words. The common- sense view of the matter is that if we have a language, it can be usefully employed as a good tool, and there is no sense in persistently misusing it. However, the human race have indulged in so much confusion of terms — really, in so much swearing, — that it is sometimes said that language is to conceal thought. E. g. , the gay and sparkling and bril- liant" conversation at (say) tea parties, with its tinklings of wonderful,' and perfectly sweet," and perfectly in- triguing, is swearing, just as much as are the casual damn s, etc., of longshoremen. So we can reduce our practical rule to the homely one :- do not swear (except on the occasions you really mean it, and except as humoi — and unless one's hearer appreciates the humor, it is not humor to him; also humor always ceases to be humor when it be- comes too automatic; §162). You see, there is nothing esoteric about logic. §44. a. We shall hereafter see numbers of instances of conventional failures to be validly logical — failures to follow the single rule that the three kinds of words must not be confused. The worst source of such logical confusions is the fact that practically every name in our language may be used as each of the three sorts of words. The name God is a conspicuous example. And conventional logical error con- sists in formally confusing the three sorts — just as the con- ventional Trinity has been confused and befogged until the average man feels almost a repulsion towards the very men- tion of it. As was stated, conventional mathematics does not follow the principle that the three sorts must not be con- fused; in fact, it sometimes asserts practically the contrary; so I am going to follow strictly the conventionally stated principles of mathematics, and prove mathematically" in several ways the absurd result that any number is equal to any other number. That will show again that and °° are not numbers and that we must not confuse relationship words with either One words or Many words. And it will prove the correctness of our logical rule, and also show that orthodox mathematics needs it. b. Let c and d be any two different numbers, with differ- c — d- (A) ence e, so that Multiplying (A) through by c — d, we have c 2 — 2cd+d 2 =ce — de (B) Rearranging (B), c 2 — cd — ce=cd — d 2 — de (C) or, c(c — d — e)=d(c — d — e) (D) Dividing (D) through by (c — d — e) ; or multiplying (D) through by l/(c — d — e), we have c=d; or, any number equals any other different number, Q. E. D., — which obviously, or truistically by our agreement A=A, is non- sense. The mathematicians sometimes, without giving anv reasons, say that it is a fallacy to do as I did above, and di- vide (D) through by zero — by (e — d — e), which is equal to 0, — or multiply it through by infinity — by l/(c — d — e), which is equal to » , However, I am not able to find an assertion in any of the several varieties of mathematical books I hap- pen to have at hand, that such a process is a fallacy; the closest to such an assertion I can find is the discussion of indeterminate or illusory forms," such as 0X0, 0X» mh-oo, etc., wherein it is merely dogmatically asserted that those forms are, as such, indeterminate— thus implying that logically or mathematically they are permissible. On the other hand, mathematical texts all assert in effect, and usually explicitly if they take up the subject, that and « are numbers, and hence at least imply that it is just as valid to divide or multiply (D) by or » as by (say) 5— and such a process with 5 gives no absurdity. "The Ency- clopaedia Brittanica" (xi, 303, referring to xiv, 545) clearly implies that there are actual numbers, as values, which are and oo— although usually » mean8 a large number which tends to become" » [orthodox mathematics thus clearly making the contradiction A=A and A is not=A]. In its Art. Mathematics" it explicitly asserts that and w are numbers; afterwards in the article (p. 88l) the writer (Rus- sell) does substantially deny it, and in effect, although a trifle obscurely, corrects ordinary mathematics just as we are domg here. But all the explicit authoritative assertions (technically, even that of Russell) are thus shown to be that Oandco^ values" and «,e "numbers." And hence, as there ,s no doubt that we can properly divide (D) through by any number other than those so-called numbers and «o and as orthodox mathematics makes no distinction in kind 33 UNIVERSE One V between Oand °° , and those other numbers," it truistically follows that it is rigorously following orthodox principles to divide through by or ». c — d — e is a null com- plete One — as is asserted implicitly by (A) — and the valid mathematical principle is that any sort of complete One is not positive language and (according to our primary agree- ment that A=A) cannot be used as positive language, or as Many words ; and when that One is related in any way (as by multiplication) with the Many member, that is equiva- lent to denying that it is a Many, or makes it a One (as all relationship is that of identity). Perhaps the briefest and clearest way to say that is to say that and °° are not num- bers. The absurd conclusion given above is substantially the same as those which are named the paradoxes of Zeno ( Ency. Brit.," "Zeno"). Only the explicit solution of the One and Many — which is what the rule concerning and 00 substantially is — will solve those paradoxes. And with that solution, the solution of those centuries-old puzzles is so simple that there is no need to give it explicitly here. c. A series is orthodoxly ("Ency. Brit.," xxiv, 668) a set of quantities arranged in order so that each quan- tity is definitely and uniquely determined by its position"; and it may be infinite — i. e., the number of [those quanti- ties or] terms may be *** unlimited." We shall use such series, again to prove that any number is equal to any other :- By algebra, l/(l+a)=l — a +a 2 — cfi + ... (A) Leta=l, and we have i=l — 1 +1 — 1 +... (B) By algebra, (l+a)/(l+a+a 2 )=l — a 2 +a 3 Let a=l, and we have ft— 1 — 1 "hi And (l+a+a?)l(l+a+a 2 - Let ffl=l, and we have Similarly we may get '— a 5 +.. . (c) — 1+.. . (D) -a 7 +... (E) — 1 +.. • (F) — 1 +.., . (G) h« 3 )=l— a s +a 4 - 1=1—1 +1 4/5=1—1 +1 etc., etc., etc. The second member of (B), of (D), (F), etc., is a series; and orthodoxly it may be written out to an absolutely unlim- ited number of terms — may have all the terms there are, as a truism of the orthodox definition. Consequently, as those various series are, by orthodox mathematics, term for term identical unlimitedly , then obviously they are identical or equal, by our agreement A=A. Therefore, as the second members of the equations are equal, the first members are equal (by the same agreement A=A : mathematics says that they are equal by the axiom that things equal to the same thing are equal to each other), and we have :- 1/2=2/3=3/4=4/5=... (N) By manipulating (N), and similar equations obtained by like methods, by simple algebra, we have:- 1=2=8=..., or, any number equals any other number. Well; I did not explicitly, or technically by orthodox mathematics, intro- duce any or °° into that proof" — certainly not in the sense of "multiplying" or "dividing" by one or the other, which is sometimes superficially held by orthodox mathe- matics to be fallacious. But with orthodox mathematical rigorousness I managed to get an absurdity. In a sense (in the commonsense view taken by valid logic), there was an °o in the "proof":- the series had orthodoxly absolutely un- limited terms. By commonsense, the fallacy is of course that if the terms are unlimited or infinite in number, then the terms are not "definitely determined" as was asserted by the orthodox definition which I simply took at its word. The simple fact is that there is no such thing as a positively stat- able infinite series (there is no exact science). The series above, if they are made definite and expressed definitely, always have a fractional quotient as a last term, and evaluate definitely as : k ==: k, §=y, etc., which are simple identities of standard universes — not of standard universes and absolutely infinite universes, as is orthodoxly asserted. d. There are an indefinite number of ways of getting that absurd result by orthodox mathematics, all depending on confusing the One and the Many — in effect, on taking and °° to be numbers, or confusing qualitative with quanti- tative. We shall now proceed to "prove" with orthodox mathematical rigor the same absurdity by confusing relation- ship words with the other two sorts. In this way we do not use or » in any ordinary senee:- By conventional algebra, J— iH4l/(— 3)] 3 =1 (A) Also, by conventional algebra, 1 3 =1 (B) As the right members are identical, then [-4+i|/(-3)] 3 =l 3 (C) Extracting cube-root of both sides of (C), we have -i+W(s)=l (D) Hence, \V{— S)=s/2; or, l/(— 3)=3; or, — 3=9 (E) Adding 4 to both sides of that last, 1 = 13. And proceeding similarly by conventional algebra, any number equals any other number. e. The trouble with those last orthodoxly valid equa- tions is that I used relationship terms (the cube," and the "square-root," and the ' — " in y( — 3)) substantially as Many terms (doing it an odd or uncancelled number of times; see next paragraph). It is obvious that there is no explicit principle in orthodox mathematics which says that that is wrong; but it nevertheless produces an absurdity. There are other well known ways of proving our ab- surd proposition by manipulating the second power" (which involves a relationship), without introducing the — . The same absurdity is shown in another way (using geome- try) in §5 Ob; and in a general way in §66. We may note briefly that the symbol j/ is a relationship term, just as defi- nitely as is — And of course it is as much nonsense to say and mean explicitly the square-root of a minus," as it is to say the brotherhood of motherhood.' Orthodox mathemat- ics itself agrees that it is meaningless to speak explicitly of the square-root of a minus — calling the * quantity" ]/( — l) imaginary. As a fact, we can not even imagine that quantity ; it is absolutely inconceivable if taken explicitly. The same thing applies to manipulations of second pow- ers," third powers," and all other relationships. A rela- tionship can not be used as a One word or a Many word, or to duplicate another relationship. f. But orthodox mathematics does get correct results as a usual thing when it uses \/( — l) (and other "relationships of a relationship'). The way in which that is done is by more or less unconsciously introducing another similar con- tradiction which cancels the first (and, with a little common- sense, rejecting the absurdity that results when it happens that that is not done — a procedure which glaringly shows that conventional mathematics is not rigorous). So long as there is a balance, an even number, of such contradictions in an argument the result will obviously be logically consist- ent : and the verbal or symbolic expression of such dupli- cated relationships may be considered, not as giving or in any way having any explicit meaning, but as merely a mne- monic device for keeping account of the relating process. In the same way poker chips have no special meaning or value of themselves, but are used as mnemonic devices to indicate the relationship of the players to the stakes. To puzzle over |/( — l) is equivalent to puzzling over the 'why- ness' of a poker chip : there is no real whyness, but merely a convenient agreement. In identically the same way the 2 's, ~'s, etc., in our L 2 T~ 2 's, etc., do not mean two absolute verbal links or relationships, or any relationships of a rela- tionship, but mean simply the verbal way in which space and time — the single relationship — is used in the language ma- chine (see the total discussion of space and time in this book). §44f V One UNIVERSE 3* But as this is not a treatise on mathematical detail, I must here omit the volume or so of ways of balancing and other- wise handling such self-contradictory but formal duplication of relationship counters. Those mathematical details will be implied in the investigation made of our general equation. g. The tacit, actual rule of conventional mathematics is that if its rules — which as we have just seen, are not com- plete — obviously do not work, then throw the result away, and with the same blindness try again. The savage says that if the lever at hand fails him, throw it away and try another. Actually, it is the only ultimate way to learn; it is still an excellent method ; but it is good only in the ab- sence of knowledge, for it is uneconomical of time and effort. Some professional mathematicians and scientists of a medi- ocre sort tend to believe that mathematics is perfect — the queen of the sciences, etc., — and that if anything is ex- pressed mathematically we must in submissive awe believe it, or at least pretend to understand it. Well ; the reader has now seen that orthodox mathematics is no more certain to produce an intelligent result than is orthodox language. That queen stuff is obvious nonsense — the protective cloak of the egotistical dogmatist. h. The important thing which we have seen is that we get absurd results in expression whenever one sort of word is asserted to be another sort. We have seen that orthodox mathematics needs a more precise restatement to make it self-consistent. We could at this point go ahead and trans- late the above simply expressed results into the technical terms used by logistics — which is mathematical logic, or what might be called the science of mathematical founda- tions. But I omit that; for I assume that most of us have more need for ordinary language than for technical mathe- matics. It takes more skill to say some given thing in words than it does to express it mathematically. CHAPTER VI. Names for logic, and chief application of valid logic to men. §45. a. We have seen a way of expressing a complete or unifying sentence or equation. And we have seen some important conclusions which were obvious from that complete sentence — finally seeing the simple rule by which consistency of expression can be achieved:- the three parts of the Trinity must not be confused. That rule was, for clearness and vividness, exemplified by showing the absurdities resulting from its non-observance by orthodox mathematics, which is presumably the most precisely rigorous sort of expression. b. In the remainder of this Part One we consider the same things from different aspects, and in addition notice more or less interesting details. I shall begin this chapter by giving the most important general application in everyday life of our precise unification. After that we shall try to find a conventional name that fits the unification. To antici- pate the results of that search for a name :- We definitely find by observing the meanings of various conventional names, the important fact that our valid logic and concrete truth is the same as the logic and truth of the average man — that the race for centuries has somewhat unconsciously been using valid logic and obtaining truth, naming it com- monsense. c. Then, I give in the next chapter (VII) a new sort of proof of our whole argument in a way which shows the indefinite flexibility and possibilities of language. Next I show (in VIII) a mechanical model of language, as concrete proof of the argument, and for more definite guidance in the use of language. Then (in the last chapter in Part One, IX), as an actual example of the fact that merely our investigation of language will enable us to unify knowledge rigorously, I apply what we have learned to elementary physical science, and we see its formal completion. §46. a. Man is chiefly interested in man, because man is man and hence most directly and steadily perceptible and familiar to himself; it is merely a truism. Consequently, the most important application of the solution of the One and Many is its application directly to man. This whole book is with more or less directness engaged with that particular application. But now that we have the solution, we here at once apply it to man with explicit directness, in broad out- lines. We see further details throughout the book. b. It is held by the dualists that man is of two-fold nature:- soul and body. The soul is now usually considered to be the same as mind, or spirit, or consciousness, or the "vital spark." There have been many ideas as to soul (see "Ency. Brit.," Index, s. v. Soul"). So many people have considered it some separate entity or thing which in some way dwelled in the body, that souls" have rather gone out of fashion because it was so glaringly self-contra- dictory to consider the soul absolutely separate and also not separate, but more or less attached to the body ; also, be- cause no one ever succeeded in putting his finger on such a soul," although many attempts were made. The modern fashionable name for soul is personality. Soul, or any of its several synonyms, is simply the unified or joined sum of parts of an individual, considered chiefly from a mental or spiritual' or nervous-system aspect — as will be proved. c. Some dualists further hold that there is a dualism — an unbridgable, unescapable, essential difference in kind or quality — between the body" of man, and matter." I. e., they hold that body" is alive," and matter" "dead." We take that up in detail in the chapter on biology (XVI, especially §144; and it may be remarked that the matter of the old Clerk Maxwell style of scientist was viciously dead" verbally — but erroneously ; see Index, Dynamic," "Max- well"). Here, we simply note that that dualism — "vital- ism" is the name of that variety, — and all others, will disappear in the same way as that between mind and matter is shown to disappear in par. f and following. We may an- ticipate here, that all the universe is ' alive" in any real or One sense (or dead," if it is preferred to talk lugubriously). Whether or not a given thing is, in everyday and Many language, to be considered alive or not, is a quantitative prob- lem, the solution of which depends upon -what perceptible degree of organization or structure or personality — what in- tensity of internal and external reactions — we arbitrarily agree to require of the thing that is to be called alive. d. The orthodox way of "logically" bridging the dual- isms alive-dead, and mind-matter — the way of Descartes, Aquinas, the Catholic church, and most other pluralists — is to use God" as an entity, a concrete or Many link, or ter- tium quid to join the two. (In that sense, God validly should be a formal relationship word, God the Holy Ghost — in which case there is no dualism.) Other dualists do not like the name God and use some synonym. Some materi- alistic scientists substantially deny that there is any such thing as mind, or a real relationship or organization or per- sonality or soul. In effect, they deny that there is (say) friction in a machine. We consider their views in detail later (Index, "Materialism"); in general it has already been shown that the classical logic which those materialists fancy they are using asserts some sort of relationship. e. Obviously from the last paragraph, the dualists (ex- cluding that queer variety :- materialists) do get mind and matter absolutely together. So essentially, all that their as UNIVERSE One VI §47g talk amounts to, is that they assert that the two were abso- lutely apart until they (the dualists) themselves with super- Godlike power created a God to put them together. Hence, a commonsense question that obviously disposes of their talk is :- Why do the dualists keep on chattering about mind and matter being separate if they have been so good as to get them together for us? do they want us to keep on being grateful to them for having remoulded the universe nearer to their hearts desire, and keep on appreciating their skill and miraculous power in making a God? f. The obvious principle is that mind and matter are unified or related, and hence ultimately identical. The dualists by inventing their poor sort of God did not change the universe, and produce the relationship which they tacitly admit now exists. The shortest proof of the identity of mind and matter is that we attach some meaning — regardless of what it is — to the phrase mind and matter' ' : and a meaning is continuity or unity. If we didn't, obviously it would be nonsense to use the phrase. g. In Part Two, where we observe matter in detail, we see that it is identical in all respects with mind, life, per- sonality — except in quantitative respects, which are unessen- tial. The formal proof in the last paragraph is of course rigorous; any dualism may be destroyed in the same way. But it is destructive proof. For actual, intelligible proof of no dualism we describe things as they are. §47. a. If we consider a man, superficially he seems to be a separated part of the universe; and it seems at first that we can not actually perceive that he is inseparably joined on to the remainder. But if we look closer (if need be, using microscopes, etc., as tools to intensify our percep- tions), we can see that the man is not sharply cut off or bounded from the rest of the universe. His breath extends indefinitely inward into his blood and indefinitely outward into the atmosphere. His skin does not bound him ; for his sweat extends indefinitely in, and vaporizes indefinitely out into the atmosphere. There is obviously no definite place at which his food and drink become a part of him," or cease to be a part. Obviously, it is not possible to say where the man begins or ends. Like our circular logic, which starts from truisms and ends in them and stays always inside such a verbal One, the man ultimately, or in exact language, has no positive beginning or end, or sharp boundary. A man himself is precisely like our valid logic. b. We can at this point be somewhat more definite about his mind and body (see XVI and XVII for remainder). It is observable that if we remove part of his nervous system we remove part of his mind. So obviously, in that rough way it is shown that there is no essential difference between mind and body. Also, it is not possible to observe any exact or positive boundary between the nervous system and the organs in which it "terminates" (§152). Any tool which we take in our hand (say), is obviously a. perceptible extension of our body or nervous system or mind ; for no sharp bound- ary may be distinguished anywhere; and very evidently we can — with the ordinary tool — feel or observe perceptibly with the outer end (§165). c. Except for rough statement that he is a This, the man is really continuous with the universe — inseparable from it. He is actually This. . . ; any unit of the Many is actually This..., as we have seen in theory" and are now broadly seeing "concretely." If we try to assert that the man is at least bounded by the surface of the earth or by the atmospheric boundary, a closer look will convince us that the assertion will not hold. For obviously the air and the water on the surface of the earth {and some of his vaporized sweat, etc.) extend into the earth with all degrees of percept- ible connection. And the air does not stop at any outer boundary. There is an outer zone of attenuated air from which parts (molecules) bounce up, and mingle with similarly bouncing gas from the sun, and so on. We see that continu- ation of the atmosphere in zodiacal light (§12 1). And in turn, it is observable that parts of the solar system mingle with other such systems, then on to other galaxies, and, so on indefinitely or in infinite regress (XII). d. Therefore, the so-called individual man is an arbi- trary part; for no exact boundary can be fixed for him in any way, short of the total universe. And even if we were to fix a formal boundary for him as a definite ' individual, ' with glaring obviousness that boundary would constantly change. Every time he breathed there would be a continuous cycle of change; his heart beat usually moves parts of him percept- ibly in and out ; the ingestion of substances constantly pro- duces changes. Obviously, even such a formal boundary is not definitely or positively fixable. e. Therefore, from every point of view the man is sim- ply arbitrarily a unit of the Many. In terms of the Trinity, he is, considered roughly and inexactly, a God the Son. The only accurate boundary we can give him is to say that he is ultimately, without any real break in continuity, the whole universe, or God the Father. Explicitly, each man, when accurately described, absolutely includes in himself all other men and things as parts of him, and is God. That is the most intelligible description of God (particularly God the Father) that can be given. The description is thus far very thinly intellectual — i. e., mostly formal and abstract; — this whole book adds details, and under ethics (XVIII) we get some small measure of its actual infinite emotional content. f. The conventional belief of the dualists is that God is something outside the universe, separate from it, and absolutely apart. Obviously, as a truism, if God or anything else is outside the universe and apart from it, our very asser- tion of the existence of that extraneous thing implies an as- sertion:- the universe and it. And that assertion, by the and', explicitly asserts a connection so that it is actually implicitly a part of the universe and included in it (or else the phrase is utter nonsense and unintelligible). In short, it is absolutely self-contradictory to assert that we are even aware of the possibility of anything extraneous to the universe or separate from it ; we can write such a form or assortment of words, but the form is self-contradictory and pure nonsense — or else it implies some new and novel meaning of the words used. I might add a volume of the same sort of ob- vious proof. But the foregoing part of this paragraph is rigorous, and is sufficient for the intelligent reader, in spite of the wide currency of the yarn that God is outside the universe. God is the universe. g. To take another point of view of the last paragraph :- There is no something exterior to the universe with or by which to describe the universe s boundaries. I. e.,the uni- verse is not a This, which we can speak of positively and ex- plicitly (as we can of the color red) by comparing it with a That outside or even formally different or separate. The universe is the complete finish of all different That's and This's, and has nothing by which to fix its boundaries (except that they include the sum of everything inside) : in every- day language, the universe is not bounded." It is not quantitative. Consequently, when we achieve complete accur- acy by describing a man as ultimately the universe or God, there is no way of expressing any boundaries or size, in pos- itive words (see Index, "Difference surface"). We are really truthful, essential,' qualitative, and accurate then; but we are indefinite, and not verbally positive. The universe or God or any ultimate thing is ineffable or mystical, or is §47g VI One quantitatively absolutely indeterminate, or is really infinite. h. Thus far we have seen rigorously — in formal, thin intellectual expression at least — that a man is arbitrarily an individual or unit of the Many, and in ultimate reality is the universe or God the Father, or the One. It is now similarly obvious that "man" as a class is a word which implies the relationship of all individual Many men. In that sense, man is God the Holy Ghost, or a relationship word. That use of man is rather common; the more explicit names for the same relationship, which also include an implication of a Many meaning, are mankind, brotherhood qf man, and society. The science of sociology emphasizes that point of view of man as God the Holy Ghost. All governments and other human organizations obviously take the point of view that man, from one aspect, exhibits relationships — is God the Holy Ghost. So the solution of the vexed problem in sociology of What is sovereignty? is obviously:- sovereignty is the name of that relationship (is a relationship word) ; and various sorts of sovereignty are nothing more than such a rela- tionship of natural continuity or ultimate identity, ob- served in various perceptible quantitative degrees of extension and intensity in various historical circumstances. When it is said God is love," fundamentally it is meant that man as God the Holy Ghost is a, linkage or unbreakable organization or organism called love. The same connec- tion in science' is called cause and effect"; or cohe- sion; or, negatively, pressure (§86). In philosophy and theology the relationship aspect is called reason, and mind, and the moral sense," and spirit," and teleology. The chief difficulty in orthodox doctrines is that there is such an everwhelming profusion of names for that same thing. For centuries theologians, scientists, philosophers — prophets — have come forward with systems" or "truths" — special or particular ways of unifying knowledge, — each thinking that he had some bright new idea, to which he often gave a new name and said it was the most "important" thing in the world. All of them were talking about the same simple thing:- God the Holy Ghost — or copulas in language ; or the relationship of the One and the Many. And all of them ob- viously were fundamentally right, even if they were a bit narrow minded and over-proud of their new little names. i. When in everyday terms we speak of a man as having personality, we obviously mean that he is strongly consist- ent; i. e., all of him hangs together or works together so energetically that it all "adds together" instead of there being appreciable mutually conflicting and hence neutraliz- ing parts; and hence he is on the whole vividly perceptible. He then is not futilely vacillating, or noisily contradicting himself, or awkwardly "falling all over himself." Hence, even in conventional meaning personality substantially is perceptible relationship — a definite continuity inside a given man as a standard universe. Obviously, when we consider man as a complete universe, personality is still God the Holy Ghost. Or in that relationship sense, and also in the sense that a man is accurately and ultimately the One, God is a person. That is not using person in quite a conventional sense, which latter sense usually makes a person a standard One (vision being too short conventionally to see a whole One), and hence in practice makes God a sort of senile gray- bearded Oriental or Prussian kaiser seated on a sort of un- supported gold throne nowhere in particular. But obviously, our conclusion that God is a person uses person in its essen- tial conventional sense of continuous, or organized, or con- nected ; we agree completely that a standard universe may have such a personality, and note that in it the personality, to our rather restricted vision, may be perceptibly much more vivid than is the personality of the whole universe (al- UNIVERSE 36 most stupendously so in the case of Christ, e. g.): but it is quite evident that the facts show that the whole universe is also a person. I may make the technical philosophi- cal remark, that in that sense the present sort of deism tru- istically is practically opposite to the customary historical pantheism. That pantheism usually was substantially nothing but what we now call materialism (§49b), with a silly, cloying sugar coating. j. It is to be kept in mind that consistently with pres- ent conventional language, God is a person. I. e., the uni- verse is organized, connected, organic — something more than a mere "heap" of parts or Many. The universe is a real machine — one held together by friction (or love, if we prefer the ethical term ; or cohesion or force, to use scientific terms), and is not a heap of disparate parts. The machine works. It is a person (§§144, 158). An ordinary locomotive has a personality quite perceptible to me : in principle it ought to have slight personality, as we shall see by the whole of Part Two. Many people have asserted that they can per- ceive the personality of a locomotive or similar machine — as witness the affectionate name tin Lizzie for a Ford car. §48. a. We have seen that nearly any name can be used for each of the three sorts of words (§§28b, 29, 80, 43-4). We have seen it vividly in the case of man (§47). And we saw by the absurd mathematical conclusions that the confu- sion of the three produced nonsense (§44). It is therefore evident that to be consistent or rational — to see things as they are, — we distinguish in which of the three meanings we are using some given word, so that mere names shall not confuse and blind us while we are ostensibly using them to avoid that :- to aid our memories. Any normal child can readily judge which of the three meanings of a given name is intended, or else see that in a certain case he cannot and hence that the word or sentence is unintelligible to him. There is no intrinsic difficulty about being logical, and see- ing the truth : the difficulty is that we are in the habit of confusing the words. b. It is further evident that by considering any name ultimately and accurately as designating God the Father (as may be validly done), we therein have a formal religion that is really correct, as it means or indicates the whole related universe. Obviously, as a further truism of that, any person who considers and observes that the results of his activities are an inseparable part of the whole universe, and are needed as that part to round out the whole, they being absolutely indispensible because inseparable — any person who can thus regard his activities or his life has a real, everyday, working religion even if he is no more than an unskilled laborer (for further details and proof, see §§166-7). Theology does not necessarily express a valid religion. If you will refer to an authoritative orthodox theologian's statement of what theo- logians think is the Trinity ("Ency. Brit.," vi, 284-5, in Art. "Christianity"), you can readily see, in the light of what we have now observed about the Trinity, that no so- called Christian theologian, according to that statement, has yet consistently expressed any valid religion. If it is not obvious from that short citation, then the remaining pages of the article cited make it more obvious. ^ Many theologians 48b That article (p. 289) explicitly states in effect that the theolo- gians are evasive— i. e., that they will not agree to say that A=A and stick to it, nor yet will they refuse to do so (cf. §22). E. g., the writer states that officially both the Protestant and the Catholic churches assert certain doctrines which many scholars in the church find "no difficulty" in rejecting and "remaining Christian." He says that they produce a large literature "reconciling science and theology by softening and compromising and adapting"; that men are not "prepared to carry principles to their logical conclusions. By 3T UNIVERSE One VI of course have a valid religion, and have had. I have merely pointed out that by their own statement their expression of such religion is grossly inconsistent. Yet that theological dogma, worthless when strictly interpreted, implicitly points a fortunate power of mind they are able to believe as truths mutually inconsistent propositions." The writer goes on further, actually ap- proving that extraordinary refusal of theologians to abide by any verbal agreement they may make. Obviously, he asserts in effect that a theologian will agree that A=A, and will then at any time he likes, and without notice, assert that Aisnot=A. That writer is an authoritative Protestant (whose name in simple kindness I omit), and perhaps the Catholics may hold that he has no right to speak for them. So we shall let the Catholics exhibit fundamental evasiveness for themselves:- If you will refer to the Art. "Philoso- phy, "in the authoritative "Catholic Encyclopedia' ' (xii, 37-8), passed by their censor, you will find that its official Catholic writer (in an extremely confusing manner which may have confused even himself — and which on the other hand may have been sophisticated guile to prevent anybody's pinning him down, which is the acme of evasive- ness) dodges definite statement of what the Catholics fundamentally believe as expressed in philosophical terms, and finally makes this "shifty" statement as to official authoritative imposition:- "The Church has never imposed any philosophical system, though she has anathematized many doctrines." [That of course is equivalent to asserting that the church has negatively imposed philosophical sys- tems — but let that pass.] But another writer in the same official work ("Cath. Ency.," v, 170) substantially flatly contradicts that first writer by stating:- "From the thirteenth century, through the influence of Albertus Magnus and still more of St. Thomas Aquinas, the philosophy of Aristotle, though subjected to some important modifications, became the accredited philosophy of the Church"; and, "The distinction between the human soul and the body it ani- mates was made clearer and their separability emphasized ; but the ultra -dualism of Plato was avoided." An authoritative Catholic theologian, Ryan, in a more or less casual book not officially recog- nized by the Church so far as I can discover, asserts as a sort of mat- ter of course and as actual practice, that the Catholics are dualists ("Socialism: Promise or Menace," 261-2); and he goes on to make the nonsensical dualistic statement (which in actual practice Catho- lics claim to hold), that "science and religion as such *** deal with entirely different spheres of reality," — which remark of course im- plies as a verbal truism no need of consistency between science and religion. Also, J. J. Walsh, in "The Popes and Science," officially censored by Catholic authorities, states (p. 327):- "At the end of the nineteenth century Leo XIII. crowned the tributes which many popes had conferred on Thomas [Aquinas] by selecting him as the teacher to whom Catholic schools should ever turn by formulating the authoritative Papal opinion — the nearer to Thomas the nearer to Catholic truth." And see also Walsh's "The Thirteenth, Greatest of Centuries," pp. 81, 276-81. It seems to me that those quo- tations prove both sorts of theologians to be officially evasive, irre- sponsible and unreliable in their assertions — or else to have minds of such weakness of perception and hence unreliability as perhaps oc- casionally to border on pathological insanity. The Germans repudi- ated a "scrap of paper," and the rest of the world would not tolerate it — it is becoming bad taste, and sometimes dangerously unhealthy, for even statesmen and diplomats — a "government" — to lie in these days, although Henry Adams says in effect that they feel quite free to lie. We here see the theologians acting even more reprehensibly than that defunct German government — for that government was at least honest in giving notice that it did not propose to keep its word unless convenient, and those theologians in those quotations evade even that much of explicit statement of how far we can rely on them. As a matter of fact, if the Catholic theologians are ever forced to notice these remarks, quite probably they can "prove" by technical canonical law that I prove nothing officially by such quotations — a characteristic Catholic procedure (e. g., see Walsh's "The Popes and Science") which if followed proves my point. There is actually a history extending over centuries, of theological lies and evasions: see "Pious Frauds" in Lecky's history of the "Rise of Rationalism in Europe." And the Protestant theologian quoted goes so far as to assert that none of mankind will live up to their principles: the truth is that most theologians even have excellent principles and live up to them quite honestly as a usual thing. So far as I can find, all other classes of men try to be verbally honest. Even the first Catholic writer quoted above makes a sort of verbal claim to the intended honesty of Catholics in dealing with science. But in view of those quotations, I have no choice but to state that in no case in this book do I place any particular reliance upon what a theologian professionally or officially says. out the complete truth. So obviously, theology need not be taken more seriously than any other science. And orthodox theology is explicitly wrong when it pretends to any auth- ority" (such pretension being substantially the invalid claim that expression is real proof; see §35). Also, theology is, in making such a claim, an aristocracy, autocracy, or kaiser- ism. The Catholic church explicitly pretends to such auth- ority (ibid., Art. "Christianity," 289); hence, the Catholic church is absolutely wrong by its explicit words in that re- spect (which is an important practical one), and is in prin- ciple intolerable (§169). c. In the old days the Trinity was a governmental problem. It is now the verbal custom to consider that in some countries there is no religion in government. Obvious- ly, in a complete sense, we can not possibly keep religion out of government : man himself is clearly the Trinity, and man is society. But what is meant is that we keep theology out of government (allowing free speech in the matter — as theology, with its claim to authority, will not willingly do) — which is quite right and practically necessary until such time as theology becomes a valid science (when it itself will accord such free speech ; §169f). As a matter of clearly obvious historical fact, the reason this country removed the- ology from politics is that theology is essentially aristocratic or autocratic in its substantial claims and in its practical ten- dencies — a so-called spiritual dualistic doctrine of kaiser- ism that can not possibly be reconciled with democracy in principle, it being the flat contradiction of democracy — as we shall see proved in detail in XVII-XIX. d. The historical fact, with an obviousness that is pain- fully glaring to me, is that most churches, and especially the Catholic church, have opposed any verifiable, objective proof that certain of their dogmas failed to agree with things as they are. Theologians have tried to force men to accept their authority eveu to the irrelevant point of torturing them bodily. For historical proof see the Catholic Walsh's officially censored Popes and Science, where the facts glare through his formal denials and explanations"; or, for explicitly stated proof see White s Warfare of Science with Theology" (note that White advisedly says theology), or Buckle s history. The reason for that insistence of theologians upon their authority is of course the same as the reason for the maintenance of any kaiserism :- it was a more or less selfish, personal effort to get and keep them- selves in a position of power and privilege and emolu- ments" (i. e., graft) — and of course their doing so did con- fer some very temporary benefits on the laymen (e. g., it saved them the pain and effort of doing a little thinking for themselves, giving them the lazy comfort of saying that those subjects are of course outside our line and we will leave them to the specialists — just as some presumably intelligent people have talked to me about this book); and those temporary comforts were paid for later by mental and moral deteriora- tion, as is all kinds of paternalism or parasitism (cf. Part Three). It is much easier to claim to be right (especially after one's brain is so debauched — i. e., partly killed — by the evasiveness described in the footnote, that it no longer rebels against such dishonesty), than it is to dig into things by hard effort and find out what is right. Consequently, so long as there are men so weak and stupid as to tolerate being duped (and even actually to invite it, as has come to my notice repeatedly in working up this book), there are going to be dogmatic theologians, as well as other sorts of dogmat- ists, who are mentally sufficiently depraved to dupe them. The dogmatist pays for the 'privileges" and graft he gets by suffering that brain destruction — a very expensive payment, although he in turn is too stupid to know what is §48d VI One UNIVERSE 38 hurting him, and fills the air with complaints about the unbelief" of the people. This book will show unescapably that we pay for everything we get, and get everything we pay for. In the aristocratic kaiser-theologian-dupe game the payment is merely a trifle slow — and that fools boobs. e. The extent and intensity with which we perceive the ultimate unity or organic personality of the universe determ- ines its mental effect upon us (including emotional effect), and hence its worth (§168). The remainder of this book is a series of evidences that there is such ultimate unity or con- nection or love or cohesion. In that sense the book expands and intensifies the reader's religion or enjoyment of life if he sees and verifies that evidence for himself. f. The argument of the book is now complete. It was complete when we had examined the sentence 2+3=5 in §12; but now all implications of that form have been stated and shown in a broad way. Hereafter I simply repeat the argument in terms of different sorts of details, as a means of making it applicable and more thoroughly intelligible. Hav- ing now achieved that general completeness, it may at this point be of interest to see what the conventional name of the argument is :- §49. a. There may be said to be three general histori- cal ways of viewing — interpreting — the Trinity ( Ency. Brit.," Art. "Christianity"). 49s Each of those historical interpretations consists of emphasizing one sort of our three sorts of words, at the expense of the two remaining kinds. Sometimes the emphasis is so violent that the other two members of the Trinity are claimed to be non-existent. Thus, the atheist or the materialistic scientist emphasizes the Many so much that there is to him nothing else — no unity, no God, but only a fortuitous concourse of atoms" (an obviously self-contradictory phrase that thus implicitly re-establishes the Trinity). Or, the technical mystic will so violently emphasize the One (or may be it is relationship or God the Holy Ghost : no one ever knows just what the technical mystic is saying), that he substantially denies the existence of the Many. And there are other varieties of doctrines that wholly deny one or more parts of the Trinity. Sometimes people become exasperated with the theological dogmas, as Wells apparently did, and deny the Trinity in toto — and then more or less unconsciously construct another, with new names. But as we have seen the formal need in language of each of the three sorts of words, it is obvious that the truth is not any of those doctrines which deny one or more parts, either very largely in a quantitative way, or wholly — in really a qualitatively impossible way. So technically, we are neither Christian Scientists nor theoso- phists (two species of mystics), nor atheists, nor materialistic scientists (who are almost German "monists") — not yet ag- nostics, who say they know little or nothing of the matter. b. Nor are we dualists, who undertake to make some real split in the Trinity, so that any two parts are perfectly equal" to each other. The parts are not real or essential or djstinct, but merely arbitrary or verba], and actually merge into each other even in the using of such logical formal distinctions. c. It is not profitable to examine at length the names of the doctrines that in one way or another gave greater 49a The writer mentions four more technical ways as being "Christian," but I shall ignore such technical dogma as being too trivial for intelligent readers. E. g., the Catholic Trinity is briefly this:- "In this one God there are three distinct Persons, — the Father, the Son [i. e., Christ], and the Holy Ghost, who are per- fectly equal to each other" (Cardinal Gibbons, "The Faith of Our Fathers," Chap. I) — and I take it that the reader of this book is too intelligent to desire a discussion of such balderdash, that is so glar- ingly self-contradictory and meaningless if explicitly considered. emphasis to one or two parts of the Trinity than to the re- mainder. There are already hundreds of tiresome books on the subject. We shall look at a few important doctrines. d. The Buddhists seem to me to make relationship words — explicitly time and its numerous substantial synonyms — the most emphatic of the Trinity. I. e., they make re- lationships or God the Holy Ghost "real." (For rhetorical purposes I tacitly take it for granted that I am historically correct in my interpretations. I am not able to make out with much definiteness what the Buddha did mean, and I doubt whether he knew very clearly himself — there are places in this book [they are labeled] where I do not know clearly what I mean; e. g., the full extension of the theory of harmonic periodicity : and I know considerably more about things than the Buddha did. All my historical state- ments are similarly liable to error. Such statements are quantitative, and I can do no more than give reasonable guesses, some of which are most likely to be very inaccu- rate.) To make relationships real or truth, is,truist- ically, valid, provided that there is at least formal recognition of the logical existence of the other two forms. I. e., we validly can emphasize relationships very much — say they are real" — and at the same time say that the other tw r o forms logically exist, but will verbally be called not real," but "arbitrary" (real and arbitrary in that usage merely take on quantitative meaning). The Buddhistic way of making time real (doing so in practical effect by emphasizing the long temporal duration of training or education, or what they call the way," to ultimate perfection — to grasp of the One) obviously makes the One a form — it makes the One what we may call a negative realit3',' or Nirvana. Buddhism is hence obviously quite right; it does not deny the formal or logical need of those three forms, and their ultimate unity. But we Occidentals do not talk that reversed language (it is in practice an Oriental, more 'selfish' [cf. §15 1), introspect- ive language; whereas we prefer an objective or "scientific" language). So Buddhism is inconvenient for us — and also possesses inherent tendencies towards selfishness which are inadvisable (e. g. , the conduct of the Buddha himself in coolly deserting his family would get him a jail sentence in some of our states), and are technically and historically primitive. In speaking of Buddhism I refer to the original Buddhism, which was essentially sound, and an ex- traordinary advance. The Buddhistic theologians seem to have perverted Buddha's teachings as ours have Christ's. e. Those who emphasize the Meaning or One or God the Father member of the Trinity are now perhaps most oft- en called monists. The chief objection to that name as a proper name for our valid logic is that its German users, in their exaggeration of detail (of the Many, of "material"), have rather spoiled it. They usually call their doctrine scientific monism," and fail to recognize that the phrase implies a dualism of "matter" and "spirit" that instantly stultifies it. Some theologians in a somewhat similar way try to appropriate the name monism as being more up-to-date than the ancient equivalent theological term monotheism,— and then make a dualism out of their "monism." Or, the Germans are sometimes equally shallow in asserting what they call a monism, that in effect denies relationships (so that they can formally use the classical logic with it) ; such monism again implies dualism. Before the war I used to devote considerable space to showing that Ostwald and Nietzsche, who seemed to be the Germans' actually ac- cepted leading "thinkers," were exceedingly unsound fundamentally, (i am aware that Nietzsche attacked Prus- sians in a way which was really complimentary in their view and that Germans verbally often repudiated him. I 39 UNIVERSE One VI §49h think however that in view of the psychological principle shown in §155, it is reasonably correct to say that Nietzsche expressed German general views :- they being chaotic and selfish. I also recognize that Nietzsche was tremendously in earnest, and was actually likeable in many ways on that account; and that he was a victim of his time, and hence deserving of much approving pity by really intelligent per- sons. As we saw in the case of the Kaiser (§25c), if we take an ultimate One view of Nietzsche, he was completely con- sistent and beautiful. I am however restricting my remarks about Nietzsche to what he actually wrote ; and that was a violently emphatic dualism and hence perceptibly insanely incoherent.) But now that the war has occurred, I judge that any extended proof of German unsoundness in principles, due to too much emphasis on detail or the Many, is no long- er needed — just those very general remarks about German monism being all that is needed to call attention to the facts. Those remarks show, what will probably be accepted as the historical fact, that the Germans did not as a rule grasp any real meaning of the One, or couldn't generalize well (and hence talked loudly and sentimentally of being monists because essentially they were so far from being such; for the psychology of that see §155) ; although they were very industrious and prolific with details of all kinds. That detail work they did well, and it is of great value. From the point of view of their own best interest, they did that detail work too well, becoming unbalanced in it (cf. §149). f. Consequently, although monism is thus a somewhat spoiled word, and gives conventional misleading indications, it may, if stripped of those conventional accretions, serve as a poor name for what we have observed to be the truth — subject to another defect to be mentioned in par. i. For it is an observable fact that Occidentals have acquired the ten- dency to consider the One, or a unified God, to be the re- ality' or truth whenever there arises any definite question as to what is real." That seems to be the result of several centuries of a religion that in usual practice tended to be rather monotheistic (or without a center," or formally not anthropocentric) if it were explicitly pinned down to definite statement (and Occidentals formulated such a religion be- cause they appreciably had greater mental or general vigor than the Orientals, and that in turn had many causes, climate being the verbally final one — Index, 'Climate"). E. g., the ignorant Catholic layman substantially has five coordinate Gods (Christ, God the Father, Holy Ghost, Vir- gin Mary, and a null-God, the Devil), and the Protestant Trinitarian usually substantially has four Gods. (As people lose in mental vigor the number of their Gods increases, that being merely truistic with inability to see the relationships that give unity ; hence it is another truism that the numerous Catholic Gods appeal to the ignorant who can t or won t think for themselves.) But if either layman is pinned down to an explicit statement he will verbally assert one God, in spite of the glaring fact that the assertion contradicts his ritualistic practices. But in spite of those practical vagaries — they are emotional or ritualistic (§167d) survivals of that ancient day when men were too weak mentally to see and express considerable unifications, — whenever a question of formal speech or explicit logic comes up, the Occidental has become accustomed to asserting a unified universe or God, and as a result our whole language informally permeated (cf. par. j for actual practice) by the implication that the One is "real" or "true," or that monism or its theological synonym monotheism is the truth. And to repeat, that mono- theistic "religion" did not absolutely "cause" Occidentals to progress ahead of Orientals ; the Occidental progressed because he was able (for reasons we implicitly see in numer- ous places below) to get a wider grasp of the connections of the Many. He stated that grasp as monotheism, and that religious expression in turn reacted as a cause that widened the grasp, and so on in infinite regress. g. There remain those people who emphasize the Many part of the Trinity — substantially saying that the Many is most important, or is "real." The more usual name for them is pluralists, meaning finite pluralists. A name nearly as common is realists. Probably most people who are said to have "scientific" tendencies are what are popularly called commonsense realists; i. e., without much investigation they take as being "real" what the theologians call the things of this world. We have seen that the Many is form- ally or logically true ; hence, those names for truth may serve as poor ones except that we have to be explicitly infinite pluralists (a verbal self-contradiction of course — needed on account of the fact that the Occidental names things as stated in the last paragraph ; see also §24d). How- ever, we see better names in par. i. There is one special objection to calling the Many real, and the One ar- bitrary. We are in the habit of calling the One real, and to call the Many always real turns our customary language topsy-turvy (and fundamentally is perhaps the most import- ant, theoretically superficial but intensely practical, cause of the warfare between science and theology — which is hence seen to be mostly verbal and unessential; and science was under an obligation to show that an advantage accrued in the long run from such verbal innovation, and science neither recognized nor met the obligation, although^ there is an ad- vantage, as indicated in footnote 100c). -That turning of language topsy-turvy can be validly done (§51, etc.); but it is rather confusing. We shall see (§§91, 84, 93,etc.)how Reynolds in his scientific theory correctly Called the Many- real ; he got matter as being holes in the ether, the holes traveling when matter moved," and other weird verbal results, in an elaborately upside-down language. The Many, or an infinite pluralism, is real or true; but if we steadily verbally consider it so, we have to construct an upside-down language in which to state it. h. There is one variety of person (other than the ag- nostic), unwarrantedly usually called a scientist, who is a pseudo-species of realist or pluralist that logically departs wholly from the truth. He is the materialist. He starts with what he considers an exact, sharp This, and he keeps on saying desperately This\ Thisz Thiss Thist Thiss but holds in effect that no One is achievable. Usually he does not explicitly assert that no One is ever synthesized ; in practice he tends to be vociferous that there is no PROOF ' that we can ever sum up his scientific" string of Thisi 23466 etc into any meaning. He excitedly overlooks the fact (and it is an example of the principle that man can not make a real error) that his very vociferousness is a violent dogmatic assertion that Tkisi 2 3 etc. = Null- Meaning, which logically is precisely what he has been deny- ing. However, in practice we shall take the materi- alist at his word, and say that in brief, instead of making an intelligent equation he makes a sort of formally disconnected single member of it, Thisi 2 3 etc. . and denies that there is any actual equation even while he is striving desperately to run down all the This's :- This 6 7 8 etc. — and pile them up as mountains of statistics — an attempt to put salt on the tail of the universe, so to speak. Obviously, his acts and his implicit logic contradict the folly of his outward protes- tations — although he vociferates so much that it sounds noisy just to talk about him. He views his mountains of statis- tics, which he erroneously calls science, in despair, and em- phatically denies that any complete grasp of knowledge, §49h VI One UNIVERSE 40 such as we are seeing in this book is in actual fact fairly easy, is possible. He says this book is impossible. In charac- ter, he is a pessimistic, talkative weakling. i. The defect of the three ways of calling one or another member of the Trinity the important one — reality or the "truth" — is that those who undertake to do it are usually opposed by other schools with doctrines giving a different emphasis. Then the opponents get excited, increase their emphasis, and tend to finish with each school substantially asserting that its emphatic part is its only part, and that the opposing schools are wholly wrong. Such fanatics are very entertaining, even if distressing. History, including yes- terday s newspaper, is full of their vagaries. When not ameliorated in some way, their excess tends to cumulate until it reaches the borderland of insanity as some form of megalomania, paranoia, or Nietzscheism. E.g., materialism is obviously the result of becoming so emphatic about the reali- ty or practical importance' of the Many that the other two parts are either wholly or practically denied. j. The essential characteristic of those three ways of considering some one of the three parts of the Trinity the important one, and naming it real, is that such emphasis is considered a fixed emphasis (i. e., it nominally does not change, and fall on some other part) ; so we may call such forms static logic. We can note that the average man (who is paying slight attention to logic — and that includes even professional theologians and mathematicians for the most part of their lives, and perhaps for the greater part of their professional writings) does not use any such static logic. The average man, whenever he uses any one of those three sorts of words, regards that word at the time it is used as pointing to or meaning the truth or reality. It is a dynamic logic:- the emphasis ( reality") is laid on that particular sort of word which is at the moment being used, and then changes or moves to the other kinds as they are used. And obvious- ly, the emphasis is thus in principle distributed in exactly proper proportions. Consequently, that sort of logic is the strictly valid sort (and the same sort of principle of validity is extended to the end in footnote 100c). Hence, our gen- eral equation is valid in that sense; for we have not consid- ered that one member or one symbol of it is any more real ' or important than another. And whatever word will name that sort of logic is an appropriate name. Those given above are not quite appropriate, as we may now see ; they are usually somewhat quantitatively inaccurate for us. k. But the reader can now see definitely (cf. §§25, 13) that our observation of things as they are, especially of lang- uage as it is, has showed us that all of the historical doc- trines of the truth which have had any special vitality are qualitatively substantially right. All the great religions have been substantially right when considered apart from the theological perversions. All those valid doctrines were obviously conscious" or intellectual attempts to state a unity already dimly perceived by people (§170j), and the inevitable result was an over-emphasis somewhere in them (§155). Poor emphasis does not make a statement wrong" qualitatively ; but it does make it quite liable to be misin- terpreted (even by the author of it — which is why we may often properly assert that we do not think that some writer knew what he said or meant), as it is more or less quantita- tively inaccurate. (And then science came along and at- tempted, usefully and properly, to correct such doctrines quantitatively by measuring. Some scientists in turn so vio- lently emphasized their correction as to become materialists — thus making a religion, but one of the null sort.) So it is glaringly obvious that the simple solution of the riddle of the universe is that the man in the street uses valid logic, and there never was any riddle about it. There is nothing strange about the fact that the average man has always been qualitatively right (even if somewhat inarticu- tately so) : as a rapid proof that he has been, we may note the truism that if that average man had not been right the race would have died out long ago. And cows and birds use valid logic so far as they need it for their environ- ment — which is far enough to use One ejaculations. The overtalkative people — philosophers, scientists, priests, poets, and other varieties of persons who, being more or less biologi- cal sports and unbalanced (§159), write books — became verb- ally self-conscious and hence rattled, and manufactured "riddles" and "mysteries" — even for themselves — where there were none. But somebody had to do it thus more or less wrong, by that ultimate method of trial and error, in order to develop the highly useful and sure language tool we now have. 1. Consequently, as the valid logic is such a common- place" affair, there are a number of common and familiar names which conventionally apply to it. ' Valid is one; dynamic" another. We have seen that ultimately all things join together as identical; and we have seen that the em- phasis on the three parts of the Trinity is identical in valid logic; hence, we may call it the logic of identity. (Classic logic is obviously logic of non-identity, as each premise is nominally distinct and different.) And since our valid logic is used by the average man it may conventionally be called commonsense logic, or simply commonsense — or common logic, or everyday logic, or intelligible logic. m. And the reader, finally, may like to know when and where this logic made its appearance in literature. Of course, as a truism, it has implicitly been used in all intelli- gible writings that came to correct conclusions which were stated with fairly balanced emphasis. / have not invented it. It is simply the commonsense" that people so often mention. I am merely pointing it out and describing it. The prehistoric men who invented language invented it, ap- parently half-consciously and without formulating specifica- tions. The whole universe acted on them to cause them to invent it — in ways we implicitly see in Part Three. n. The valid logic has explicitly been used by a number of men in forms that were pretty definite. Christ was very obviously somewhat consciously using valid logic (§162e). So far as I can judge, his reported utterances in the Bible have been somewhat falsified (perhaps both unintentionally and intentionally) ; but they still show that Christ recog- nized valid logic and was deliberately using it. That was a stupendous feat in his day, and indicated his remarkable balance or great character (XVIII, §167b). Any fairly in- telligent and honest person ought to be able to do it now. o. For his age, Christ was reasonably definite in his use and indication of the valid logic. So far as I am aware, the next man to become more definite was Buckle, in his essay, "Mill on Liberty." Buckle attributed the ideas to Mill] but in my opinion Mill is largely innocent of them. The next person I know of is Dewey; his "Psychology," writ- ten over thirty years ago, was more definite than Buckle, and his later works are steadily more so. Dewey has often been "accused" by classic logicians of using circular logic, which was precisely what he was doing, and doing validly, and with rather good technique. Dewey, as far as I can judge, was the founder of the present and valid, school of psychology, named behavoristic psychology. That name ob- viously means dynamic — and such psychology is of course in general agreement with valid dynamic logic. I use that psychology in this book (XVII), rewriting it in simpler form and eliminating its overstock of technical names. And it 41 UNIVERSE One VI §49t is shown repeatedly below, that all other valid knowledge, like valid psychology, is "dynamic." p. James gave the name pragmatism to substantially the same logic — but bestowed the name before he worked out the technical details very well. There are technical defects in the expression of pragmatism — which do not, how- ever, warrant explicit consideration in this condensed book. The leading American philosophers, headed by Dewey, have corrected the substantial ones ; and some of those philosoph- ers have repudiated the name pragmatist along with the re- pudiation of James s errors, and call themselves neo-realists. (So far as I can find, living philosophers outside America are scarcely out of the amateur class.) And David Starr Jordan independently, and before James and the neo- realists did so, worked out the valid logic in "The Stability of Truth. Alfred Sidgwick has, with somewhat less defi- niteness, the same valid logic in his book, "The Use of Words in Reasoning. " Stallo rather definitely implied it in his Theories and Concepts of Modern Physics," which was explicitly perhaps too destructive. And Karl Pearson, in Grammar of Science, nearly thirty years ago explicitly and emphatically made for science the distinction between Many words and One words under the respective names per- ceptions and conceptions, and went so far as to deduce from that distinction the principle that mass varies with velocity : that deduction, as Pearson showed, was simply a correct interpretation of Newton's laws (§88). Pearson's book is now scientifically accepted almost as commonplace ; but it was novel when published, and I think was, in spite of its grave defect, one of the five or six first-class books on physi- cal science of the last century. It contains a bad defect which has marred Pearson s later work :- it omits explicit naming and consideration of relationship words, and that perhaps technically comes close to making Pearson a materi- alist. What seems to have been the actual difficulty is that Pearson tends to be a mathematician ; and as mathematic- ians write relationship words as symbols +. =, X, different from ordinary words, therefore he more or less unconsciously took it for granted that no ordinary words were needed for or about relationships: so he omitted them. As a truistic con- sequence, his book was not intelligible to non-mathematicians (it is readily intelligible when the omission is supplied); also, the person trained in orthodox mathematics could more or less understand the book, but as he himself did not ex- plicitly know the language trick with reference to the rela- tionship symbols, he could not clearly express what he had understood. This paragraph of course simply states my judgments. There is no space to show the historical evidence for such quantitative matters, and my guesses will probably be disagreed with by some. And nearly surely there are other historical instances of fairly definite use of valid logic which have not come to my attention. There are not likely to be any very substantial uses of it which I have overlooked ; for such use would have been by a person of such unusually strong character that he would not be the sort that is overlooked. For further remarks on the charac- ter of men who could use the valid logic, see §167b. q. Probably it is safer never to use for very long any particular name for the valid way of expressing the truth. The way itself has an indefinite number of possible variations (§68, etc.). If we adopt a fairly fixed name for valid logic, some soft minded person might take it to refer to a fixed system — and thus be a word idolater. But there is the graver danger that the intellectual exploiters will prompt- ly grab any definite name for it, and capitalize it for their benefit. The exploiting capitalization of the word Christi- anity" is so pernicious and generally prevalent that many people are becoming doubtful whether they wish to be named Christians. Democrat will probably be the next word exploited on a large scale ; the demagogs have already been watering the stock of that word generously, and as this book is likely to make it definitely no longer respectable to be an aristocrat, probably all the intellectual bunco men and their soft minded followers will scramble even more to steal the now better trademark democrat. r. The common, untechnical, everyday name of the truth set forth by valid logic — other than democracy, which applies particularly to people — is idealism. Hopkins, in his Dartmouth inaugural address, names the common views of that truth (he expressing them implicitly in valid logic) :- constructive idealism. That name gives as much descript- ive information as to what is truth as any I can think of. It is somewhat obviously a verbally self-contradictory name, meaning an idealism or unified One or religion, definitely expressed mechanically (so that it will be applied). s. In the process of giving a large choice of names fairly suitable for the valid logic, so that the very number discour- ages exploitation of the name, I have tried to make clear the complete meaning of the valid logic, and to attach it so strongly to all the historical knowledge and well established emotions possessed by the reader that that essential part will be easily remembered. I of course would not have used the space discussing the choice of merely a name : one line would have sufficed for a name and nothing else. There has further appeared implicitly the answer to What's in a name? The answer is :- history — meaning mental connections or associations, or unification, and emotions, so that appropriate action readily results where there is much history — ;or advertising — and hence habit attached. So it obviously is an advantage to have a familiar, common name, even if the exploiters do capitalize it, stealing its trademark value. We have to balance — compromise — be- tween having a name that automatically arouses emotion, and having one that is not so very automatic as to make it worth the exploiters' efforts to steal. But that answer to What's in a name?' includes what the name points to; the mere name is a little ink, or sound. t. We have now seen in a little intelligible detail that everyone with commonsense has previously understood the essentials of this book. For I am simply writing out the explicit details of what for centuries has been recognized as such commonsense. We have seen that the general argu- ment of the book has been rather definitely stated numbers of times in the past. Hence, because such knowledge is so old, it is rather obvious in theory, even without observing the actual facts, that a normal five or six year old child can un- derstand the book — and even more so that an intelligent adult can: that the adult is quite competent to grasp all essen- tials of the book. But there is another side to all that, which other aspect shows some important conclusions :- The reader may occasionally find himself struggling to grasp something which is written in the book ; and so would nat- urally feel resentful if it were held that a six-year-old could understand what he himself finds so difficult. But those difficult details are the Many, and of course probably would not be grasped by the child — and are not essential. The es- sential parts are the One conclusions — the seeing that ulti- mately things are related, and work together. I am forced to state those Many details from my point of view; and all readers occupy other points of view, so that those details are more or less unfamiliar to them, and hence "hard." Of course the reader finds it hard at times to "grasp" things from my point of view. Also, as those details are in infinite regress, very shortly I find it extremely difficult for me §49t VI One UNIVERSE 42 myself to grasp the series far out. The better the reader is as an observer and thinker (a "thinker" is an observer of the relationships of his "observations"), the more emphatically will he be conscious that he is not grasping all the Many de- tails as / see them — is not getting the detailed significance of what I say. But, to repeat, those details are not essential; they are the Many and are ultimately arbitrary. The reader who is a good observer will substitute his own details for mine. If the circumstances were reversed, and the six -year-old were the writer and I the reader, the same principle would hold :- I would be forced to see (if I were a reasonably good observer) that the child expressed details that ran on to infinity, and that I couldn't grasp" them or understand them as well as he did. Considered from that aspect (of details) the child would be "mystic" to me, and hence deserving of the highest wonder and awe from me. Or, speaking rigorously and more definitely, I could learn from the child. Yet at the same time I could readily grasp the One conclusions of the child, just as the child can grasp any of the essential conclusions of this book if I state them in words he knows (it is possible to do that for the average child). So obviously, all of that is proof of two im- portant practical points:- (l) The definitely observable facts about so abstract a thing as logic or words show that other people are really deserving of our wonder and respect for their capacities and ultimate dignity (or even "divinity") and lovableness; or those facts show rigorously that we can learn from anyone, but need not be essentially troubled or lowered if somebody knows more details about a certain thing than we do — for in nearly every subject that state of affairs does exist. (2) Those facts further rigorously show the error of the frequently encountered erudite person who prides himself upon the possession of some special knowledge or intricately complex knowledge of some sort of details. Any knowledge" which is so complex that it can't be ex- plained to a child well enough for him to get the essential meaning of it, is either unfinished and in that degree unin- telligible to its erudite possessor, or else is wrong in some de- gree and not knowledge — simply isn't so. When such knowledge is also concealed from the average person, as in secret diplomacy," it has the same defective character, and in addition the concealment is undemocratic and immoral (§§167-9), and its possessors deserving of contempt and scorn — instead of envy and an idle curiosity, as was the case in the crude and aristocratic childhood of the race. We shall from time to time see more familiar proof and ex- pression of this paragraph. I have here simply given the general outline from both the One point of view and the Many point of view, of what the reader can "understand," or has need to; and of what that implies. CHAPTER VII. Statement and proof of valid logic from additional points of view. §50. a. In this section valid logic is briefly but rigor- ously demonstrated by using the principle of incommensura- bility (or commensurability). Two "quantities" or "num- bers" or units of the Many, or two things, are said to be commensurable when there is some third quantity of the same kind (another thing), called the common measure, which is exactly contained a definite or whole number of times in each. Two quantities are orthodoxly said to be incommensurable when they have no common measure. E. g., the diameter of a circle is incommensurable with the circumference; i. e., if the diameter is 1 unit long, the circumference is 3. 1415... units long— meaning that no number will exactly express the circumference. (Obviously, that orthodox definition agrees with the argument of this book, and does not consider and °° "numbers.") The "number" 3. 1415... or ir is said to be an incommensurable number — meaning that it is not act- ually a number, as it ultimately can not be positively ex- pressed. b. I shall make some digressive comment in this para- graph, anticipating the conclusion we are to derive, but anticipating it in a not very intelligible form. If the diameter of a circle is a line having a definite length, then it can be conceived, or considered to exist" (i. e. , to assert that there is a diameter is not a self-contradiction A=A and A is nol=A ; specifically, is not Line=Definite length or Line, and Line is not=^Definite length or Line), and its repre- sentation can be "drawn" as a line" on paper. There- fore, if there is a diameter, then it is glaringly obvious that there is not any such thing as a circle or circumference ac- cording to orthodox mathematics — for the circumference is not definite and hence not a line — or can t exist as anything. A circle is thus conventionally inconceivable, for if we have a circle it can not have a diameter, and vice versa. Similarly, by orthodox mathematics it is absolutely inconceivable that a square have a diagonal, an equilateral triangle an altitude, etc. Orthodox mathematics itself asserts in effect that it is irrational — i. e., nonsensical — to say that a circle may exist, when it says v is irrational. Hence, by following the same argument we demolish all orthodox geometry and related mathematical doctrines. In brief, classic logic, as used in geometry, definitely gives nonsense. The immediate conclusion from that reductio ad absurdum (it is somewhat difficult to see clearly to the conclusion here, as the reductio is naturally negative in form), is that there is no exact science. If we do start with the absurd assumption that a line is ever in any Many sense something absolutely exact, then we get into those orthodox difficulties:- briefly summed, that there is no geometry possible. Or, more remotefy, we see that the Many members of our equation, That...Y* This..., and M(varying with)L 2 T~ 2 , necessarily assert the infinite regress even in geometry. And it can also be seen further that a consistent geometry is dependent upon the ex- plicit solution of the One and Many, and that another way of viewing the orthodox difficulty above is to note that "line" (and similarly point, surface, solid, etc.) is a name containing considerable relationship meaning — is often practically a re- lationship noun, or is "abstract"' — which must in any valid logic be distinguished from Many words. To separate out such relationship terms is equivalent to rewriting geometry and its allied subjects, and the several volumes of that is omitted from this book at this point. Orthodox geometry is substantially valid ; it is merely vague and inaccurate and verbally inconsistent (cf. §§60-3). The reader need not feel that I have destroyed anything substantial; but in just one paragraph he has seen that he is warranted in being somewhat unimpressed when a mathematician thus rhapso- dizes :- Coterminous with space and coeval with time is the kingdom of mathematics ; within this range her dominion is supreme; otherwise than according to her order nothing can exist." So-called hard-headed scientists used to listen to that sort of thing soberly. Now it is more kindly to omit the name of the man I just quoted, as he is still alive. c. We may generalize the fact that the diameter is in- commensurable with the circumference into this proposition :- any perimeter is incommensurable with its average diameter. I have not been able to find any published proof of that proposition. It is obviously to me true, simply as a truism involving the solution of the One and Many. If it is not thus obviously true to the reader, or obviously true as being 43 UNIVERSE One VII §SOh a perfect analogy (§94g) to the conventional special case of the circle, then this whole book furnishes the proof, and the further proposition which I show in this section works back- wards to establish the foregoing general proposition. d. It therefore follows as a truism, that if there were any fixed or exact or constant parts of the universe, it would be absolutely impossible for them to join with the other parts and form a body or a universe that had a perimeter. And that truism holds vice versa :- that if there is any real, connected, mutually-working-together universe, then it is absolutely impossible that it should be composed of exact, definite, constant parts of any given finite size or sizes (for such would give impossible definitely-measurable diameters). e. That last paragraph is the verbal expression of validly rigorous mathematical proof of the truth of this whole book or argument, with respect to its general consistency. Or ex- plicitlj'j it is rigorous proof of the consistency or formal truth of our general equation, and hence a proof of the erroneousness of all equatious of whatever sort which fail to conform in principle with that general one. And that proof is perfectly reversible; i. e., it itself works vice versa as was seen ; also, if the proposition in par. c is accepted, par. d proves the book; and if not now accepted, the book proves the proposition. And obviously, that is a general example of the principle that valid logic is circular; a formal proof of that principle is this :- all expression of proof if valid is re- ducible to the truism A=A, and it is immaterial which A of the two A's comes first, as formally or logically they are identical (§§35, 58j). Hence, if there is any rule" that will not work both ways, the rule is not a rule or prin- ciple that is subject to any proof, but is simply a quantitative guess, subject only to temporary inexact verification by meas- urement. Therefore, obviously, as a general principle, no quantitative fact — no proposition which includes in itself any particular time and space (as contrasted with our general L and T, that are relationship words that may be applied to any particular units of the Many) — is susceptible to any such thing as expression of proof; it is subject only to direct obser- vation, or what I called "real" proof (§35). Or, we can put it at once into scientific terms :- no so-called cyclic pro- cess, short of a cycle including the total universe (in which L and T are not particular measures) is perfectly reversible (Index, "Cycle"). Or, more specifically, no machine which exists or can be made, short of the total universe, is perfectly reversible. I. e., any well-designed machine will (l) per- form pretty nearly the same operation or cycle after making one "revolution" (such as the earth's rotating daily in nearly the same time) ; and may (2) run backwards in revolutions or cycles that more or less approximate the cycles in the ahead direction (in some ordinary machines the approxima- tion is so remote that we briefly say that they won t run backwards, in the same way we say the Kaiser was wrong; §25). But in no case, short of the total universe, will that repetition of a "cycle" ever be an exact repetition (and ingen- eral, repetition includes reversal; see Index, "Direction"). Part Two proves that general principle in useful detail. f. We could go on from that point of view and consist- ently completely describe the universe. The orthodox point of view of the science called heat would be the next step. Or we could at once shift that principle of cycles to ethics and show that a workable or moral life was ultimately or as a One a perfectly balanced cycle (i. e., reversible cycle, in which the "other fellow" had a fair deal or reaction) of vari- ous acts', which cyclic balance is commonly named temperance. In a really unified knowledge, obviously, as a truism, we can start from any point of view and consistently describe the universe ; I mention those two large extensions of the present point of view as an example of that principle. The practical need of having an end to this particular book ob- viously precludes my ever going on to all the implied details — of ever continuing explicitly to name the dots of That...yi This... — or even of pointing out that possibility often. g. In this paragraph I summarize the general proof of the argument of the book, by the use of incommensurables. It is so brief as to be hard to follow. The fact that Many units can not be bounded by a definite or exactly com- mensurate perimeter or One obviously shows that the One and the Many are absolutely irreconcilable in their formal contradictoriness. If Ave say that there is really and truly a One, then it is, by our everyday language agreements, formally or logically impossible to say that there is simultaneously a real Many. And we can see at once that in general there are two immediately applicable ways of reconciling that con- tradiction:- (l) We can say that the Many is absolutely infinite, and as such is absolutely true at the same time that the One is absolutely true {but that changes our everyday language agreements, as we shall see). That is what we do say, in our valid logic, in the formal way of reconciling the contradiction (i. e., we formally say X,T _ °°). For then obviously we can, in the absolutely infinitely small units of that infinite Many, which are really absolute zero, find a common measure that mil serve as a complete measure for the otherwise incommensurable One. Logically, that way is consistent, and gives us our zero-infinity logical rule. But our everyday language is constructed on a formal implication that the One is real, and that the infinite Many" is not 'real," and hence is a verbal contradiction (cf. footnote 100c). By such verbal agreements, infinite really" means continuous, and not a measure." (2) But we can use that formal reconcilement, and at the same time use the practical reconcilement of stating and showing that there is no exact science — that we can not be exact or accurate about the Many, — that when we do make a real or definite perimeter or One, then the Many or that perimeter s diame- ter actually is not exactly commensurate in an} - measure that we are verbally able to set down in full. In short, we drop the £T _co and use L T -2 , and say that practically there is an infinite regress, which we formally merely imply by writ- ing t as 8 . 1415..., or as This... . And that practical way of handling the difficulty clearly agrees with the obvious fact that we can and do conceive geometrical circles, and have no difficulty in representing them approximately. h. That rigorous and concise proof of the argument is so brief that it is scarcely susceptible of being more than superficially comprehended at first. Probably a million cor- ollaries — implications — could be dug out of it with but casual vision. Hence, in theory, and also according to my actual experience in using it on some of the ablest thinkers, it slightly dazes the reader at first. You can use it to gauge your own mental capacity :- If on first reading it you get a vague glimmer of what I am talking about, your mental pow- er is as great as anybody s in the matter of soundness, integ- rity, or keenness (although that will not perceptibly be a measure of the endurance of that strength — the ability to keep on using such a strong mind until you get, and not merely aspire to, whatever you are after). If you want to compare your mental strength with mine, you are informed that I had to dig at that proposition for about two years be- fore I got what might honestly be called a definite glimmer — you probably have a keener mind than mine, but I have considerable endurance. Incidentally, if anybody is fond of brevity, and thinks that anything which is true can be said very briefly, then here, in 29 words, is not only a statement of this whole book, but also a rigorous proof of the §50h VII One UNIVERSE a truth of it and of a unification of all knowledge :- Any perimeter is incommensurable with its average diameter. Hence, if there are exact Jlnite parts it is impossible for that Many to combine into a One; and vice versa. With further reference to brevity, the title of the book, Universe, is a condensation of the book into one word. The defect of brevity is that it is not positive and intelligible. When we say 'Brevity is the soul of wit," it is really meant that the essential of language is given by Meaning — that brevity, in the ultimate, is the One word ; and that it, like humor, gives us a mild rebirth (§§162a, 84b) — that the equation is, Humor... ^Brevity, or Wit, or the One. In that One sense obviously brevity positively expresses nothing, but is relig- ion. We must have a temperate amount of That. . . X This. . . (of details) before we can expect to be understood. §51. a. I shall now briefly summarize and prove all the theory of language, using a somewhat different point of view that gives some additional fine points, and also shows that language itself is so flexible or changing or incapable of being put into any absolutely rigid form or logic that it is practically imperative that each person who is going to un- derstand and use a valid logic achieve that understanding and skill by experience of his own — getting in the end a valid logic (a style) which although thus valid is formally a little different from that used by any other person. Even the expres- sion of the most rigorous mathematics can not validly be put into an absolutely fixed mould or form : always judgment is needed. Hence, we need to look at some of the fine points of language ; and truistically the argument must be- come complicated, and will for that reason require attention if it is to be understood. This section is very hard reading. If the reader is not an expert at mathematics, science, or logic, or desirous of being one, he can perhaps most satisfac- torily and usefully to himself merely scan the pages of it, taking only what strikes his interest. b. We made an agreement as to what words do, and the formal agreement that we shall not say A=A and simul- taneously A is not=A. We then observed, as a formal basis of all language — or language mechanics, — that there are three more or less distinct forms of words, which are analo- gous to the three parts of the Trinity. The fundamental truism concerning those three forms omits the use of one form (the One), and is this:- if we are going to talk about parts of the whole (as we tacitly agree to do when we use language of any sort), then we must have (l) the names of those parts (God the Sons), which must, as the truism, then be joined into the whole [which One need not be explicitly named] by (2) symbols or names which do join them togeth- er (relationship words, or God the Holy Ghost). So far as logical necessities of language go, we could verbally stop there, with just those two forms of words — (l) and (2), — and understand the unified meaning, but not say Meaning. And we could consider that formally there were two reacting parts (i. e., the Many words with the relationship words) — a verbal dualism fundamental to all speech that is positive, all doctrines, all machines. The reader may note that I have shifted view point, and instead of taking a con- crete view of the actual Many, with its parts reacting among themselves, I am looking at language directly, and consider- ing what I call the reaction on each other of its two sorts of words that have been mentioned. I therefore truistically consider that there is a verbal dualism (l)X(2), in place of the That. . . X This. . . heretofore expressed (for explicit con- sideration of that new form, see footnote h). That shift of point of view of itself shows how very flexible our language is, and how, if we formally omit some part, other words will imply it (I have omitted mentioning any but one formal unit of the Many:- naming only (l)). c. So we have (2) verbally reacting with (l). But, to obtain the previously mentioned convenience in jogging our memories and attention (and probably as a vestige of prim- eval language, in which there existed only One words, while and before men were inventing the other parts of the lang- uage machine), we all actually do go on to a tautological process, and deliberately repeat what the primary necessity in formal speech would and does do of itself; i. e., we use (S) words or symbols which again assert — which now explic- itly name — the whole or One which the other two forms have already said or positively expressed, — these third, tautologi- cal words being God the Father. It is that pure tautology of (in a way) deliberately saying twice everything we have to say, that has been the final "mystery" that for ages puzzled the seers. We knew so well what that mystery was that we exuberantly said it twice — which was most illogical by the classical logic, which frowns so on exuberance that it has almost killed our quite proper and correct commonsense in- stinct to use two or a dozen negatives when we are sure we mean no, and has produced the monstrosity, May I not?" d. We may summarize what we have:- The form (i) is parts of the verbally -split universe; the form (2) joins those verbal splittings together again into the whole; the form (S) tautologically names and thus repeats the whole. Or, (l) used in connection with (2) is the whole or meaning, and is also tautologically verbally equivalent to (S). We may write that (l)X(2)=(S). e. Obviously, (l) and (3) are logically or formally self- contradictory. Also, (i) asserts a splitting, and (2) asserts a rejoining, and those two ideas are in reality or meaning ab- solutely self-contradictory ; or (l) and (2) produce or assert nullity or zero in the sense that the things asserted by (l) are not really split off or separated. Again it can be noted that I am taking a different point of view, by explic- itly considering as a form itself the contradiction introduced by {S), and considering contradictions in both form and meaning. As a matter of fact, we have started on an infinite regress of logic itself (see P a r. h). It should also be definitely noted that when I said the things asserted by (l) are not really split off or separated,' we are using real merely as a tacit verbal agreement:- for we could just as well have said that the One (3) was not really connected. And it can again (see §49g, etc.) be seen directly that by thus reversing the agreement we produce no real changes in the conclusions which we are going to derive, but merely reverse language or the dictionary. f. It is also obvious that (l) and (2) are formally totally different or contradictory, being the two sorts of words which are formally needed together to make an explicit or positively expressed whole. Hence, when we use them together, as (l)X(2), we have the fundamental lingual requirement of the truism in par. b:- that we split the universe and then join it. So that formal contradiction must inhere to make the logic valid, as it balances and cancels the formal contra- diction we started with. That finishes, from the present point of view, with formal agreements (but see par. h for extension of the point of view). g. We then have the disagreements in meanings — (l) X (2) being made up of parts, and (s) being really a whole. But {1)X(2) is only formally made up of parts, because the explicit meaning contradiction inheres only in (l), and is re- moved or really contradicted by the (2). Consequently, though there is a contradiction in meaning of the words we use, the contradiction is destroyed as stated, and is not real in language as a whole. Consequently, the whole equation *s UNIVERSE One VII §52e (i)X (#)=( or any fixed "last number." 49 UNIVERSE One VIII §59a f. As the mathematicians actually imply the space be- tween lines as being what it is the numbers name, regardless of whether they say abstractly that a line — a zero part — is a number, we need not use time and attention showing and seeing in mathematically abstract language that °° or Z'l' is also, by such language, truistically not a number. It is broadly obvious that it could readily be done, by considering that there is positively nothing which may be used as a standard showing how many numbers there are in the uni- verse, or in our model of it (also, see par. d). g. When we explicitly consider that the strip in Fig. 54-c is made into a ring, then obviously ZI and Z'l' are co- incident as ZI, the line-joint — butt-joint — of the ring; or arid «> are coincident, and the joint may be called the zero- infinity line. Clearly, therefore, it makes no difference in which direction we name or number when we sum up and be- gin dealing with the One; or, in an absolute sense "down" and up," etc., are identical. (That matter of direction repeatedly comes up hereafter; see especially §99b. The essential point of it is that time and space are direction,' and are arbitrary and simply disappear from the One or real meaning, just as that line which is the beginning' and the end of time and space or direction has really disappeared in our model as a zero geometrical abstraction.) Also, and °° are obviously logically identical — their lines" co- incide. If we are on the Many surface of the ring, and pass over that zero-infinity line, going in either direction, we are then on the One surface; and vice versa. I. e., if at any time in language we introduce a or an °° , or any of their equivalents, we have by so doing shifted from the Many to the One, or vice versa. h. This paragraph is of slight practical importance, and hence is condensed so much as to be hard to see. The relationship words are obviously as a sum total reducible to L and T; i. e., the 180 twist is itself actually a change in direction (i. e., in space during a time). That is nothing but an implication of our second member, M(varying with) L 2 r -2 :- for that member says that M or the Many changes as we pass over space during time. Consequently, it is ob- vious that if we speak of that time or space as being a Many part of the whole One (if we make a relationship word into a Many word or into a One word), that change implies that we have tacitly assumed the whole of the twist before we thus change the form, and hence have formally passed over the zero-infinity line by assumption. In short, it introduces a or an =° , and if that is not provided for by the context, a logical contradiction results. Hence, we may validly say that we need only one rule in order to be absolutely consist- ent logically :- do not introduce a or an °° without balanc- ing the formal contradiction introduced (cf. §43). i. The nature of the error of confusing relationship words with others may be observed directly from our ring:- Suppose that it be held, hanging down, with the One or A surface up. Then the upper loop of the ring may be delib- erately turned over on the finger (through 180 ) so that loc- ally at the top the Many or B surface is now up. We may call that process :- 'going over the edge of the ring. Sometimes that additional twist put in the top loop of the act- ual paper ring will simply 'run' itself out through the bottom loop — traveling down through each side of the ring and 'mutually cancelling' itself at the bottom. But unless the paper is rather elastic, that local turn-over at the top puts in a twist of 180° on one side of the upper loop of the ring, and a twist of 180° in the opposite sense on the other side — a total additional twist for the whole ring of 360° ("arithmeti- cally" it is 360°). And it is directly observable that the whole effect, relative to getting onto the opposite surface (getting from the One to the Many), is equivalent to sliding the whole ring around once (as in §57a), bringing in the original 180° relationship; for sliding the whole ring around is 360° (or corresponds to the universe or » — or to and 0°). Now, going over the edge of the ring, to get from one sort of words to another, is obviously equivalent to using a relationship word as a Many word, or as a One word (or, to put it negatively :- going over the edge ignores relationship). And doing so, as we have seen, is equivalent logically to introducing the whole relationship or 180 twist — or to pass- ing once over the zero-infinity line. Hence, it is directly obvious that all relationship is identical — is that twist. j. It is further obvious from our ring that all valid logic is circular logic — meaning specifically that it is continuous logic, or expression that in the end comes back and closes with itself — checks up, verifies with itself, concludes with the truisms from which it formally started. We may see directly from the model that the reason for all that is that all valid reasoning must have a complete statement of relationship, or a relationship which goes all around the ring in order to go continuously from the One to the Many, or vice versa. Only such a complete relationship is explicitly a relationship of identity (as we saw, from a somewhat dif- ferent point of view, in §57b). If we go over the edge of the ring we clearly have not explicitly put in a complete rela- tionship — which was in the last paragraph emphasized by the concrete fact that a two-sided contradictory twist was thus put into the ring. If we go over the edge, we say A=A (that A is, say, a Many unit), and then simultaneously (on the other surface) we say A is not=A (that A is the One) ; obviously, A i? ultimately the One, but the way to get it ex- pressed as the One is not to talk fast and loose that way, but to follow our agreements and go through all time and space, identifying it with all others of the Many — that being equivalent to sliding the ring around. Get-rich-quick schemes won't really work, even with mere words. k. All that of coiirse is rather confusing at first. The model helps to make it concrete, and gradually clears up the confusion. The actual difficulty lies in the fact that although time and space are primarily used to express relationship, we often use them as the other two sorts without noticing the differences. I merely show how the change from one form to another must be explicitly made. We can acquire such conscious skill in the use of words only gradually: for familiar affairs we instinctively have that skill, but we get confused in less familiar affairs — to the extent of agnosticism. 1. The model, besides serving to help us consciously avoid the customary confusions of the three sorts of words, gives a clear insight into the solution of What is real? or What is truth? Taking it in terms of the Trinity, we see at once that neither (l) the God the Father or One surface A, nor (2) God the Sons or Many surface B, nor yet (3) the God the Holy Ghost or relationship twist, is itself (regarded separately) the ring or reality." Nor is any combination of any two of those the ring or truth," or the universe. Obviously, only the three together are real or true. Conse- quently, the valid or dynamic logic (§49jl) which takes it that each part, as it comes up, is real, simply means that one part, if it is intelligible, implies the other two. Hence, the dynamic or everyday logic is shown to be ultimately true. §59. a. We may now see, by this model, just why there are three dimensions of space, and not some other number of dimensions. Our final conclusion is going to be this simple one :- we have devised (invented ; agreed upon — per- haps mostly unconsciously in the past) for everyday use the language with the fewest possible forms or dimensions that §S9a VIII One UNIVERSE 50 could still be positive or explicit; three-dimension space contains the fewest number of dimensions out of the infinite regress V° T ~ co that oould explicitly be so. In get- ting that conclusion we shall see that an unlimited series of other sorts of languages is possible (cf. §38a; and as indi- cated before, English, French, etc., are different lang- uages merely in having somewhat different vocabularies ; formally or logically they are the same). This investigation of the number of dimensions of space is obviously a quantita- tive one. There is no absolute necessity about using three dimensions: there is no absolute necessity that we use lang- uage, or any space. Three dimensions are necessary only if we are to talk in the easiest, shortest, or simplest way. It is a fundamental law that we do act in the path of least resistance (with ultimate accuracy :- in the path of no resistance; §§98m, 104). Consequently, acting according to that law with more or less consciousness or explicitness, everybody takes it for granted that we are going to use the simplest language. So the reader need not fear that I am going to inflict any new dimensions of space and-or time on him. I am going to show that those who try to do it, and those who try to assert the reality of other kinds of space [or time] (such as the "two" non-Euclidian spaces, and the variable space of the relativitists), are implying different languages — and are usually failing to completely formulate and use those other languages, but merely indicate implicitly their possibility. So of course, as a truism, their different sorts of space and time are not intelligible when expressed in ordinary terms of everyday language : such spaces logic- ally contradict that everyday language (assert that they be- long in other, different languages). In order really to understand our language, and use it without making verb- al puzzles for ourselves, we need to understand how to make those other, different languages. At the same time we thus protect ourselves from ever taking seriously, or being puz- zled by, the introduction into our language of such contra- dictions of it, when taken as belonging in our language, as 4-dimension space, etc., which by no means whatever ex- press any idea in our language. We are not familiar with those other languages, of course; so my description of them will truistically be a bit novel and strange — even to the mathematicians whose familiarity extends mostly to views that aren t so. Unless the reader is a professional scientist, philosopher, or mathematician, or intends to become one, he does not need to grasp especially well the details of the rest of this chapter. If he merely reads it casually he can get all that interests him. b. The model ring is, as a model, considered to be a standard universe; i. e., we use it as a universe, neglecting the remainder of the universe; it is, so to speak, abstracted from everything else, and is, in that abstract condition, for the moment, the whole universe logically. Consequently, every standard universe is obviously an abstraction. When we are talking, and using the valid dynamic logic, consider- ing each sort of word temporarily real, that reality is an abstraction — for the whole reality comes only of actually sup- plying the other two forms. Hence, we see that any use of language, or of any sort of symbol or model, involves a tacit temporary abstraction. That is equivalent merely to the quite obvious fact that we can not say everything at once. Con- sequently, we shall carry the idea abstraction, with reference to our model, to the end, and see what we get. After that, we add everything to it, and get surprising conclusions. c. We have been considering the ring to be of negligible thickness. If it has zero thickness obviously the two surfaces are coincident (as well as being continuous). If the surfaces are thus absolutely coincident, it is obviously verbally contradictory (or nonsense) to say that there are two sides. But the fact is that it is nonsense to say that there is any such thing as a geometrical surface ; for such a surface is what is left of (say) a cube when the cube is wholly removed ; obviously, nothing is left. Consequently, it is obviously sen- sible (as the cancellation of two nonsenses) to say that there is an upper surface A and a lower surface B of the ring when it is an abstract geometrical surface. Please keep those apparent trivialities slightly in mind for a moment. d. This model ring has been tacitly taken to have some breadth. The one we made was casually said to be about an inch wide (§54a). It is obvious that the 180° twist (the es- sential relationship that establishes ultimate continuity of the two surfaces) requires that the tacitly accepted breadth be warped some. Now suppose that we make the ring still more abstract than the mere geometrical surface, and thus take it to be a line, without that breadth. We may consider that line to have the surfaces A and B, and to have the 180° twist (and the line in taking that twist would obviously have no warp). It clearly is formally explicit and cancelling of zeros, to have that line with two surfaces, and hence be thus twistable' : see last paragraph. e. Therefore, we now have it, in considerable abstrac- tion, that the universe may be completely represented, in a positive way, by a point, of no dimensions, (l) moving in a line, and (2) turning or revolving so as to form a closed ring, and at the same time while describing its closed path, (3) ro- tating or twisting 180°, so that its original side A joins in formal continuity the originally opposite side B. In that somewhat abstract model, obviously we need make no real demands, or have any real necessities, as to time and space :- for the length or space of the point is zero, non-existent, or not real; the length or space of the closed path may Retaken as zero, and the time of that revolution hence zero; and then obviously as a further truism the rotation vvill require zero space and time. In short, making the closed path of no length, the ring has become a completely abstract, or zero, point — although still formally or logically a ring, and hence repre- senting formally the three parts of the Trinity. The model contains no "actual quantity" of space and time ; but it does contain the forms of space and time, as we see in the next paragraph. It is obvious that our model, and with it the formal requirements of language, is here reduced to the very "lowest terms." Any further reduction in the form will destroy formal language and give some incomplete language described in §62c. (We have already subtracted the total substance, or Many actuality— and also the One reality, in our everyday usage of considering the One "infinite", 'al- though in a Buddhistic sense of zero reality, and also obvi- ously in strict logical technicality, One reality remains.) f. (l) It is obvious that as the point moves in the zero line path it formally does one thing (i. e., that doing or moving in a line constitutes "one dimension" of "space"— really con- stitutes "one dimension" or 'one formal part' of the One, or of whole reality or the complete ring [see §581], or of be- ing, or existence). (2) When it revolves so as to close on its path and make the path continuous or the One it formally does the second thing (and that revolving constitutes one more ^dimension of space," giving now "two dimen- sions. (3) And when it rotates or twists so as to relate those hrst two contradictory forms, it does the third, and obviously last, formally necessary thing (and that is one more "dimen- sion, making finally "three dimensions"). Obvi- ously, no fewer forms will serve. Equally clearly, if any other is added we have taken at least one step on the infinite regress of possible languages (§5 lh), and we then have not our everyday language, but have a language that is at least 51 UNIVERSE One VIII §60c duplicate, and hence formally different from ours. Those three forms are the three dimensions of space" (for obvi- ously each form was a needed sort of motion" in a hence formally different aspect of space" — i. e., motion and space are formally or logically synonyms). Clearly those three constitute the lowest practical and still positive reduction of the infinite regress MLT~°°, where Mis the "thing" or that point. The whole of Part Two may be considered (al- though explicitly it is nothing of the sort) to be a description of a point moving in a closed path in that way (§§98m, 104). g. In no case in the last two paragraphs need the formal model occupy actual space," in our everyday usage of space. We have actually been using the Buddhistic 'nega- tive' form of zero-space : for a primitive or original state- ment, such a form is easier to grasp — and for that same general reason or truism, Buddhism historically preceded Christianity, its equivalent in infinite" or positive' terms, by five centuries, it taking the race that long to grow the few needed nerve connections. So we may now consider the ring (which is still our zero point) to 'depart' from that condition, and acquire some room" or space for the M (now also become actual") to move in. The only logical way to get those zeros or abstractions into positiveness, or into the other aspect of the One (the infinity aspect) is to multi- ply them by infinity. We then have a solid" ring, still indeterminate (i. e., °°) as to the measure of all the space, but containing space and time in usual meaning — though they are obviously merely the same verbal forms as before. Or, the ring now has real" length and breadth (and real but negligible thickness — see §63f for explicit consideration of thickness), and we have the usual conventional but arbi- trary space :- for obviously, in our usual convention of an infinite One, we now have in our model that represents the universe a "length" (etc.) that is infinite" (i. e., continu- ous), and the three forms occur just as before, in, or as, 3-dimension space — a truism. That is the total mystery" of the three dimensions of space. We are so in the habit of using those briefest, simplest means of talking that all parts of our language imply those three dimensions or forms. So when we speak our language, it is a contra- diction — utter verbal nonsense — to say that there is any other number of dimensions : for such an assertion says that "now another language will be talked while we still talk our ordinary one." It can be noted that as soon as I explicitly made the ring of no thickness (of two dimensions) in par. c, I abandoned our ordinary language, and was talking nonsense with reference to our language and said so (even though the language I was using is the language of plane geometry, and quite conventional). And when I reduced to zero di- mensions I was very nonsensical. So I had to balance or pair off those contradictions to our everyday language, and do it explicitly to be intelligible; and that obviously consisted of really stating our forms (which are the real three dimen- sions"), and thus actually talking of three forms of zero space — or, I reversed language into Buddhism, that being the reverse of the truism mentioned above. Hence, with those evident truisms, the foregoing proof of the exist- ence and meaning of three dimensions is quite rigorous. That proof is, I think, the hardest thing to state and under- stand, in this book. That is because it is so obvious. Or- dinarily, we simply say that we "see" that we have to use three dimensions to talk about things definitely. And that is substantially all I have said above — only I stated it in de- tail from a different point of view, so that it was possible to see definitely that the matter of dimensions was simply get- ting the fewest parts in a language machine, just as there are three parts in the "simplest" machine, the lever:- load, power, fulcrum. Also, the foregoing argument is much easier to see in §62e, where concrete examples are given of languages having other than three dimensions. §60. a. When we start to describe the universe, we take it that there is something (whatever it is) to talk about (§22). When we similarly 'assume' (i. e. , agree to invent) our ring model, obviously we in the same way, all in a lump take the three sorts of words as being definitely bound to- gether. I introduced no complications, but took the barest agreements :- a contradictory One and Many reconciled by a single or identical' relationship or invariable twist. We saw in §57b that in absolute or One meaning (taking the ring as a whole, as we must do to get any final intelligible mean- ing) that relationship between the One and the Many could be only of one sort, regardless of whether the ring was sym- metrical or asymmetrical. (That is merely a special case of the principle that the One is ineffable.) We also agreed (in §57) that we would consider the actual ring to be perfectly symmetrical, as the means of getting our ordinary language. In this section we see the formal changes in language if we regard the model as being unsymmetrical in various ways. There are an indefinite number of quantitative ways in which it can be asymmetrical, each of which gives a different./brmaZ language, although every such language means the same as a whole. Those changes in form are conventionally said to be different sorts of space" — curved" or non-Euclidian. b. We considered the ring to be symmetrical because that gave the simplest, average sort of language; i. e.,if we take any part of the ring, or unit of the Many, such as Zili— Z2I2, we may name it 2, and then — if the ring stays sym- metrical, — regardless of the relative position of 2 (regardless of how we slip the ring around when hanging over the finger and thus changing the place of 2 — regardless of where 2 is in the universe) that 2 remains formally or lingually the same ; its relationships or L and T, with respect to the whole ring stay steady, or are average all the time formally; or the de- gree of twist and warp does not change. But if the ring is not considered symmetrical that part is obviously not warped in an average way (so that it does not take a proportionally av- erage share of the whole 180 twist); consequently, if we write for 2 its full general name M(varying with)L 2 T~ 2 , the L and T of its name are always varying or varied just in mere form. The reader possibly can not yet grasp that condensed statement — can not see just what happens to language when the form of the language, or what we have called relation- ships or L and T measures of units of the Many, (l) varies all the time, or (2) departs or is varied from the average in Euclidian space, and hence, for a given non-Euclidian space, has a "steady curvature." The relativitists make L and T always vary — technically over all quantitative degrees of non-Euclidian and the average Euclidian spaces (§66). And as neither the relativitists nor non-Euclidians grasp the ulti- mate meaning of what they do to L and T there is in exist- ence considerable strange, weird, esoteric doctrine which tends to have the same hypnotically benumbing effect upon the brains of the authors and some of their hearers that the logically precisely analogous weirdly nonsensical incantations of ancient medicine men or priests had on themselves and most of their hearers. Both tend to superstition — fear of the fancied unknown. Such hypnotic deadening or fear in some degree precludes seeing things as they are, and hence prevents men from being as alive as possible. So it is of value to investigate those possible variations in language, espec- ially as doing so further shows possibilities which may be of some use. For those languages are not wrong." c. Some mathematicians substantially claim that there is no proof' ' that our ring can ever be symmetrical in any §60c VIII One UNIVERSE portion; so that if we use Many words the same words (or forms) because of such lack of proof, by the theory of proba- bilities constantly mean something else, and that therefore if we use relationship words there is no continuous identity of relationship anywhere (i. e., in any finite space and time — meaning that those mathematicians assert ignorance as to the sum total of relationship). Again such a general con- densation is possibly not quite clear to the reader. The statement is equivalent to the orthodox claim that there is no "proof" of one of Euclid's "axioms" or postulates (but ought to be, if it is used) :- Euclid defines parallel lines as straight lines which, being in the same plane and produced indefinitely in both directions, do not meet. And the postu- late, in common form, is :- through a given point not on a straight line, one straight line, and but one, can be drawn which is parallel to the given line [i give the proof of that postulate in par. i]. The mathematicians say that in the ab- sence of ' proof" of that postulate, there are two general sorts of possibilities :- (l) It can be assumed that every straight line through the point [and in the same plane, of course] will cut the other line. That gives Riemannian or "elliptic" space — Riemannian "geometry" [or really a new space language]. It is equivalent to saying that our bound- aries Z]Ir~ Z2I2 of 2' vary in such a way as regards their distance apart that the L (and T) between Z1I1 and Z2I2 at some point becomes absolutely zero — or any such word or possibility of such word as 2 disappears : we shall not exam- ine the details of the new language that results; in general, the Many word '2,' or M in M(varying with)L?T~ 2 , would vary in a way not conceived in our average language. (2) Or, it can be considered that two lines (including some angle between themselves which can contain an infinite number of other lines) can be drawn which are both ' parallel" to the given line, in that they do not meet it, so that those two lines form the limits of the infinite number of other lines lying between them that also do not cut the given line. That is Lobatchevskian or hyperbolic" space and geometry. It says that in our 2' or M represented by Z1I1-Z2I2, Z2I2 may be two intersecting lines which do not ever cut Z1I1, so that there are really an infinite number of parts or M s all of which are named 2. Well; we can make a language of that sort if we like ; again I shall not go into the details, but below we see the general implications as to such new languages. The Euclidian or ordinary geometry considers space as flat" or straight" or average (i. e., there is one set of two parallel Zl's which formally fix the 2 with a steady or fixed or straight" — i. e., undevi- ating — space, or really form) ; the other two sorts have curved space — i. e., are two languages where the forms or ways of naming depart or deviate from the average : one on either side of the average. For a somewhat technical orthodox account of such spaces see Ency. Brit.," xi, 724 to 735 (in Art. Geometry) ; or for a good popular account, see "Science History of the Universe" (New York, 1909), viii, 143-52 (in the same volume is a more technical account — pp. 230-36 — by Key ser, a leading mathematician). Those accounts are not really intelligible unless something be added to them (as we shall see). Consequently the reader need not worry if he has failed to understand the condensa- tions of them which I made in the first part of this paragraph. We shall now begin with the fundamental orthodox assertions about those curved spaces, and get at their real meaning. d. The same Art. "Geometry" (pp. 730, 733) states that there is an unreconciled controversy about space, it be- ing shown substantially (on p. 730) that space is considered (l) as the One, (2) as the Many (i. e., in the paragraph Axioms' :- a space known only from experience" — as contrasted with "a priori" or One space — is obviously a Many word), and (3) as relationship. [it therefore follows that orthodox geometry would tend to mix the three forms of space — not meeting the fundamental logical necessity of distinguishing apart the three : it does rather mix them in the article I am quoting from.] Then it is shown that a valid geometry [or what we have been calling a valid logic or language machine] is merely one that is self-consistent, regardless of what arbitrary agreements are made. And two general sorts of valid geometry are distinguished:- (l) In projective geometry any two straight lines in a plane inter- sect, and the straight lines are closed series which return into themselves, like the circumference of a circle" [i. e., a "straight" line is a string or series of points that have a closed path: that is Riemannian or elliptic geometry]. (2) "in descriptive geometry two straight lines in a plane do not necessarily intersect, and a straight line is an open series without beginning or end. Ordinary Euclid- ian geometry is a descriptive geometry : it becomes a pro- jective geometry when the so-called 'points-at-infinity' are added." [That is Lobatchevskian or hyperbolic geometry; and it is more rigorous to say instead of that, that Euclidian geometry is the average geometry that is the limit of (l) and (2) — the geometry that lies just between the two.] e. We now come to the illuminating facts regarding those orthodox sorts of geometries — still quoting from the same place :- Projective geometry is developed from two undefined fundamental ideas, namely, that of a point' and that of a 'straight line.' ' Descriptive geometry is devel- oped from two undefined fundamental ideas, namely, of points and segments. A segment is a part of a straight line, the development of which into an [unlimited] straight line can be provided for. f. It is obvious from an examination of those two orthodox beginnings of formal language or geometry," that those geometries start by taking (l) a typical One (i. e., taking a line, which is considered and more or less described as a continuous idea" or whole), and (2) a typical Many (i. e., a point). It is then obvious that the two are formally con- tradictory ; and that they are also two abstractions that imply essentially (2) zero (a point is 0), and (l) infinity (a line, as an indefinite series of points, is °°). Hence, rela- tionship terms obviously (as a truism) must be explicitly introduced in order to reconcile that formal orthodox contra- diction — which the orthodox theory does then vaguely intro- duce, as space-passed-over-during-time. But then it is obvious further, even to the orthodox theory, that in those and » fundamental ideas" there is nothing whatever posi- tive (or explicitly agreed upon) by which we may say whether space (during, or and, time) is a 'steady' term — an 'identi- cal' term. So very clearly, consistently with itself, that space is itself forced to take upon itself in addition to its rela- tionship capacity, the further capacity of an explicit or positive Many word (for obviously the formal or "fundamental" Many word "point" was not positively a. Many word, but merely an ineffable word zero). Therefore, in such orthodox geometry space (and time — time is always implied by space — §150, as I shall take for granted will be understood by the reader) takes a double meaning, and when used in our average language in one of those meanings (the Many meaning) must take on variability (for bodies or units of the Many do vary), while in the other meaning (the relationship meaning) it would be steady, or 'identical' as a form in language. The mathematicians perhaps see that in the actual, observable world space" as an M or a Many body does vary (i do not venture to say positively what, in their confusion, they do see). At any rate, as there is orthodoxly no agreement (nor 53 UNIVERSE One VIII §60i really any essential necessity) to make space in its second capacity as a relationship formally or verbally steady (except that the sum total or One is always identical, so that steady space is simpler: cf. §38a), the mathematicians let their space (including both formal meanings, so far as I can judge from what they say) vary, and as a result we have the two sorts of non-Euclidian space (in addition to the average Euclidian space lying as a limit between the two), in one of which the unit of L in a sense varies in one direction from the aver- age, and in the other sort in the opposite' direction. That of course would get them into difficulties with actual M s, which are cyclic, or vary about a mean in both direc- tions: but the mathematicians do not go on and finish formu- lating their languages, so apparently do not notice such practical difficulties. Neither do I finish those new lang- uages, as we have no present use for them; but I indicate the general results of using them — some valuable. g. There is obviously no logical reason why those two different geometries or space" should not be used if de- sired. They are self-consistent — even with space implying that duplex -meaning, one of which orthodox mathematics fails to express definitely, so that it has an unreconciled con- troversy. But there still remains one omission in the fore- going statement of those orthodox geometries (I think that orthodox mathematics vaguely supplies this one just as I do below; but that duplex-meaning of its space confuses its statements so much that it is not safe to make any definite assertion as to what it does say) :- that variation of L as yet has nothing to fix its measure in any given language or geome- try : i. e., L can be continually variable, as in relativity; or its curvature can be definite and steady for a given language. The only possible way to catch those varying languages and pin any one of them down so that we can use it positively whenever we wish to talk among ourselves and hence know that we are using at least approximately the same sort of language (are all referring to the same sort of space, that hence has approximately the same measure of curvature")) is to revert to our ordinary average Euclidian space for a basis or standard or center or verbal potential of such measure. In that Euclidian language we arbitrarily say that we will take (say) ourselves (we could take anything else, but usually do not) as a standard universe, or a unit of measure or quantity, as a sort of average, in spite of the fact that we are not all in or at the same L (which introduces minor quantitative error or inexact science). In short, the non-Euclidian space, strictly as such, has no pos- sible means of mutually indicating a quantity. And the logi- cal truisms or reasons why we must revert to Euclidian space in order actually to talk together, are these :- Euclidian space, in terms of those infinite possible formal spaces that are quantitatively different as to degree of curvature, is the space whose radius is infinity, and whose curvature is hence zero; consequently, we have a formal and » to balance with and cancel the point and °° line with which those spaces formally orthodoxly started (par. e) : the two nonsensical abstractions are cancelled into sense by two opposite non- senses, and we have ordinary space which omits including in itself the Many sense, and requires that some definite Many or quantity standard be used, there being no longer any formal possibility of using the sliding scale. Therefore, it follows that although an indefinite number of languages are validly possible in terms of, or as, non-Euclidian space, each of those languages, in order to become positive (i. e., in order to have, say, any valid right to use our average lang- uage word "curved," as they all do, although the word then in those languages has no such meaning as "curved" — that being a truism), or in order to be anything other than a form- ally valid mysticism absolutely incapable of explicit communi- cation, must be translated into Euclidian space (cf. §66). h. Because our standard quantities in Euclidian space are arbitrary, it of course follows that in an absolute sense they are not verbally communicable from one person to another. That is a mere truism. But as Euclidian space is the average of all possible actual or factual quantitative varia- tions, by using it we theoretically achieve an average quanti- tative error in understanding each other that in the long run cancels into zero. Also, by using that average space, and asserting what is the fact about it (that there can be no quantitative accuracy — no exact science), we obviously achieve absolute qualitative consistency. In short, the in- telligible complete translation of what the mathematicians mean by non-Euclidian space is this :- there is no exact science. i. It therefore follows as a truism that the reason Euclid's postulate about parallels can not be absolutely proved" in the classical logic sense (which is irrelevant any- way: cf. §85), is because it is a tacit arbitrary agreement that we shall select some part of the Many as a standard quantity. It is not a postulate, proposition, or real assump- tion at all, but our agreement (§22) to say formally that A=A, and to keep on asserting that formally A remains A or A r=L A, even while recognizing that any actual A, such as a metal bar, keeps on perceptibly changing: obviously only if we have that fixed' form A is it intelligible to say that the actual A changes. ■ It happens that Euclid s way of saying that the formal quantity is agreed not to change in- volves the term infinity. I. e., he in effect said:- parallels are the same quantity (or part of the Many) distant from each other here (at distance) and everywhere else even at infinity (at «> distance); or, A=A every -where, which is the same as saying in §22 that A=A every-time (§§150-l). As the mathematicians rather habitually use that term °° in two different senses, naturally a direct confusion arose, and it was irrelevantly held that the agreement was unprovable. But Euclid's postulate is however obviously validly provable (i. e., can be shown to be a truism: §35) as soon as we stop using the same word confusedly in two senses. It is an agreement (an arbitrary verbal truistic invention), and hence not absolutely provable in the sense of §35. But it is prov- able in the same sense that any of geometry is:- I. e., the postulate is precisely the same sort of proposition as the the- orem that from a point not in a straight line a perpendicular to that line can be drawn, and but one. For in that theorem the perpendicular is the distance or Many quantity from the point to the line. Because the perpendicular is here (at pre- sumably a formally distance from us), it is held to be always of the same length. But obviously, in fact, it is not at ex- actly the same distance from each of us, nor at zero distance from us in any given case (for we do not in any Many sense coincide with a "perpendicular"); we are the differently located observers of the case. Consequently, if that perpen- dicular distance varies any when changing its distance from absolutely here (0 distance) to any distance away (and Euclid includes all such distances in his postulate by saying °° dist- ance), then in no case can the proposition about the perpen- diculars be considered to be proved" (or for that matter, even to be true) to anyone except the person impossibly coinci- dent with the perpendicular. Hence, if the theorem about the perpendicular is considered by the orthodox mathematic- ians to be proved, in exactly the same way Euclid's postulate is proved. That is condensed, and hence roughly stated from a mathematician's point of view. But it proves with rigorous truisms either that Euclid s axiom ' about parallels is proved, or else that all kinds of geometry (includ- ing non-Euclidian) are not only unprovable, but are in the §60i VIII One UNIVERSE 54 same sense disproved, or proved to be erroneous. The act- ual fact is that we have merely rigorously established the preliminary formal agreement of language or geometry — Euclid s postulate being that agreement in one form. §61. a. That leads us specifically to what I believe is generally considered to be the unsolved problem of whether space (and time) is really Euclidian or not. The solution of it — already implied above, of course — is that there is not any such problem; it is merely an implicit self-contradiction and confusion to propose such a problem. ' We may prof- itably explicitly consider it, as it shows the ultimate details with regard to confusing the three sorts of words. (1) If space is a relationship word or God the Holy Ghost, as we explicitly consider it to be in our general equation, then obviously there is no such Many or objective" thing as space, and no possibility of its having anything but merely a whole identity with itself (§§57, 60a). The problem of Euclidian space" is obviously meaningless or non-existent from such a point of view: space in this first sense is solely an absolute assertion of connection, or id entity — and identity is identity, it being nonsense to consider in curved or flat. (2) If space is the universe, the One, then it is Euclidian or non-Euclidian just as we please. Neither mystic statement has any definite meaning as such, and both are true." (3) If space is used as an actual unit of the Manj' (as mean- ing, say, that -which is named by cubic yard), then obviously we can say that that space is formally a fixed quantity or standard One, in which case (2) again applies. But if we observe that that -which' at first was in the space changes with reference to other parts of the Many, and say that it no longer fills the ' space,' then we use that last term space" (a) vaguely in a Many sense, and also (b) in a relationship sense that is covered by (l), but which is explicitly, as a standard One or measure, a Euclidian space. Or, instead of saying as in (b) that such a space measure did not change, we may with the mathematicians say (c) that the space measure also changed with the change in that which' or Many part in it. Then that assertion of change, as a verbal truism, implies that we have assumed another form," or a second space,' which tacitly assumed form is the relation- ship word, but which second space is then, by orthodox mathematics, inserted into (i. e., verbally identified as, or duplicated into) the original name space. (The original space would then have to change again, and be fixed as a form ; and so on ad infinitum. It is, from this point of view, the infinite regress of language: or more definitely, that simul- taneously duplex space" is the mathematicians' unrecog- nized way of asserting the infinite regress; or more concretely, that duplexing of space" is the ancient infinite regress of ethers; cf. §51.) In that case, where we get flung on an infinite regress of spaces (which is another way of stating the last section), each space that changed in some given degree is a distinct language, of non-Euclidian space. And clearly, to interpret that language, we simply have to revert to the formal or fixed space, which obviously is the average or Eu- clidian space. Or, briefly and obviously, there is no such thing, or unit of the Many, as space. To say ' Euclidian space" is, strictly, the same thing as saying motherhood of brotherhood — logical nonsense. Hence, there exists no such problem as whether space is Euclidian. Space is a verbal invented agreement as to the expression of universal identity, and the Euclidian agreement is the average, intelli- gible one, and no other is mutually quantitatively intelligible. b. It may now be seen why we have gone to so much trouble and effort with what is superficially the rather foolish business of investigating non-Euclidian space. Two import- ant advantages appear at once:- (l) We have very definitely seen just how a word is orthodoxly confused in the three meanings (and how excessively confused that confusion may be), and just how to dig the word out and unsnarl it. The non-Euclidian space serves as the type : no other mixing can go further in confusion: yet, at the same time, if we have nothing better to do than juggle words, it is possible to make valid expression of anything in terms of non-Euclidian space (but to be quantitatitively intelligible expression it then has to be translated into Euclidian). (2) And we have seen how very flexible our language is. If we do not explicitly pin it down to Euclidian space, any noun in it can be given not only any meaning as a One (which is validly possible in our everyday language — we must simply point out that we are doing it) ; but can also be taken as any quantity as a Many (§66) ; and can further, from one point of view, be consid- ered (a) steady, or (b) in any way warped as a relationship, in which case it implies an infinite regress of different formal languages — all of which then have to be explicitly stated in order to be intelligible (and the way to 'state' all of them logically, is to state the average, or zero, or Euclidian one). Consequently, it behooves us to understand our logical rule about and °° , and use it, if we do not wish to find ourselves adrift in non-Euclidian unintelligibility, or the dupes of the men who are. §62. a. The scientific physical theory of relativity (§66) is a variation from ordinary language of the same character as are the non-Euclidian varieties. That theory uses "time" as if it were a fourth dimension of space (§66g). Non- Euclidian geometries often do the same thing ("Ency. Brit., xi, 735). In both cases the usage is merely a form, and implies no actual "fourth dimension." In this section we consider the actual meaning of all asserted and verbal departures from three dimensions. b. We have seen (§§58ab, 59) that our everyday lang- uage was reduced to the most parsimonious terms possible in an explicit language, and hence had three dimensions of space. We saw that they were forms; hence, it is already implicit that, as a form, there might be any number of "di- mensions." But we proceed to examine the details. The Euclidian everyday language and each of the non- Euclidian possibilities may be varied into an infinite number of valid languages which depart from that simplest form. So far as I can determine from the vague statements of ortho- dox mathematics that possibility is not definitely recognized by it. But orthodox mathematics in an indefinite way be- gins the construction of such different languages:- e. g., various branches of mathematics treat of "space" (l) of no dimensions (points) ; (2) of one dimension ; (s) of two dimen- sions, etc. As we shall see, the three varieties of "space" • just mentioned explicitly, actually imply the use of lang- uages that are logically different from our ordinary language. But it is not conventionally so considered. It is considered that we can "conceive" a "space" of say two dimensions. The fact is (the absolute truism is) that we can not conceive any such space in any way really different from conceiving a space of a million dimensions (and we can not properly talk of either the 2-dimension or million-dimension space in our ordmary 3-dimension language— as we shall see) The usual conventional assertion is that it is impossible even to imagine a physical" space [i. e., a Many unit as usually named\ of a milhon dimensions. Of course it is, as that is an essential contradiction of terms; in precisely the same everyday sense it is equally impossible to imagine a space of two d.mens.ons, or three dimensions, as we shall see c. What we are going to see now is that there are pos- sible an mdefimte number of valid languages, each of which has a d.fferent formal base (or, in some cases, lack of formal 55 UNIVERSE One VIII §62g base, or negative one — which is logically the same). The language which we actually use (§58) is based on the Trini- ty, and is the simplest positive language. It has three forms of words, conventionally necessitating the three dimensions of space (§59). Following is a description of the formal base of four different languages :- (l) The most primi- tive 'language' — I doubt if it may properly be called a lang- uage — is one merely of ejaculatory sounds, such as a. hen usually uses to her chickens. It is rigorously "mysticism," and implies only the One, or meaning. Actually, it has no words, as any of its words' may, just as a One word may, be used to designate any complete meaning. That language does not use space at all — has no form, — and is hence of zero dimensions, (it is also obviously of infinite di- mensions, as it implicitly includes all possible forms.) Con- ventionally, that is not a "language." (2) A hen can and does use another and higher" form of language. When she finds food she sometimes adds to her previous language a gesture of pointing' or pecking at it (and perhaps a vocal sound equivalent to that gesture), indicating a point, or a MO-dimension location in space (and time — always under- stood). A small child is 'verbally" a little more explicit in such a language. He puts his finger on or towards the point and says This or That," or some word corres- ponding formally to the mathematicians' point. 1 ' That also is a language which is not positive — and conventionally perhaps is not recognized as a language. That O-dimension form of word is the primitive Many word, and such a word is indefinite as to whether (a) it is a unit of the Many that is a formal part of the One, or (b) is a mere formal recogni- tion that the One may be arbitrarily divided, but is not such a part. It has been seen (e. g., in §58d) that orthodox mathematics is still, like the child in that language, ambigu- ous as to its general Many words :- number. Hence, it is obvious that when mathematics speaks of points, or tech- nically of number, it probably is attempting to use this no-dimension language, without recognizing that it is not a positive language. This language formally and implicitly asserts space or form, but explicitly asserts no space. But there is no trace in it of the relationship form — note the indefiniteness under (a) and (b) above. Obviously, as this language uses space, and denies dimensions, it may be said to have no logic, or be negative logically ; yet it is fairly intelligible in practice, and is often eloquent — for it raises no verbal problems and needs no formal answers. This zero- form or zero-logical language may be held to include the absolute mysticism described under (l). (s) The next 'language' is the one in which the motion of a point is form- ally recognized — the continuity or relationship that is explic- itly a one-dimension line formally explicitly asserting the Many, but obviously not fully separating the units of the Many. Hence, relationship is explicitly used, but formally it is denied or omitted. This 1-dimension language is still not a positive, controllable language, as it obviously still lacks a definite logic. (4) The next language is one of 2-dimension surfaces, in which the One is obviously ex- plicitly separated formally into the Many. Relationship is obviously implicitly used, but it is not explicitly named as a form — it is, when it comes into explicit notice, pseudo- invented as a thing, or another unit of the Many, or a tertium quid, or God. This is actually the language the dualists use. It is not a positive language — not our Trinity language. It is, compared to our positive language that has the minimum of logic or form needed for controllability, a nonsensical lang- uage — practically more nonsensical than the languages of the hen and the infant; for those make no pretensions. Dualists are not "wrong"; this language is not "wrong," as it is fairly intelligible, and is actually the language of most of conventional mathematics. It merely is not complete and it is not our everyday dynamic language. Strictly speak - speaking, it is a barbaric language — half-formed ; static. d. Obviously, just as soon as we say above in the lang- uage (2) that there exists one way of asserting and denying "space" (or the formal distinction between the One and the Many), it immediately follows that there can be two ways of doing it — and two were shown in language (3), — and then on and on in a balancing of such forms, in infinite regress. We saw (§59) that the first way in which the whole set of contradictions is explicitly or positively handled is our Trini- ty language. Hence, that Trinity language is what is ordi- narily known to us as language. But obviously, the other forms pointed out in the last paragraph are languages — even though they differ quantitatively in the number of explicit forms or logic. So those are concrete and conven- tional examples showing the possibility of an infinite regress of languages with different forms which are valid (although not equally useful in quantitative Many affairs) so long as they make no claims to be other than they are (the real objection to dualism and other languages with queer numbers of forms is that they make false claims for themselves). e. The mathematicians call each such assertion-denial (formal assertion of a splitting: denial of it) a dimension" of space," and get thus 4-dimension, ...ra-dimension... space. Obviously, what they can mean is correct; the names they have adopted for it are not enlightening and us- ually puzzle even themselves. For obviously, in no case have they got a space that is a bit different from the one the child has when he merely points and has O-dimension space" — i. e., has no form in language, no technique, no trick of talking. The actual difficulty the mathematicians have is due to the fact that ordinarily we consider the forms of language explicitly in terms of time (with space always im- plied; cf. §150); but (as in §60i) Euclid shifted those forms explicitly to space — making a geometry instead of a tacit psychology," — and instead of talking of ever}' -time talked of every-wkere. Because of the nonrecognition of the existence of those two aspects of precisely the same essential principle of form, the mathematicians thought they had something really different in the way of language variation. f. It therefore follows as a truism that when a man un- dertakes to talk about a space of (say) four 'dimensions" as being one in which (say) we could go in and out of a room which was closed, then he is, in his mental confusion, at- tempting to talk two different languages simultaneously :- our Trinity language of the ' closed" room, and the 4-dimen- sion language in which he describes the path out." The result truistically is nonsense — saying A=A and simultane- ously A is not = A. Competent mathematicians do not talk such nonsense: at least I am unable to find any such ab- surdities in the Encyclopaedia Brittanica." In one modern mathematical book I find the author rather undecided as to whether he shall talk such 4-dimension nonsense; but in spite of the fact that he is a reputable mathematician he concludes that such hypergeometry resulted when the mind of man finally burst into flowers of its own" — a rather vague statement for a mathematician. But in sober moments competent mathematicians consider space to be the same as it is in our general equation — primarily a relationship word (Whitehead, in "Ency. Brit.," xi, 730). However, White- head frankly admits that mathematicians are undecided about it, just as his competent associate Russell admits in general that they are undecided about the One and Many ("Ency. Brit.," xvii, 88l), which is really the problem under space. g. It is obvious that because we tacitly call our Trinity §62g VIII One UNIVERSE 56 language sense or commonsense, in order to be consistent we must call any other language nonsense. And I did. But to repeat, that means compared with Trinity language. h. Obviously, in each of those infinite forms of language with respect to the number of "dimensions" we may now have another infinite regress in sorts of space — Euclidian and non-Euclidian. That makes the total of mathematics or of language to consist of explicit statement of an infinite re- gress of languages of different extent of form, each of which languages in turn consists of an infinite regress of languages of different 'intensity' of form — which may be expressed :- Extensity of forms... ^Intensity of forms..., exactly equivalent to That... X This... . There consequently can be no actual end to the mind's bursting into flowers. I omit those flowers" here, and with rigid parsimony use everyday Trinity language of Euclidian space. But we can see that the mathematicians can have an extensive flower garden. §63. a. In the last section it was not stated just how we are going to represent those different kinds of spaces with our ring model. In this section I shall represent them by showing briefly some of the possible variations of the ring. To show those variations in detail would constitute a com- plete new mathematics — volumes of which are here omitted. b. A symmetrical ring consisting of a geometrical single surface is generated when a straight line, the generatrix, is moved so that the same point of it lies always in the circum- ference of a directrix circle and its whole remains always in planes passing through the center of the circle and perpen- dicular to it, while at the same time the line rotates around the circumference as an axis at half the angular rate of its revolution about the center. In order to represent the un- limited possibilities of making non-Euclidian languages, that symmetrica] ring can be varied from that symmetry indefin- itely. Instead of a directrix circle we could use any closed path. And the warp' (the proportionality of its rotation about the directrix) may be varied locally in any degree, so long as the generatrix finishes a complete revolution with an algebraic sum total of 180 , or 180 plus any multiple of 360°. If the sum total of the twist is different from that, and the generatrix is of finite length, truistically the surface will not close as a single surface, with one revolution, and we have no language,' as there is no summed identical re- lationship. The language would be a dualism; and, any of the languages described in §62c would be represented by a ring in which the length of the directrix was zero, and the twist unstated. If the twist were stated, then other de- tails too trivial and extensive for mention here are obvious. c. An actual paper ring made of a straight strip will Fig. 63c. not take that symmetrical form, because to permit its doing so its edges would have to stretch and contract considerably. Also, when the generatrix explicitly has a length of line extending away from the directrix greater than the diameter of the directrix the single surface will intersect itself (and a ring made of a paper strip physically would not intersect, but would "interfere"). That fact may be observed to be true by observing Fig. 63c, and considering what would happen if the ring were wider. (Fig. 63c is a perspective of a symmetrical one surface ring of appreciable thickness : it is shown cut square across by four arbitrary planes, so as to make it easier to see its shape.) If we had a paper ring of negligible thickness its width could be made as great as we like, without interference, by folding the strip first diagon- ally along its length, and again in other ways as may be necessary to keep the ZI and Z'l' edges (Fig. 54) along the meeting edges of the finally be-folded triangle. The paper 'strip' then, when bent around to make a 'ring,' actually makes a cone. (It would require pages to express that con- struction with verbal explicitiness, and then it would not be easily intelligible. The reader, if interested, can readily understand the construction by actually making such a ring.) In whatever way the folds be made, there will be one or more thicknesses of paper between some portion of the join- ing' ZI and Z'l' edges, and the joint will take various odd be- folded conditions. Clearly, as the meeting edges have the paper (or if that is considered of negligible thickness, then at least a "surface") between some portion of them, then in ordinary language they do not meet. But, by multiplying or duplicating means of stating relationships, an n-dimension language can be devised which will describe the be-folded ring' as a ring" — i. e., as if the edges met: and hence as if the surface was continuous and related. d and e. Clearly, that sort of complicated language is not perceptibly needed in our ordinary life. The mathema- ticians may find uses for it, and quite likely in a century or so, after we get skilled in our Trinity language, the last para- graph may possibly be written in a consistent 4-dimension language and be easily intelligible in half its present length, instead of its being practically unintelligible as it stands in 3-dimension language unless such a strip be actually made. However, it is clear that there is not contained or involved in that 4-dimension model a space ' any different in a Many sense from 3-dimension, 2-dimension, etc. As an interesting fact, it may be observed that the model 'ring' which is now a cone contains all the relationships included in conic sections, and other branches of geometry — and those are thus here directly connected with the theory of logic. The volumes expressing that unified geometry are here omitted. f. Instead of making the ring of a flat strip and neglect- ing its thickness, we may make a ring explicitly solid — say Fig. 63f. of square cross-section, as in Fig. 63f. In this case, instead of a twist of 180°, we give a twist of 90° (of 360° divided by the number of "surfaces" or sides the solid is considered 57 UNIVERSE One VIII §6Sb to have). Then there is but one continuous surface, and one continuous edge ; but we pass our finger four times around the directrix circle in completely following that surface. If we cut off a comer having a right triangular cross-section with legs of the same length and equal to half the ring's side, there results a ring of triangular cross-section four times the original length, with three surfaces and three edges, interlinked with a ring of the same sort as the origi- nal, but half the cross-section. Similar corners may theo- retically be cut off the ring indefinitely, there remaining always a square core like the original. It is obvious that a direct description of the more complicated systems of rela- tionship, Many surfaces, etc., of a symmetrical ring of this sort would require a Euclidian language of more than three dimensions," or sets of reconciled contradictions. g. A different language would be required for the direct description of a single surface ring made of triangular cross- section with twist of 120°. That is obviously so, if we con- sider the complications resulting if we considered the three sides extended indefinitely. Similarly, a special formal lang- uage is required if it is to be directly applicable to a ring of any regular polygon of n sides, with a twist of 360° /». h. The limit of that regular re-sided polygon would be a circle of an 'infinite number" of sides, giving a tore or anchor ring — or a smooth doughnut. If a "corner" be cut off that, it would be a line. And we would keep cutting it off, around and around an "infinite number" of times until the whole ring — or universe — was used up, and there was just one closed line to represent it. All the mutual contradictions possible (an infinite "number") would be used up and recon- ciled. The resulting line would be the Many, or the One, or (when considered as a twist) all of relationship. As a matter of rather obvious fact, the total expression in words would become infinitelj' formally self-contradictory- — as is directly evident in this paragraph. Yet, because all those contradictions, and this line's implied ' infinite dimensions" of space" mean nothing more than continuous, we under- stand the description of that tore — the meaning of this para- graph — without difficulty. However, more or less concretely speaking, this paragraph is language gone mad. When we describe a common doughnut in this romantic way, we have passed beyond the power of the best mathematicians and used "-dimension space," and in that extraordinary lang- uage have in reality reverted to the language of the hen (§62c) — a concrete proof that infinity is logically equal to zero. There is not any difficulty about comprehending a doughnut. The universe is essentially as easy to understand. i. One last point concerning this variable model of lang- uage remains to be added to make its infinite variety or vari- ability obvious :- I have been calling language a machine. This ring also serves as a model of all mechanics, as we may briefly see :- If any of the rings (theoretically the cone ring' also; but we for brevity omit that) be revolved about its main axis (i. e., the line through the center of the direc- trix circle perpendicular to the plane of the circle: the di- rectrix circle itself I name the Jiliar axis), then it acts as — is — a pump, or rotating fan, or propeller, of (and in) whatever medium surrounds it. (Hence, some useful machines might be made of the ring; I have not investigated those possibili- ties, but such an investigation may be worth while, espec- ially when it is remembered that all engines are reversed pumps of various sorts, so that these rings will make a new sort of rotary engine.) Also, when the rings thus revolve, they appear to be rotating also in cross-section around their filiar axis or directrix circle; virtually or dynamically they are. Conseqently, they mechanically are vortex whirls, or "smoke rings." And in Part Two I use such whirls as being usually the most simple and convenient machine by which to describe the universe. A whirl is shown to be equivalent to a lever, or to any other machine (§100m). The universe, or any atom, or any natural machine (any arti- ficial machine plus man is shown to be a natural machine; §140), may by its use very conveniently and intelligibly be considered to be a sort of self-inclosed pump, or engine. Therefore, rigorously, language is as definitely a machine as is any other, and is as explicitly subject to scientific ex- periment and verification. §64. a. Two general considerations remain to be added to our description of the concrete model of language :- In this section we take one:- that L and T always mutually imply each other. In the next section we consider the other :- the general method of splitting the ring into the Many. b. We can observe in our model (as we have several times seen: §§86-7, 60i, etc.), that every time the idea or form space is introduced, it at least explicitly implies a can- celling time. I. e., space and time, as mutually contradict- ory words, constitute the relationship, or twist, in the model. To put it another way, the total universe can be described as the motion of the general ('universal') body M. We can not possibly have any thing which is not fully implied by 'M varying with V or L l T~ 1 ,' — or with complete explicitness, by M varying with LT -00 .' We see directly from our model that in all cases of explicit expression, the exponents of L and T are equal and cancelling : in general are n and — n. c. Physics, somewhat vaguely, terms those exponents dimensions" (§68). But orthodox physics is not quite so definite about the matter as we are seeing is justified by the facts, and hence there exists no familiar way of stating the conclusion which is now obvious (also, cf. footnote 165b, on Bergson). That conclusion is, that, as L and T always imply each other, then if L is curved," T also must be compen- satingly curved ; and if L is steady" or average" in ordinary average space, then T also is average. Mathematicians and physicists are confused over the matter, although they substantially agree with that conclusion. Their esoteric way of agreeing is to use a form which is equivalent to making T a fourth dimension of L; obviously that makes T identical in form with L. They are not at all certain what it means ( Ency. Brit.," xi, 735). We come to the same thing in the theory of relativity (§66). d. That last paragraph is not very clear — especially is it extremely confusing to follow the orthodox usage of T as a fourth dimension. The last paragraph is one just for the technical objector. The simple facts we need to get out of it are (l) that L and T, whenever validly used explicitly, are paired ; and (2) that all conventional technical languages are somewhat vague on this point (IX, §66), and conse- quently get into verbal confusions that are unintelligible if taken literally. E. g., Newton's law of gravity is such a confusion; strictly interpreted it is totally illogical, and pre- cludes gravity's having any mechanics (index, "Gravity"). §65. a. We have let our model represent the Many by having its Many surface divided crosswise (Fig. 54c). That has been convenient for the points of view we have taken. But if we had actually cut the ring into Many parts on those lines, the ring would have come apart," and no longer have been a ring" (unless we had considered it a One, in which ' coming apart" has no particular meaning). b. But we saw that the rings could have an edge or corner cut off, giving a lengthened ring of more than one surface (and edge), interlinked with a remaining single sur- face ring like the original, but with a diminished cross-section. Those split-off rings constitute units of the Many more defin- itely than do the crossways' units, for a number of obvious §6Sb VIII One reasons. In splitting off parts to get units of the Many, the relationship glaringly remains (as the interlinking) ; if a crossways unit of the Many had been cut out, we should have to consider that because the ring was the total universe then that cut-out unit of the Many could not have been re- moved "elsewhere" — so it in effect would stay in place and "preserve" the ring. It may also be observed that the split-off unit of the Many no longer has the characteris- tic of a continuous One and Many; the "logic" or language description of such a definite, formally separated but still interlinked unit essentially changes. c. All those points have perhaps become so obvious that I shall write no more than those rough suggestions. A very extended discussion of them is readily apparent. §66. a. In this section we consider the theory of relativity . We do so chiefly as a means of summarizing our ideas about language. For the theory of relativity is essentially a lang- uage or logic different from our ordinary Euclidian language, and a study of it will show how we may change from ours to a different sort. That theory of relativity, which is actually a new scientific logic, has been developed recently, begin- ning with a short article by Albert Einstein in 1905 which extended Lorentz's hypothesis of the Michelson-Morley ex- periment — an experiment which showed that there was no perceptible motion or drift" of the ether relative to the earth, as indicated by the travel of light (see §127 for de- tails), although the old dualistic theory of frictionless ether held that the earth could not drag that surrounding friction- less ether with it, so that there would be such drift (§127ij, XIII). For an authoritative statement of relativity I shall use Einstein's Relativity" (Eng. trans., New York, 1920), referring in citations below to pages of that book. b. Einstein used his theory a few years ago to predict the bending of the path of a ray of light in a gravity field (that bending is actually » special case of a general phenom- enon of light known for centuries; §127). His prediction was reported verified at a meeting of the Royal Society in 1919 (ibid., 153-5). On that occasion J. J. Thomson, as its president, is reported to have stated in effect that those observations perhaps caused a revolution in science — the greatest in centuries, etc. And that rather strong language brought Einstein's theory into general prominence. How- ever, Thomson is reported to have also stated that he could not understand the theory. (Obviously it is pertinent to inquire :- if he couldn t understand it, how could he guess it was a revolution?) But we shall see that the theory does not revolutionize science except in the sense that it expresses our commonsense science in a somewhat new and in an arbi- trary language, which does not at all destroy or contradictor change our everyday language. Also, we shall see that there is no difficulty in understanding the essentials of the theory; and it is in strict principle impossible to derive, in a finite time, any definite quantitative result or statement from the theory. However, in practical use, guessing somewhat at quantities, the theory is sound and has great value, as we shall see. Einstein has done work that makes him the peer of Newton. c. The specific essential of relativity is correctly and clearly stated by Einstein (ibid., 135):- "According to the general theory of relativity, the geometrical properties of space [and time: the rest of his book proves that space is logically inseparable from time ; see par. g of this section] are not independent, but they are determined by matter." Hence, as he uses matter explicitly as quantity, and as he shows that matter is always varying or changing quantita- tively (that mass varies with velocity), therefore M, L, and T are always varying — or, Einstein has no formally steady UNIVERSK 58 language. Or, instead of having our Many member, M(vary- ing with)L 2 T- 2 , in which L and T are arbitrarily and form- ally or logically fixed and steady as in our everyday language, and in which member there is a '(varying with),' or assertion of no possibility of a quantitatively exact science (see our next chapter, IX, for details), Einstein's theory of relativity would have a member in which there is no '(varying with)', but an exact quantitative science, although then formally L and T are not constant and steady or formally exact and unvarying. In other words, Einstein's theory is obviously logically pre- cisely the reverse of our everyday language; in respect to concrete facts, or to assertions about matter, our language and his language obviously undertake to mean identically the same. As a truistic result of the fact that formally his L and T are not steady, Einstein's general relativity has a space (and time) which is not Euclidian. His space and time is a verbal "reference jelly-fish" — i. e., an unfixed, shaky, uncertain method of talking (his translator says "reference-mollusk," p. 117, etc. ; but "reference jelly- fish" better expresses what was or should have been Ein- stein's idea). And that relativity space has no fixed curvature or definite variation from Euclidian space. (Truistically it can't have; for otherwise L and T would be unvarying, al- though with [Gaussian] numerical coefficients different from unity; see par. e.) Consequently, it is in strict principle truistically impossible to get any definite quantitative result or statement from the theory. Einstein (p. 136) concludes that our universe is a more or less (i. e., numeri- cally unspecifiably) spherical or elliptical non-Euclidian space — thus showing that in his own hands in the end the theory can give no definite quantities. And incidentally, as we saw (§62), that more or less bounded or shaped relativity space means precisely the same thing as our ordinary language's in- finite or unbounded space of the universe; for obviously there is nothing but an unessential verbal difference between a uni- verse which is unboundable and an infinite one. d. Or, we can express the last paragraph, showing the essential characteristic of the theory of relativity, in a more intelligible and more general way :- Einstein in actual effect says that he will express everything in a quantitative form — will express everything in exact measures — will have all state- ments in the form of exact quantitative science. (in short, he in effect asserts that there will be, for his theory, no dif- ference between qualitative and quantitative; he can be noted asserting that in his first complete paragraph on p. 23, and the second on p. 15. And in agreement with my assertion that he verbally makes the two equivalent, on his p. 98 he in effect consistently and properly rejects the problem of the One and Many as being non-existent — or the One is directly the Many — in the next to the last sentence in the first para- graph.) Such expression of everything is in principle an absolute quantitative unification of all knowledge. And we have seen (§40, etc.) that such a quantitative unification is impossible. But Einstein consistently and validly makes merely a formal unification of that sort except that he does not finish (strictly, a unification of that sort would have to run to infinity). I. e., in actual effect, as we have already seen and will see more explicitly in the next paragraph, he gets a jelly-fish or variable frame of numerical translation or expres- sion or "reference," so that although formally he has a quantitative unification, actually he has to guess at quantities just as we do in ordinary language — which is merely another way of saying that he does not finish. Consequently, Ein- stein has a language which is formally the opposite of ours ; but as stated, it means the same as ours, and there is no real conflict. We take it that our standards of measurement are formally steady, but that in the nature of things we can't 59 UNIVERSE One VIII §6 accurately measure always varying matter; Einstein takes it that his standards measure matter accurately, but that the standards themselves always vary, and vary in an unmeasur- able degree. e. Or, we can express the general relativity theory in specific mathematical terms, thus repeating the last two paragraphs in another form :- Einstein does it excellently (p. 115):- The following statement corresponds to the fundamental idea of the general principle of relativity : 'All Gaussian co-ordinate systems [of which the Euclidian "sys- tem is a special, or more precisely, a limiting, case] are essentially equivalent for the formulation of the general laws of nature. I. e., all events or phenomena may be quantita- tively expressed by exact symbols in a certain kind of always practically non-Euclidian space and time. Einstein proves that. Then, the mathematical formula for expressing one phenomenon in terms of any other is worked out (p. 105) to be:- ds 2 =gndxi 2 -{-2gi2dxidx2... -\-gudx t 2 , where ds is the quantitative difference of the two phenomena, the x's are really our ordinary Euclidian time and dimensions of space, and the g's are numerical coefficients for the given particular case, which fix for that case the variations of the time and space from the Euclidian reference or limit. In brief, that expression is simply in effect equivalent to our formula Mkvarying with) I?T~~ 2 = The One (but is not precise as to what is the One and what the Many expression; see par. h). But, it immediately follows (ibid., 106), from the way that Einstein derived that formula, that the magnitudes or coeffic- ients g have values which vary with each event. Conse- quently, in actual effect, that Gaussian or non-Euclidian formula is not mutually translatable from one event to another; it is only formally or unintelligibly-orthodoxly- mathemathically translatable — the monstrous word fits the case. Or, as before, the relativity or unification derived by Einstein is merely formal — is actually qualitative, just as the one we are deriving in ordinary language is. f. It therefore is truistic with those three ways of view- ing relationships (in the last three paragraphs):- (l) that Einstein's general theory is right (he has worked out an ex- tended formal truism, mostly in terms of the orthodox mathematics of space and time) ; and (2) that his form of using words is the reverse of our ordinary way (and is hence rather novel and sometimes puzzling — especially to him). Our ordinary language is a language which, although explic- itly inexact as to quantity or measures of sizes of things, is qualitatively or essentially the same language for all of us, and for all time (except for the arbitrary practical fact that from time to time we mutually agree to change the applica- tion of certain words, or invent new ones). The backwards language of the relativitists is theoretically exact as to quan- tity, but essentially is, or requires, a different language for each person (as each person is a different phenomenon or event — is differently located : two persons can not occupy the same space), and also must be varied by each person from moment to moment into a new language (as we saw, especially in considering the Gaussian formula in the last par- agraph). A simple example of that would be :- If we use the theory of relativity consistently, with reference (say) to what we in our ordinary language call a boy" (all of us ad- mitting that "a boy" does not mean exactly quantitatively the same to each of us), then only at one instant in eternal time and then for one observer only, at one zero or point spot in infinite space (and actually, no observer can occupy a point), would the name "ffl boy" properly apply, and hence be a permissible relativity term. All other observers, and this single point-observer at all other times, in order to use relativity consistently, must invent and use a new name (a different "quantity"); he could still use the exact numeri- cal form "a " (the "a" meaning exactly l), but must fill in the blank with some new word to or with which the quantitatively exact a or 1 will fit — which new word would itself be good only instantaneously. Obviously, rela- tivitists can't practically consistently talk any such language. What Einstein actually does in practice, even in his formal book, is tacitly to use our ordinary Euclidian language as a means of translating. E. g., in the last paragraph we saw that his unifying formula was itself actually expressed in Euclidian language. g. It will be useful to notice two particular points about Einstein's theory in this long paragraph. (l) He states it as two theories, a special theory of relativity, and a general theory (his special theory really deals with what we call the One, and the general with the Many, as we see shortly). In the special theory he works out the verbal method for expressing phenomena in mutual terms of two bodies which are moving relatively to each other in a straight line, with constant motion. He uses the velocity of light as a standard of comparison (i. e., a verbally constant velocity in free" space), thus tacitly using Euclidian space and time as the form of talk to measure that velocity (which is what we call a qualitative base). But Einstein sees, as we we shall see, that motion in a straight line at constant velocity is a special limit, and experimentally can t happen in the real universe (§§83, 88, etc.). Therefore, he had to develop what he calls the general theory of relativity, which will apply to actual variable motion (for all the details of such motion see Part Two). But as soon as motion de- parts from a straight line, the standard of measurement (the speed of light) is truistically relatively curved" (the paths of both bodies considered are relatively curved), and hence variable in quantity — i. e., merely as a verbal truism of such language agreements, and without any reference to what actual light does do, light can no longer in such language, verbally travel in straight lines at constant speed. Hence, as can be seen, all possibility of comparative measures of two mutually variably moving bodies (and all actual bodies are such) has departed from Einstein's logic; or, that logic or language necessarily or truistically reverts to the jelly-fish system of reference for both space and time, as before seen. Einstein seems to think he shows that change from special to general theory by experimental facts — talking about gravity field" at some length, — but as a matter of fact, his gravity field is created (and 'described') by an extra-universe, incon- ceivable God and is piffle, and Einstein is actually merely formulating verbal agreements — and doing a good job at that. The only actual experience he is using is the observa- tion that, expressed in ordinary language, mass varies with velocity. He is unconsciously making his forms fit that Eu- clidian fact. In short, it thus appears that the relativity theory essentially is logic or philosophy, and not concrete or experimental science : compare it with Part Two of this book which is directly experimental science. With constant light velocity in one theory, and variable light velocity in the other theory, it superficially looks as if he were dealing loosely with facts. But he is not; in making the step from the special to the general theory he is merely shifting from Euclidian to non-Euclidian space, and reverses language (shifts from monism or monotheism as "reality" to infinite pluralism as reality"). As a matter of strict fact, he could be said to have already done that with mathemati- cal orthodoxy in the special theory (i. e., to have asserted both theories simultaneously according to the forms of ortho- dox mathematics). For in deriving the equations for talking mutually of two bodies (ibid., 189-45: those are the §66g VIII One equations Lorentz used in considering the Michelson-Morley experiment ; for comment on them in actual physical terms, instead of terms of logic which are being given here to ac- cord with Einstein's discussion, see §127j), in equations (3) and (4) — not quoted here, as they are not needed, — he mul- tiplied zero by two "constants," and in effect said that the two could be any numbers. That is equivalent to saying that any number is equal to any other number, and accepts or uses the total orthodox forms of mathematics (§44). Con- seqently, by that theory his "constant" speed of light in the special theory is already in general any speed — i. e., by such orthodox mathematics is variable. In short, his theory merely amounts to using a formal mathematics in which any number can equal any other number, as we saw was the case with ordinary orthodox mathematics. (Or, as we can see now, his special theory is what I call the One, and his general theory is the Many; his special theory is the limit, or the use of Euclidian space, or a dealing with and <*> ; his mathematical formula includes both the special and general, just as does orthodox mathematics, by considering and °° to be numbers, and not limits.) That can be validly and logically done, merely by formally arbitrarily agreeing to do it, provided it is not otherwise contradicted, although as shown before in several other ways no definite quantitative statement which is mutually intelligible can then be made — there will be merely mathematical, symbolical, formal exact- ness or quantitative definiteness (and because by agreement no mathematical Many symbol need be definite anyway — i. e., n boys are not actually a definite number, although n is mathematically or symbolically definite, — therefore ob- viously it is possible to put that indefinite, not mutually un- derstandable theory into mathematics and make it thus indefinitely understandable : that is the logical trick that can be done with mathematics, and it is highly useful provided the mathematician is not so soft headed as to fancy that just such formal, actually unintelligible statement is the end of the matter). Then Einstein, instead of saying bluntly and clearly that in his theory no number is steady, says what amounts to precisely the same thing:- that space (and time) is variable (an uncertain, shaking jelly-fish) ; and in practice he uses abstract mathematics, in which indefinite letters (such as g in par. e) are used for numbers, so that he talks mathe- matically about his theory without being actually troubled by that numerical indefiniteness. (2) The second point is that when he insists, following the mathematician Minkowski, that time is a fourth dimension of his jelly- fish world, ' he means merely the same commonplace thing which we have been seeing:- that space and time must, in any valid logic, always be used together (and we see the psychology of that in §150e, etc.). Orthodox physics and mathematics drop time or T whenever they think it conven- ient or simpler ; and that separation gives a dualism UNIVERSE 60 ultimate form as ours. The theory of relativity is generally a revival of Heraclitus the Obscure's philosophy, as before noted — and is superficially obscure because it claims to be using (quantitative) terms which in practical effect it isn t using. Or, as was seen, formally relativity deliberately re- fuses to distinguish between quantitative and qualitative ; nat- urally, as we commonly explicitly distinguish between the two, it is verbally confusing to us at first to use such a run- together language, where any number is openly and consist- ently asserted to be any other number or to be no number at all (i. e., to be or »). Relativity really means unification. And Einstein's theory — or actually logic — is in And Einstein is materialism when is quite plain in in the same sense in that sense the or materialism, as we have seen, merely destroying such self-contradictory he says time is a fourth dimension — as his book. He is not using dimension that we speak of a dimension of space ; word is quantitative, as we have seen. When Einstien says time is a fourth "dimension" he simply means that it is a . relationship word and ought not to be dropped, which is quite true : and he uses a very emphatic mathematical de- vice to stop the dropping of time by mathematicians. h. It thus appears that the relativitists have worked out a formal logic or philosophy in terms of scientific exact quantities" or "matter." The "quantities" really evapo- rate, so to speak, or turn into unstatable jelly-fish measures; so the logic is actually the same in meaning and also in its principle incomplete in that he omits showing explicitly that all relativity or relationship is ultimately that of identity or unity (§28h). Also, his verbalisms are so confusing that many obvious conclusions and experiences are hidden from him; those are given in this book, in ordinary terms, with an occasional indication of how they would be expressed in relativity logic. i. The theory of relativity is important, and has at- tracted much attention, because it is a unification of know- ledge and is valid. Einstein makes a number of minor logical errors in his book. But he drops those slight errors and pulls through triumphantly with a formally valid logic — valid so long as he keeps his infinite regresses and actual numerical indefiniteness summed into that jelly-fish space, which miraculously quivers infinitely (but merely verbally). About the only theoretical objection to his work worth men- tioning is that he seems to think that his non-Euclidian re- marks may be real" and different in actual meaning from our ordinary way of talking. But because their phraseology is so novel, the relativitists are not bothered with any of the supersti- tions of the old dualistic science, and hence go along unhindered and discover many new principles and facts hidden by and to that materialism. Hence, the very novelty and quantitative verbal unintelligibility of its verbalisms which repel and puzzle, are the characteristics of relativity which make it valuable now to the scientist by making him forget the materialistic superstitions of the old so-called science. As evidence of that, already it is reported that the German materialists are attacking Einstein, but doing it on other alleged grounds. The reader who does not intend to become an expert scient- ist need not bother with relativity : if the relativitists dis- cover any new fact" that is actually a fact they can state it, even for themselves, much more clearly than in relativity terms, in ordinary terms intelligible to the average reader. CHAPTER IX. Theory of language in terms of Physical Science; or, general unification of "science." §67. a. In this chapter will be shown the general unifi- cation of knowledge in terms of conventional physical ' 'meas- urements," or experiments. I shall state more definitely what that means :- All our positive language is based upon explicit, or tacitly accepted, measures — is expressed in posi- tive Many terms by means of using relationships, which are the "measures." Thus, we speak constantly of a foot, acre, quart, pound, meter, much, little, now, yesterday. Even in the so-called "spiritual" business of (say) getting a wife (or husband) we tacitly use measures :- e. g. , we ordinarily would not accept a spouse who was two feet or ten feet tall, who weighed a ton, or who in mental measures was "unbal- anced." In short, our definite thought and talk is explicitly in Many terms — involving either directly or with but slight indirectness L and T, or some of the numerous practical synonyms of those relationship terms. We talk and think 61 UNIVERSE One VIII §68c in so far as we do it positively and with perceptible useful- ness (cf. §§166, 168), in terms or "measures" of the first two members of our equation, That... X This... and M(vary- ingwith)L?T~*, and have a meaning that is the One or religion tautologically named by the third member. In a general way, physics (or "natural science") is the broad outline statement of such terms or measures made with respect to what we. call "objective" or "material" things (for more specific description of physics and science, see §§85-6). Those terms are the easiest to use : when we learn to use them, then we are more or less competent to use "subjective" or spiritual" terms in Part Three. Hence, physics is simply the actual use of our logic or consistent language, in connec- tion with the simplest or least complicated Many parts (those that are superficially that way, to be quite accurate: all Many parts ultimately are identical in complication). We may have a very fine, theoretically valid language; but if we do not use it, apply it considerably to ourselves and our environment, it is doing us no particular good. Physics uses our logic mostly on the environment" — that being easier to see definitely than ourselves. The general physics of this chapter is therefore a rough , broad application of what we have observed in this Part One. And it is a self-conscious, broadly complete application, so that we may see how it is done, and thus be able to understand our language and use it ourselves for facts of direct interest to us. Physics them- selves are ordinarily of slight direct interest to us : just pure" physical statistics bore me dreadfully. But as clues that enable us to derive the complete detective story of the universe, physics are quite entertaining. As we are going to find out what measures' are, mostly this chapter is the explicit general application of M(varying ■with)l?T~^. b. Hence, all of us who use language have some practi- cal need for this chapter. However, in it I am going to unify all things, in general explicitness, so that there may be no question as to the rigorousness and applicability of our logic, even in the minds of experts. Probably no reader, not even the physical expert, happens to be familiar with and directly interested in all the things which I happen to have looked up and to have mentioned in this chapter. Consequently, parts of it will be decidedly hard reading — rather dull and dry. There is no practical way of avoiding that : everything that is worth having costs some effort. However, the reader can merely casually scan such parts, verifying for himself only the passages that interest him and seem to be of use to him, and (unless he is a professional scientist) he will miss a neg- ligible amount. This is much the hardest" and dullest chapter in the book. §68. a. Orthodox scientists in effect undertake to make a consistent theory of language or logic, naming the result the theory of dimensions. For details of it, see any fairly full physics ; for the few details we need here I use Ency. Brit.," Art. "Units, Dimensions of"; Watson's Physics" (see Appendix A), pp. 6-9; Daniell's "Physics," pp. 15-16, 746, 748. That conventional theory of dimensions, or logic in terms of physics, is correct in principle so far as it goes : it merely is incomplete, and hence gets into confusion with some details. b. Watson's "Physics" explicitly states that a dimen- sion" is a relationship, thus :- "The relation by means of which we derive the magnitude of the unit of any quantity, in terms of the fundamental units, is indicated by what is called the dimensions of the unit in question." The funda- mental units are M, L, and T. To give an example of that rather vague conventional definition of dimensions :- If we write [V]==[M* > I}T~ 1 ~\, it means that a unit of velocity [V] is equal to an agreed-upon unit length, divided by an agreed- upon unit time (i. e., multiplied by [7 1-1 ]), with the agreed- upon unit of mass equally applicable to all ( =°) cases, or from the point of view, not explicitly involved (i. e., M°= M/M"=M 1_1 =l). And that equation [V]={M! s L l Ir v [ is a dimensional equation. The dimensions of V are said to be 0, 1, and — 1 ; or more fully, so as to be completely explicit, the dimensions of V are [M^L^T" 1 ]. It is formally truistic therefore that if a velocity is ever mentioned by physics the explicit or full expression of it must involve just those dimen- sions and none other. And orthodox texts correctly gener- alize that into the principle that in any physical equation which is valid or consistent the dimensions of each member are the same (Watson's Physics," 790; Ency. Brit.," xxvii, 787). Obviously, that actually is equivalent to our principle that the logical proof of anything consists of reduc- ing it to truisms (§35); so fundamentally, orthodox physics is obviously directly our language' or logic' c. A paragraph of arbitrary detail is required here. Or- dinarily physics (as opposed to the theory of relativity) re- gards the [M], etc., as being an agreed-upon unit, fixed and constant, just as are the verbal forms of this book. Then, when (l) various parts of the universe are expressed in terms of that unit, or when (2) a given actual part of the universe varies in different circumstances, the same arbitrary unit is used for measuring (i. e., naming), and a numerical coefficient added, which indicates (l) those different parts, and (2) those changes. When ordinary physics is explicit, it usually uses a small letter for that numerical coefficient or number or measure":- thus mlM] means (say) SM, or 3 grams. Pre- cisely the same agreements are used in everyday language. Thus, as we have seen (§§60hi, 66fg), if we say boy,' the expression is equivalent to [Ml; and we say John, a boy,' big boy, five year old boy, etc., in which the added words or phrases are equivalent to a number, or general name or measure, or numerical coefficient m — and boy' stays steady" or constant, or an agreed-upon verbal unit of the Many like the form [Ml. In this book our fundamental principle that we shall keep the three sorts of words uncon- fused is itself equivalent to saying that our fundamental equation That. . . X This. . . =M(varying ■with)!? 7 1_2 = Universe or Energy is a dimensional equation in which (l) the dots ... and the {varying ■with)' are symbols which are precisely equivalent to those numerical coefficients (as we shall see throughout the chapter; — and it is to be noted that in our equation we always not only express the existence of those coefficients, but also indicate their variable character) ; and in which (2) our M, L, and T are the dimensional units con- ventionally printed with the brackets around them; and in which lastly (3) the That and This (without the dots) are equivalent to such conventional dimensional quantities as lV^ (i. e., That and This, and all names in physics such as V, are not complete and explicit expressions, but are irrational as more fully defined in §71g). Therefore, because the method of speech we are using is already explicitly what physics calls dimensional, we do not need to distinguish such equations by putting the quantities in brackets. Also, as we see throughout this chapter (cf. also §§134, 136,' 138, etc.), orthodox physics uses terms (such as K and U; Index, "K" and " U") which are not dimensional although orthodoxly more or less taken to be so, but are numerical coefficients. So if we were to use such brackets in this book, it would not be possible to use them in a conventional way, because of that orthodox confusion, and also because of the fact that M is not the same sort of formal word that L and T are, and the brackets conventionally used would tend to imply that it is, Obviously, the brackets used by physics indicate a vague and perhaps even conscious yearning to have relationship §68c IX One UNIVERSE 62 terms always distinguished formally from Many names (cf. §§62f, 44). Hence, I omit those brackets hereafter, and will gradually clear up that double confusion that exists in conventional physics, as it becomes intelligible to do so. d. Now, from our investigation of language we have in effect seen:- (l) that all complete sentences are dimensional equations ; (2) that such valid sentences have the same di- mensions in each member ; (3) that finally such dimensions really sum to zero (or °°); (4) and hence all valid sentences are ultimately truisms of the form A=A ; and (5) therefore all verbal "proofs" reduce to that truistic form as being the proof. That is the summary of Part One in terms of physics or physical equations. In detail it obviously means this :- The first member of the general equation is That. . . X This. . . , which, fully expressed, is (ThatY.This)ML™ T"" —and that form permits the tautological (ThatyCThis) to be dropped if we like, so that we have the Many unit M, with actual "di- mensions" or relationships that are °° — °°, or (and the M itself, taking it directly, is all things, or from that point of view has °° dimensions). The second member, M(varying witti)L?T~^, is similarly one in which the actual dimensions are always 2 — 2, or » — 00, etc., or zero — leaving again the Many name M. The third member, Universe or Meaning or Energy, obviously contains no real dimensions (or °° dimen- sions from the other view), or has zero dimensions," and simply implies that it may be arbitrarily divided into M's if we like. So we really have the truism, in physical terms, M=M—M: or, more explicitly, as one M implies others :- All M's— All M's=All M's, and all M's are unified or con- nected. In that equation M is not a dimension" or relation- ship term (but from the other point of view it explicitly implies infinite relationship; the relationship terms can not properly be dropped from positive language ; the definite equation obviously should be M. .. = M. . .=M. .., where ... indicate the dimensions, thus become symbolically infinite). e. Now, the orthodox theory of dimensions does not precisely assert the last paragraph. But I think it is obvious that the conventional theory of dimensions has been striving to say just that paragraph — and very clearly means it. Therefore, in brief, our investigation of language is nothing more than a series of observations of commonplaces, which gives us the same speech or logic" that physical science uses and formally names theory of dimensions." By go- ing at that theory in terms of everyday life, we saw defin- itely its completion, and meaning. f. We need to look at the physics method of speech from one more aspect:- I must again anticipate the proof (§§88, 83, 100, etc.), and assert that we observe different things (split the universe into M's) by noting their surfaces or bounding zones, which are at about the con- ventional 'velocity of light. " (I. e., we in practice divide or split a chair from the rest of the universe because various outside layers of what we call the chair send light" to our eyes, or quantitatively similarly affect other nerves; if we set fire to the chair those velocities change enough to modify our splittings considerably.) The completest theory in orthodox physics is electricity (XIV). That theory uses two names, if and U (which, with respect to electricity, mean respectively the same that visibility and transparence, and somewhat synonymous words, mean with respect to light). K and U are used to give the measures of electrical M's. Orthodoxly, they are nominally dimensions, although it is frankly asserted by competent physicists that their nat- ure is unknown (Watson's ' Physics," 789). But by ordi- nary experiments physicists find that K and U together directly assert the velocity of light. That is to say, all elec- trical M's or parts of the Many are also distinguished or split from the rest of the universe (or "measured" — distinguished and observed and separated into parts and considered different, and all such terms, are simply synonyms of the formal tech- nical term measured) — all electrical M's are also, like a chair, distinguished by what is ultimately the average velocity of light in their neighborhood. And there are names or meas- ures' exactly analogous to K and U in all phenomena. So it perhaps is now generally obvious to the reader that K and U, and the other similar terms, are identical in meaning (but explicit in what we might call quantity of meaning) with our '(varying with).' I. e., they are numerical coefficients which merely designate which actual M it is we are naming by means of the fixed standard form, M — regardless of what "sort" of "phenomenon" we are talking about. They in- dicate that we mean the 'boy K' or the boy John' or even 'the boy matter that has now grown into the man light 1 when we name a boy in certain circumstances — i. e., in certain phenomena. g. Well; that is the total theory or inwardness" of physical science, and the explicit statement of the solution of the only general unsolved problem" in orthodox science. It is no problem ; to repeat, competent physicists know that its non-solution is a verbal confusion, and hence is merely an incompleteness. The theory of physics is hence very simple; anybody not mentally defective can understand that all it is, is a very carefully explicit naming of all its boys' — of all its M's regardless of what clothes or even disguises" they wear, of what changes in appearances (dignifiedly called "transformations") they pass through. The method or way of doing that naming is precisely the way we use daily in talking about different boys ; the physicists call it by the large name theory of dimensions, but there is no reason to fear a cow even if it be referred to as a bos taurus. h. Consequently, physics merely applies the theory of language we have seen, (l) using four or five sets of 'tech- nical terms" instead of the set That...yiThis... (there is a set for electricity, one for heat, etc.), and (2) getting defin- ite numbers, measures, or names for the general (varying •with)' in the second member. We saw in the last chapter that we can make models of language and thus make lang- uage more intelligible to us. In the same way we can make models or machines" or mechanical theories of the particu- lar expressions of physics, and make physics more intelli- gible. Part Two is for that : in' this chapter we take just the general language of physics. i. And we see again (cf. §67b) that this chapter will not be quite familiar, and hence will be hard reading in places. We now see definitely that part of that results be- cause of the confusion which is in orthodox science. The fact is that I personally derived the theory of language by definitely starting with orthodox physical equations and eliminating their inconsistencies. But by actual experience I have found that that directly "scientific" way of unifying science is so deadly dull, especially to professional scientists, that people would rarely read it, and could not keep their minds on it long enough to comprehend it when they did read it. They can't see at first just what it is "good for." It actually is highly useful, and some parts of it are likely to be of interest to the general reader. It is useful because it shows explicitly the general way of making all positive state- ments (that being the base of science, engineering, etc.) — and is brief enough to be grasped in a lump, especially as I have so violently condensed the chapter. But there is no particular reason why the reader who is not directly inter- ested in the special facts to be noticed should make an effort to remember them. §69. a. In this book I shall use for the most part the 63 UNIVERSE One IX §71b conventional physical symbols, as given in "Ency. Brit.," xxvii, 786-45, and Watson's "Physics," 7f, 843f, 789f, adding subscripts r , e, or dots ..., or coefficients to them when necessary to distinguish explicitly the three parts of the Trinity, and substituting English for two Greek letters — there being objections to lugging in Greek if English will serve. The orthodox fundamental equations are of course supposed to be simply a shorthand way of stating the results of different sorts of systematic measurements — of explicit naming. I take it for granted that the reader is roughly aware of how those experiments or measures are made. In the end, of course, all measurements, all observations, consist in observing space (and time) coincidences (or negatively, lack of coincidences); e. g., noting that the top of one boy s head will reach to the same mark as that of another boy s — all that being a mere truism of what we have already seen about language. But if it happens that in any case where I omit statement of details the reader is not roughly familiar with the orthodox experiments he can find descrip- tions of them in any fairly full physics or encyclopedia. b. And in this book, unless otherwise specified by the context, we shall use the ordinary scientific units :- M is the unit representing the mass or quantity (§§70-4.) of a por- tion of matter which weighs a gram at a given place, under given conditions (including date, or T). L is the unit of space, a centimeter, which is the l/lOO part of the distance under certain conditions (including date) between certain marks on a metal bar — kept in Paris, I believe. T is the unit of time, a second, which is the l/86,400 part of an av- erage solar day of the present. The average solar day varies, so we do not know exactly how long a second is, any more than we know exactly the unit M and unit L. §70. a. Conventionally, W=Mg; or weight W of a a body M is equal to the mass M of the body multiplied by the number g, which number names or measures the accel- eration given the body by the force of gravity acting at a certain place under certain conditions, as observed by experi- ments. (Incidentally, under average conditions in temper- ate latitudes at sea level on earth, g is approximately 981cm/sec 2 , or 32ft/sec 2 .) That equation is a numerical or non-dimensional one. W is (conventionally : all this is orthodox, as stated) the force of gravity at a given place and time. Acceleration is the change in velocity during a unit time, or is equal to V\T; F=LT~ l , and hence Accel- eration=LT~ l j T=LT~ 2 - Hence, the dimensional form of the equation for W is F{qf gravity)=MLT~ 2 - Convention- ally, any unit F is equal to, or measured by, the fact that it results in giving unit mass a unit acceleration ; i. e. , if we push with a certain force on a ball, the ball will roll faster and faster if free" to move, under average conditions. Or, as the brief way of saying that :- F=MLT~ 2 . And orthodoxly, energy is force-acting-through-space (the amount of the results of force) ; or Energy=FXL=MLT- 2 XL= ML 2 T~ 2 . Now, orthodoxly, Newton's law of gravity (usually I shall refer to it simply as 'Newton's law') asserts that every body M in the universe attracts every other body M with a force F that varies in each case directly as the two attracting masses and inversely as the square of the distance L between them. If we take all three as being units, we may condense Newton's law to the dimensional equation, F(of gravity)=M 2 Ir 2 . b. Therefore, we have by orthodox physics two equa- tions for F when it is a certain kind of force (the force of gravity) :- F{qf gravity)=MLT~ 2 , and F(qf gravity)= M 2 T~ 2 . Consequently, if we stick to our fundamental agreement A=A, or to the conventional axiom that things equal to the same thing are equal to each other, then ortho- doxly the two F's are equal, and we have MLT" 2 =M 2 L~ 2 - From that, by algebra, 2- 2 =MZT 3 ; or (l) T^^M^L 3 ; or (2) M=L 3 T~ 2 ; or (3) JL^MT 2 . Obviously, any of those three formulas, explicitly interpreted, is sheer nonsense. The first asserts that a time, squared, is equal to a solid space divided by a body; the second, that a body is a solid space divided by a time, squared; the third, that a solid space is a body multiplied by a time, squared — all mutually contradictory nonsense, and all violating the orthodox prin- ciple that the dimensions on the two sides should be the same (§68b). Orthodox science has for years recognized that such a nonsensical self-contradiction existed at its very base or beginning. c. It immediately follows, that (l) the orthodox defini- tion of F is wrong; or (2) the orthodox law of gravity is wrong ; or (3) both are wrong. We find that both are wrong (§74d). That is to say, in defining or writing both of them, conventional science simply failed to note and express ex- plicitly all that was actually observed. The difficulty with both is that too much is left to implication — i. e., orthodox science in them gives no indication as to which of the three sorts of words is being used, and mixes them. Science now actually knows the facts quite well; but there is so much of the expression of those facts omitted in the equations for F, W, and F{qf gravity) that as soon as the equations are compared (to see if science keeps on sticking to A^A), ex- plicit nonsense results. Hence, what we have to do now is to observe just what is meant, and say it explicitly. d. The truth of the matter is that F and W in the equa- tions are not the same, and ought not to have been equated. F is a general way of considering a part of the expression for Energy (and only the total expression of it is intelligible and verbally consistent, anyway; §71g); and W is another sort of part of that expression for Energy. But there is nothing in orthodox physics which explicitly asserts that about those equations, or which in any way explicitly holds that what I did in par. b is not permissible (I merely did with orthodox physics what I did in §44 with orthodox mathematics) — ex- cept of course it is recognized that such nonsense would re- sult, and so conventional physics usually stops before it writes those queer equations — keeps its skeletons decorously in the closet. §71. a. In the first place we can observe that physics undertakes to use F or force itself simultaneously as a Many word and as a relationship word — and then later on uses it as a standard One. Thus in Newton's law, F=MM'/L 2 , F expresses a relationship between two bodies M and M , and is identical in real meaning with cohesion or love (§88), or God the Holy Ghost. But in the orthodox equation FXL= ML 2 T~ 2 = Energy, F is actually an M, a part of the universe, or a Many word (just as in That...XThis..., That... implies an M, or is a Many word ; §36l). And in the orthodox equation F=MLT~~ 2 , F is substantially a One word, as it is absolutely alone. (As a matter of fact [cf. par. g], all of these orthodox equations are logically mystic — i. e., all their symbols are more or less One words. The assignment just made of orthodox F s as various sorts of words is based on the point of view developed by this book.) b. The simplest way in which we can use the conven- tional F, and other symbols, and at the same time keep our thought clear and definite (i. e. , avoid the classic-logic or dualistic mysticism just mentioned), and thus arrive at valid conclusions by following the logical rule (§§43-4), is to dis- tinguish its three uses in the Trinity by three explicit modifi- cations. For such three uses, I shall use two subscripts, r and c, and the dots ... or a numerical coefficient (C, G, K, U, H, J, etc.) that is equivalent to the dots. The subscript §Tlb IX One T means that the symbol it is used with is a relationship word — equivalent to X, -^, =, etc. The subscript e means a zero (or infinity) or One word — usually a standard unit or One. (The , is the initial letter of relationship; I couldn't buy the type for a letter more suitable than e except at a silly price, so I use e , which can be remembered by the fact that it looks somewhat like a little zero.) Our symbol M standing just alone (and also, formally, all the M's used in orthodox science) is a standard unit or One; i. e., at a certain time and place it is taken as a fixed standard, and it is then logically or formally considered to remain so as a word, and always to refer back to those formally absolute conditions (cf. §68c). Consequently, as an M, or other symbol, stand- ing alone formally (i. e., without any dots, or coefficient, or subscript r ) is thus formally indicated to be such a standard, there actually is no positive need to distinguish it by the subscript e ; but often hereafter, as a means of typographic- ally emphasizing its standard nature, I use the subscript. Then, a symbol followed by the dots, or by a coefficient (§72), or by its general equivalent '{varying with), is a That. . . , a Many word ; examples :- M. . . , MC, F... . Further, as there are different "sorts" of force (i. e., con- ventionally, but not at all necessarily, a force is named with various names to indicate "different" phenomena), etc., when it is convenient and clearer thus to name them, I add either the subscript s , meaning a "static phenomenon, or m , meaning a "dynamic" one, and at times further add, in parentheses, the name of the phenomenon. c. Now, if we wish to name at least two M s, in order that later on we may say something about them, clearly we must assert that there are such two parts of the universe, with a relationship F T . That is positively all that F r is — a pure verbal assumption or agreement, serving as a verbal basis of then making an intelligible statement. Then, if we assert that the M's related by the F r do move relatively to each other, there has been a That... or M. . . or F. .. (i. e., an M asserted related) which is compared with the This... which is-are the other M's (any motion of one M, except in the case of an abstract unit or standard, which only exists as a verbal form, changes it to M. ..); and that comparison, or That. . . X This. . . , or standard One or Energy, is u, complete meaning. So we begin to state the implications of our scien- tific" equations, just as was done with Tkis's and That's in §§33-7, as a means of finding out how to make any valid scientific equation or statement. It is a repetition, in scientific" terms — and so I shall condense considerably. The reader already knows the principles — he will see merely the rigorous, definite application of them, which of course serves as final proof of those principles of language. d. The orthodox expression FXL (which equals Energy or ML 2 T~ 2 [§70a], F e being equal to M e LT~ 2 ) is obviously an implication that a standard Me might move over a space Le relative to the implied M e at that location — i. e., the L e is the implied space between the two implied M's, and hence is the "potential" (i. e., implied' or possible" motion) of the two. Consequently, the conventional FXL is actually FeXLe when it is explicitly written and is a pure mysticism equivalent to the similarly pure mysticism ML 2 T~ 2 or its explicit equivalent M e L 2 T~ 2 — i. e., it does not assert, but only implies motion. But clearly, those implications of naming or measuring, just as we saw in the discussion of That. . . X This... (§36), explicitly imply the form (M... XM...)L X 'T'' X ' . That form, depending on how we modify its symbolic ex- pression, clearly is identical with either the first or the sec- ond member of our general equation — to either That. . . X This... or to Mivarying with)l?T~ 2 . As we wish to retain conventional symbols (I am forced to, if\ translate them), we UNIVERSE 6 * may therefore write that form as F...XL... (and further as (M...)L 2 T~ 2 or (MC)L 2 T- 2 ; see §72d). F... and L... are actual Many words— not the standard units or M's taken as the One that are used in the orthodox absolutely mystic formula FeXLe or FXL. e. As we shall see in more and more detail, any scien- tific equation may have a member of that That. . . X This. . . form. In that F...XL... form the F... (or the orthodox F or F e ) or analogous term, is conventionally named the exten- sive factor; and L... (or L or Le) or any analogous term is the intensive factor. Obviously, "extensive factor" agrees with the usual meaning of That:- something away from this ; a completing part or factor, extending the This out. And "intensive" is This — something intensely right here. f. In this book I always print as the first in the pair That. ..XTkis..., the factor which seems to be usually re- garded as the extensive one. 'That' obviously by usual con- vention has a meaning more "extensive" than This' — but not necessarily so; it depends solely upon the point of view. g. Also, those two factors, F. . . and L. . . and all analo- gous ones, are both irrational factors. I. e., each is utterly meaningless when used alone: factor itself means a part, and clearly a part truistically is not a whole or meaning, but ex- plicitly implies incompleteness, and lack of positiveness. That simply means that any Many word implies all the other parts of the Many — that it is sheer, irrational nonsense to say that a Many word, which formally names a part, simul- taneously is not formally a part, but is formally an absolute Whole. Also, the expression FeXLe (or its more con- ventional form FXL.) from the point of view of positiveness is obviously utterly irrational — as Fe and Le are by verbal agreement fixed or formal standard units or Ones that as such logically or truistically contradict being related with the re- sulting variableness. Only as we let FXL imply other ex- pression which is variable and actual and hence positive can it have any actual meaning ; otherwise it is really (as well as formally — and in order to handle the One and Many with valid logic it must be formally or verbally) dualism or the old classic logic, and fundamentally also really nonsensi- cal. E. g., some militaristic Germans tried to consider the This which was their State as being alone worth considering, and a being a real One — and many of the historical results clearly showed the stupidity and ridiculousness of their view. h. So it is already generally evident that the difficulty with orthodox physics is that it is not sufficiently explicit. It unwittingly tried to simplify too much and fell into relig- ious or mystic expression. Simplification" actually con- sists of translation into familiar ( common") terms; it does not mean the ignoring of many things that actually exist, in order to get mere superficial verbal brevity. i. In using such pairs of factors physics obviously uses precisely the same sort of Many names, in precisely the the same sort of way, that ordinary language does. Hence, the factors may be called naming factors ; the more explicit second member of the equation is the measuring member. E. g., in the orthodox physics of gases the names are pressure and volume (pXv; and clearly p and v indicates names more definitely that they do measures, although both are the same in the end); in heat, they are entropy and temperature (EntX Temp); in electricity, quantity of electricity, and potential or intensity or pressure of electricity (QXP); etc. In Richards's explicitly complete extension of Van der Waals's gas equation or kinetic theory, orthodox physics definitely requires or uses the dots, or infinite regress, after those Many names or factors (§§82, 92-3). So I am agreeing with orthodox physics, and not really doing anything new. j. That covers broadly the theory of the first member of 65 UNIVERSE One IX §72d our general equation, as it is used by science." We go on to the broad consideration of the second or measuring mem- ber, and then take up details. §72. a. Explicitly speaking in "scientific" terms (and that explicitness makes this paragraph unfamiliar and queer in form), a specified amount of energy (i. e., a standard or whole universe or One, Energy) is equal to the movement of a specified quantity of matter (which quantity or Many part is hence truistically, or formally necessarily, named relatively to at least one other specified quantity) ; and that meaning of energy truistically implies that the movement must verbally take place' or be expressed. I. e., Energy is motion (expressed of course as the measure ' of it); but further, the verbal assumption of such motion (which is of course necessarily made when we try to express energy) requires a verbal asser- tion of motion — a formal truism which orthodox science over- looks, so that its Energy or M e L 2 T~ 2 is not positive language: it should be M e L?T~ s , as we shall see. I have not there assumed motion." Just as in §22, it was verbally taken that there existed something which we talk about; if so, then the talk of relative parts is motion. Clearly, if a person does not care to say, with everyday peo- ple, that there is motion, then he can take an absolutely static reality or Nirvana, in which nothing changes or varies, but which he describes by arbitrary variation in mere form or relationship of words — a really non-existent change, and hence a verbal proof or truism, of absolutely no motion. b. I shall now express in symbols that explicit Energy. The specified quantity of matter is expressed in standard un- its by M (or Me). The movement' is, in verbally the most parsimonious way, expressed by LT~^ (i. e., not with ulti- mate accuracy as » One by LT -00 ). Then, still quoting from the last paragraph, the truistic naming of M relative to at least one other M' requires at least one more verbal rela- tionship form LT -1 . Next, in order to get the movement verbally to 'take place,' and complete the most parsimonious set of truisms, we must have at least one more relationship form jLT -1 (all that being the "scientific" point of view of §59). And letting the at least one more M (an M ) be im- plied (or letting it be considered to have really joined with the standard M or Me), and collecting together the three LT~ v s that were used, we have:- Energy=ML z T~ z , as a preliminary most frugal sort of expression of energy; — the expression is really mystic unless we include as being a part of it, its context that the M implies at least one more M ; but our chief present interest is the L S T~ S , instead of the L 2 T~ 2 in the conventional ML 2 T~~ 2 . We can see at once that instead of L 3 T~ S , complete expression would have been jjoj-m — jj Ut we neec | not go a g a i n m to the fact that L S T~ S is a practical replacement of that infinite regress and makes the equation inaccurate (§38). Further, orthodox equations omit and thus imply one LT~ X both in defining Energy and in making the actual measurements. I. e. , in making the measurements those orthodox equations tacitly assume that the observer moves at zero velocity in order to measure (i. e., that he sees both M's simultaneously), or at an infinite veloc- ity (i. e., asserts a space between the M's, but ignores its existence or passes over it in zero time) — all of which amounts to asserting Energy=ML 2 T~ 7 ', which expression hence actually asserts that there is absolutely zero potential (or zero L) between the two M's, so that they really could not exhibit any energy. It therefore results that ME 2 T~' 1 is absolutely not, of itself, the positive expression of anything, even if the M is considered as expressing at least two M's : it is absolutely ineffable. But, it furnishes a standard One, and it together with the context we are to supply is to be used as a scientific expression for Energy just as it is now used. c. We noted in the last paragraph that in measuring the unified bodies Me in M e L 2 T~ 2 , we tacitly assumed that the observer (in going from 'egg' to 'pencil' as in §36) took his speed of measuring or observing to be either zero or infinity — i. e., to be absolutely constant, and hence as not needing to be expressed. If the speed is not such, then (as a verbal truism shown in §361 — or as a truism of the fact in par. a that the M's are "moving") every M, for each person at each instant, is necessarily designated by a different name, or else there is a quantitative inaccuracy (as a matter of fact, our speed in that measuring or observing is, to use ordinary language, the velocity of light; so the inaccuracy is slight with respect to things in our everyday practical environment; but it is indispensable that we notice the logic definitely if we are to claim to talk consistently and carefully, and are to have a valid or even a really intelligible physics). Orthodox science takes cognizance of those facts in relativity (§66) ; we are now going to do so without having to abandon our mutual language and then have a formally private language for each person. Obviously, the only possible way to make our equation for Energy formally correct is to put in, or ex- press explicitly, that it is quantitatively inaccurate (which inaccuracy of course resulted when we dropped the explicit jL" j 7 ,_ °°), and also of itself has a logical omission. d. Now, the ordinary standard unit Me which we use is a gram-mass, which is the matter" or substance or part of the universe that is the 1/1000 part of a lump of platinum kept in Paris (Daniell's 'Physics," 13). We distinguish it — only can observe or measure it — because its outer atoms or molecules have zones of ether thatmove at about the velocity of light in our neighborhood (XIII) — actually a varying ve- locity itself (§127). We ourselves as a molar M are more or less at rest (static) compared with that high velocity — not absolutely so, however. Therefore, we assume that we take an average M, and that we may formally for verbal purposes take it to be absolutely fixed and constant always and every- where — i. e., is explicitly an Me. Then, because we observe that any actual body or M. .. varies, we must add to that formal M or Me the dots ..., or a numerical coefficient (a number, such as 1 . 0002... : it can never be accurately a commensurate or rational" or exact number), which we shall call C (that C indicating that we are referring to "ordi- nary or molar bodies, as arbitrarily distinguished from elec- tricity, atoms, light, etc.). Or. MC is merely another way of writing M. .. or M(varying with) (§7 lb); we use that way because conventional science in a number of cases in effect has such letter symbols in its equations. In writing its equation Energy=ML?T~ 2 orthodox science omits explicitly including any equivalent of C — thus (l) taking it quantita- tively for granted that C is equal to 1 ; and (2) taking it logically or qualitatively for granted that C is always steady or a constant, which is absolutely wrong. As a matter of fact, in most practical affairs with molar bodies, C substan- tially is equal to 1 , and is approximately, but never qualita- tively, a constant. But in heat, electricity, light, chemistry, all molecular physics, most gas phenomena, gravity, biology, psychology, etc., C is so far from being a constant, and has changed so much from its quantitative value in molar phys- ics, that in most of those cases orthodox science explicitly gives C a name, experimentally finds it to have that changed value (sometimes an enormous change), and hence usually gives the C different names, and also names those cases' or "phenomena" or branches" of science differently, taking the C of each to be unity for that branch — thus splitting science" into parts or formally disconnected branches, whereas nothing changes between any two branches but velocities, or the measures of velocities — both being arbitrary §72d IX One UNIVERSE 66 anyway. The real confusion in science is caused by the fact that in effect in each branch the original formal or quali- tative error is repeated :- that of asserting that the new C, with its different value, is a constant — thus in effect asserting flatly, with no experimental proof of it, that a unification of science is impossible, and making a verbal impass that has produced the queer relativity theory as an exaggerated re- action. Therefore, from the point of view of the measuring member M(varying with)L 2 T~ 2 , our unification of science will consist of replacing the {varying with)' with the symbols already mostly found by science, and showing that not onl}' by our already observed verbal truisms, but also by scientific experiments those symbols are all identical in character and in measured quantity vary continuously so that there can be nothing but an arbitrary quantitative line be- tween different" phenomena. That is obviously identi- cally the same in principle as unifying science with respect to the first member by always explicitly adding the dots as in F...XI... (§71e-i); here, M(varying ■with)L 2 T~ 2 is equiva- lent to (M...)L 2 T~ 2 , and we are to be explicit about the dots. e. We may now see very briefly some general direct ex- perimental proof that every actual body varies:- (l) The quickest statement of that proof is :- observe that every act- ual body changes — very perceptibly so if we watch it for a long enough time. (2) The general technical experimental proof is that it is observed that mass varies with velocity. (3) Particular proof is, that it can be noted that every so- called physical constant unit has to be described carefully as to date and place — numerous conditions given — before it is considered to be even approximate ; and then it is agreed that no two observers of it are likely to coincide exactly in their measures. The variation is orthodoxly called personal error, etc. , but no proof exists that man is subject to varia- tion or errors while other bodies are miraculously im- mune. That is a direct implication of the infinite regress — of the symbolic need of dots in M. .., or of the C in MC. (4) Further, modern physics, in mechanical theories (in the naming member That... XThis...), substantially reduces all phenomena to a passage or flow of electrons (which have mass and weight) between the various bodies involved in the phenomena; so truistically, the bodies or M's vary. (E. g., if we were merely to look at the standard 1000-gram body in Paris, it actually changes as a result, due to the passage of electrons in the light phenomena that are involved [XIV]. It is quite true that the change is of practically no quantita- tive importance — it would probably be too small to measure by any direct means now available. But it is equally true that it is absolutely wrong to assert, by conventionally using ML?T~ 2 , that there is no change.) We see other ex- perimental proofs throughout the rest of the book. f. Consequently, we have in physics, for the funda- mental positive equation for molar bodies (subject to an additional implied LT~ l ) :- F...XL... =MCL 2 T- 2 =Energy(molar) . §78. a. We shall at once plunge into the meaning, im- plications, and expansion of that somewhat odd looking equa- tion. What we are going to see now is shown in §§75-81 to be nearly explicitly what conventional science asserts in elec- tricity and substantially in heat. So there is essentially nothing novel about our equation. b. We have seen that each of the first two members implies at least two M's. The L. .. in F. .. XL... is implic- itly an assertion of a molar body, which we can consider to be M . Now, we wish to assert the relationship of F. .. and L. .. more explicitly than that abbreviated F...XL... does it. I shall condense the statement of that relationship in this paragraph; but not until all the meaning of the equation, including the explicit mathematical values of F. .. and L... (par. g), is seen, can this paragraph seem very intelligible. We take it that u relationship (the X) exists across a space between two molar bodies Mand M' , and we wish to express that relationship with formal completeness (when we do that I usually name the X more explicitly:- F r ). The surfaces of the bodies are their sole property, as molar bodies — a truism, as property simply ultimately means an ex- pression of, or a concrete, separation into parts, as we shall see more and more clearly in this chapter. I. e., a body is a molar body when we consider that it has a surface zone of motion — the insides of the body being static or motionless so far as formal expression explicitly goes (of course, such a condition is never true of any actual body, and hence such formal molar equations are never accurate — and unless understood to imply the present context, by the agreement that C is variable infinitely, conventional molar or static equa- tions are illogical). Furthermore, because of the formally omitted LT~ l , the space between Mand M is also consid- ered to be logically negligible, or constant, or static, or traveled over in the process of naming in absolutely zero time (§72b), so that that space is simply and solely the divi- sion (a relationship) of the One into at least two parts. (I. e. , the L. .. tends to take on the form L r , and finally changes in the L e which is the L" in the orthodox FXL; — the three forms of the Trinity are so intimately mixed in that L" that to reform the confusion science humanly used the unnecessarily violent method of revolting to relativity, in which the Le, or the L in MCL 2 T~ 2 , is entirely thrown away or repudiated verbally — although still tacitly used.) Hence, that space Lr (actually the X in F. .. XL. ..) is form- ally or logically a symbol or a surface' — what I shall call a difference surface, meaning not a geometrical surface, but a bounding zone. Incidentally, the "F" in the ortho- dox FXL, when that FXL is implicitly taken to have a meaning, like our L. . . implies other forms of the Trinity ; but technically the orthodox F XL is a rigid and hence mys- tic FeXLe, as we shall see further. c. We have then a formal relationship F T from M' ex- tending across a logically or formally dead or static space which we may call d (distance: it is a conventional symbol, equivalent to L), to another body M. I. e., the two bodies are actually united, but we verbally take them to be separ- ated by the formal relationship space d, and then assert the relationship force F r as uniting them — that being the usual formal cancellation of the verbal contradiction in the One and Many. I shall call that F r across an absolutely formal relationship space:- 'F r (molar)' — in agreement with the conventions stated in the last paragraph. As we are speaking ordinary 3-dimension language, therefore, as a tru- ism (cf. §§36de, 59), as we move formally (as a relationship LT~ l ) from M' to M, the cancelling relationship or force F r (which here takes the place of the usual "time" — or is an "objective" synonym of the "subjective" T; cf. §§150-l) must also spread out into the other two dimensions ; for, the relationship is inclusive of all M's, as a truism of its original introduction into the discussion; or, M itself (by §59) has by our parsimonious explicit language, three dimensions. Putting that observation of verbal truisms into ordinary sym- bols, we have:- F r (molar)=M(LT- 1 )M'ld 2 . (That LT~ l indicates that those M's are actual M...'s and not M/s.) d. That equation resembles Newton's law of gravity — would be it explicitly if we hadn't taken the trouble to be explicit about the LT" 1 . But it is not any law of gravity. It is, so far, simply an explicit statement of a relationship named F r which is true anywhere in the universe across any portion of formal relating space between molar bodies — and 67 UNIVERSE One IX §T3h as such is a symbolic, brief expression of simple truisms of the naming or arbitrary recognition of such bodies as formal parts of the One which they constitute. It is nothing more; it is a verbal preparation or agreement or form for measuring, or for expressing observations, and is not the actual measur- ing or expression of actual measuring or experiments. Or, it is what is conventionally called the mathematical limit; it is the ultimate abstraction and applies to no actual phenome- non (§88f, etc.). And it is important to observe that that so-called inverse square law which appears in that equation (the \d 2 or -^~d 2 or d~~ 2 ), and which appears so often in science, is nothing more than a verbal truism based on the agreement to use 3-dimension space. The inverse square law is purely logical — an agreement of speech. That law ex- plicitly is:- (M...)(M'...)ld 2 , As we shall see, the measured or observed so-called force between any two distinguished- apart actual bodies is never accurately stated by the form MeMe'ld 2 ; that form (more conventionally written MM' jd 2 or M 2 L~ 2 ) assumes the existence of a constant relationship F r which is never actually, or in a Many sense, the case, as M's always change (§72). A good physicist could readily finish writing the valid physical equations from just that crucial logical point. But to save him work I shall develop some of them; and we shall see more intelligible details of those very broad conclusions as we proceed (§§77, 83, 98, Index, Static and dynamic"). e. We may write that equation:- F r =(M.. .)(M' ...)d" 2 or JV=(MC)(MC)/d 2 or F r =M 2 C 2 Lr 2 - That simply puts it in conventional form — one which is analogous to electrical equations, and is in superficial form like Newton's law. We could have used any other symbol beside C, and given that symbol any numerical exponent besides that 2. As a stand- ard of measuring, the inverse square law or formula of course becomes M 2 L~ 2 , where the C is the average 1. f. As we saw, F. .. in F...y(.L... explicitly implies an M. . . . We may arbitrarily take it that F. . . is one of those Af...'sin¥ 2 C 2 L~ 2 : or, F. . . =M. . . =MC. (That does not mean that F...—the MC in MCL 2 T~ 2 of §72f, any more than that one of the six dots here printed in F...Y.L... is equal to one of the three dots in M...I?T~~ 2 . If we wished, we could interpret F... as the MC in MCL 2 T~ 2 ; it would merely result in making a different distribution of names, and would make MC in M 2 C 2 L~~ 2 have some other name. Also, see next paragraph.) When we thus talk of F... as being an actual body M. . . , we are doing precisely what conventional science does in talking of JXI — except for the secondary fact that science means by F" :- Fe, or an ultimately av- erage or standard or abstract M. " Orthodox science says that that F e is a force that resides" on or in the body, which by moving through L displays the M e L 2 T~ 2 or Energy. Now, if one entity "F" resides" on another named M, then that residence' is simply an implication of a relation- ship not explicitly expressed. Hence, without repeating all the truisms as to the identity of relationships (§28h), it is a truism that the F... (or the orthodox "F") is identical with the M... (or with the orthodox "M" in which it "re- sides"): a sufficient practical explicitly expressed proof of that for this place is that "M" is tacitly taken to occupy all the space it occupies, and as the "F" is held to be in the same space, then by science's "axiom" (A=A agreement) that two things can not occupy the same space simultane- ously, the "F" must be the "M." So we are quite in agreement with conventions in taking F... to be an M... — although verbally we are more explicit. That truism that a "force residing" is the body itself in which it resides is an important one, although here condensed into a few lines, as an incident to another subject. There are numer- ous attempted absolute dualisms in conventional science be- tween "F" and "ilf" because the "F" "resides": that truism eliminates them all. g. Therefore, inside the narrow special limits in which we take our average or standard units M e , L, T, we have F T (mo- lar) on an average (i. e., in mutual language or names) giv- ing a unit acceleration to a unit mass ; or, as a mutual, standard statement of unit quantities, F r (molar)=M e LT~ 2 . Therefore, we have the explicit, definite, actual translation of actual M. ..'s into mutual, average, standard language :- M e L.T~ 2 ={M 2 C 2 )lr 2 . (Incidentally, that equation shows explicitly why F... is not the MC in MCL 2 ^ 2 ; cf. §70b.) Then, for the F. . . in F...Y.L... we obviously have :- F. . . or F.. .(matter) or F.. .(molar matter) or F...(static)=MC = y / (M 2 C 2 )=i/[(M e LT- 2 )L 2 ]^M e ^L VA T^ 1 . That is explic- itly F... (which we were after), when or if we are making molar measurements or experiments under standard condi- tions. Hence, L...(static)=MCL 2 T- 2 IM e ^L VA T- 1 ^ M^CL^T- 1 . And F e (static)^F...jC=M^C- l L^T- 1 . And Ustatic) = Me^T^/M^C^L^T- 1 = M^CL^T' 1 . Therefore, as a truism of course, F e y,Le=M e L?T~ 2 , which is the same as the orthodox equation Fy^E=M.E 2 T~ 2 =En- ergy. So it is obvious that we have not at all found any real error in orthodox physics — we have merely been explicit as as to what the conventional equations mean. h. We may get » preliminary general understanding of those equations by considering that orthodox science, in those it asserts, is absolutely anthropocentric — takes the ob- server, or the asserter of the equations, as being a standard One, who then talks absolute mysticism. For the conven- tional F T (in "F=MLT~ 2 ") obviously consistently refers only to what the observer considers actually coincident with himself at a (or °°) point in space and time, which condi- tions are taken arbitrarily as a unit or standard, or as an ab- solute point of reference for subsequent comparison. Then, he asserts, in calm and complete disregard of all the actual facts and of all verbal consistency, that that absolute One moves a distance L (in FyiL) and gives Energy=Ml?T~ 2 . Clearly, (l) motion is then an absolute assumption of some- thing which truistically is then unexplainable and indefinable (the observer as that anthropocentric One is an immovable body, and it can t move, according to our usual verbal agree- ments) ; (2) that distance L also becomes some change re- ferring to the same absolute One, and is precisely analogous to the motion; and finally (3) there is absolutely nothing whatever stated as to why that absolute One should move or exhibit energy ; — there is expressed or given no potential — no possibility' of travel through L, whatever that travel" or motion' might be — nothing to make that One move. Those difficulties have now been shown to be purely verbal, and we have obviated all of them but one, by being verbally explicit and showing the logical truisms, thus :- We do begin by anthropocentrically adopting a One standard, F r —MLT~ 2 ; and we end by translating back into an anthropocentric One, F e "y(Le=M e L 2 T~ . But in doing all that we have included expression of all changes and have thus succeeded in making our One standard average (instead of uniquely and rigidly individual or anthropocentric), and hence mutually intelligible, and universally applicable. The defect in the explicitness (the lack of completeness in logical truisms) in the equations in the last paragraph is that no po- tential is expressed in them or by them. I. e., I omitted explicit assertion that in order to make F e become F. . . the space between M and M (par. b, and §72b) can not be static or dead or verbally negligible. I. e., an ZZ 1-1 was omitted — the inclusion of which would have given us the ex- plicit expression for energy. As a truistic consequence of that, §T3h IX One as we saw in the last paragraph L the same value, M) i CV i T~ 1 . L s is the formal verbal agree- ment that there may be a potential, which our L. .. then (as a consequence of omitting that LT" 1 ) merely names without asserting (just as the anthropocentric FXL=ML 2 T~ 2 fails to state what it is that is going to cause — to assert mo- tion). Therefore, our equations in the last paragraph merely name Energy, and do not state that it is in existence — i. e., do not finish stating that we did divide the One as per agree- ment and then put it together again. That is quite in har- mony with the commonsense, valid conclusion of orthodox science about its Energy :- that energy which is actual energy — which does move — is "power," or MI?T~*. Therefore it is obvious that we may use a form of ML 2 jT~ 2 for Energy, instead of ML 3 !? 1-3 ; but we always have to remember that it names energy only, omitting an LT -1 . Perhaps it may be preferable in the future to be quite explicit about Energy and put in that LT -1 — it is a matter of expediency ; of what is verbally convenient. But in this book I am forced to use both the old verbalisms and their new and more explicit forms, and neither my own brain nor the usual reader s can support the strain of completely changing here. §74. a. We can now see just what Newton's law is, and how he got the logic wrong. Numerically, Newton s law is written F(qf gravity)^ MM' G / d 2 , in which G is orthodoxly taken to be a real constant number, determined by measur- ing. Newton and those who believe Newton's law to be logical (Newton himself seemed to be doubtful as to whether his law" was self-consistent) assert that G is constant — is everywhere and at every-time the same, regardless of the relative circumstances of M and M . As an actual fact, Newton guessed that G was a constant, and found that his guess was fairly accurate with respect to the large bodies, considerably separated, inside the solar system. Newton didn t know much about the principles of gravity, and he knew that he didn t, as I implied in the last sentence (see Brewster's life of Newton). However, it is now known that G is not accurately constant even for such measures in- side the solar system (Eddington, lecture Royal Inst., re- printed from Nature in Sc. Am. Supp.," July 6, 13, 1918; Tunzelmann, A Treatise on Electrical Theory and the Problem of the Universe," 418). Also, two more or less adjacent molecules of a body obviously may be consid- ered two M's, and it is glaringly evident to physicists that Newton's law fails to apply accurately between them — that there G is not a constant, and not even near the value of the orthodox G. Hence, quantitatively, Newton's law is ex- perimentally known to be inaccurate. Logically, it is wholly wrong, if it is supposed to apply to any actual bodies, as we see in the next paragraph. b. In speaking of gravity it is taken for granted that it is some sort of force' ' W (explicitly it is W... in actuality, or W e as an average unit) residing" on or in all the parts of a bodj 7 — including the insides of the body. That is shown to be the case by the fact that we speak of the pull of gravi- ty traveling, apparently unchanged (cf. §8Sf), through bod- ies and into all their parts. It therefore follows that in naming the force of gravity [F(gravity) — which of course at once implies F... (gravity)] we consider the whole insides of the two M's in the orthodox expression MM'GJd 2 as being split up in parts — i. e., Mand M are structural, or intern UNIVERSE 68 and Le have identically M' are moving inside, Newton's law ought to be simply a ally moving relatively, or dynamic statement of moving bodies, of which F... (static) in the last section is the static form. Therefore, as the bodies which explicitly assert gravity [the bodies which have a 'resi- dent' Fr(gravity)] , or have IV..., are dynamic (are really, ultimately, divided into relatively moving parts in infinite re- gress), we simply explicitly and consistently say so, as a verbal agreement of naming — i. e., we state an if, — thus:- F r (gravity or dynamic matter, or dynamic molar" matter)= (M . . .)(LT~ l )(moving M...)/L 2 . I. e., as in the last section, we have to name M and M' relatively to each other, with F r spreading out in the other two dimensions, and we hence first have M(L7^ x )MIL 2 ; but then, we said that each M was itself internally split, so we have to make those M's into M. ..'s; and then as there was to be relative motion (not is, but merely potentially, or if: an if of mere existence' or preliminary verbal form), one of those M. ,.'s is a moving M.' Now, as in the special circumstances in which New- ton's law MM'Gld 2 is true the M's would have to be abso- lutely static, it follows that if we have dynamic M. .. s we would have to write for those M's or for MG^- of Newton's law the expression MG~^. And for the moving' we write LT~ l . Hence, we have the equation:- F r (gravity)= (MG- y ')(MG- % LT- l )(UJr l )lL 2 ^M 2 G- l T^ 2 . Therefore, if as standard units F T (molar) is r =^M. e LT~ 2 , then, as a uni- versal law true everywhere at every time, F T (gravity)= M 2 G~ 1 T~ 2 , in which G is a variable number with relation- ships to be indicated below. That is the actual quantitative law of gravity, consistently expressed in everyday Trinity language : it is identical with Ampere s law in electricity, and can be understood better by comparing it with that law (§§76-7). Newton's law is a static statement of a special case, and is not logical even for that. For the mechanics of gravity, which are very simple, see §§103, 134. The valid law of gravity is, of course, not intelligible at all, as such or of itself, for the most excellent reason that it is merely a statement of an if:- if so and so is verbally agreed-upon as a manner of speech, then we may measure or speak in a certain way, and will later on use such preliminary measures (or 'ir- rational' or of-itself-unintelligible factor; §71g) in the ex- pression of such and such a One or standard One ; — but the law does not in the least make that intelligible statement of energy, or pretend to. And that if is easy to understand as a partial statement, and is completely "explained," it amounting to this :- jf we agree to name a boy John, then we are prepared to say that John did so and so. c. We hence have, precisely as in §73g (and as we see again in electricity, §76d) :- F r (dynamic)=M e LT~ 2 , as unit, average naming agreements. And, as a translation of actual M... (dynamic or gravitational):- M e LT~ 2 = M 2 G~ 1 T~ 2 . Hence, F... (dynamic or gravitational) = W '...= M G~^= V[(M e LT- 2 )T 2 ]=M e ^L^. We shall use A... (chemical Affinity; see par. e for description of it) as the intensive factor corresponding to the extensive factor W..., so that W...XA...=Energy. Then, A...=MG ii L 2 T- 2 IM e ^L^= M^G^L^T- 2 . And W.= W...lGr*=M*G*L* And A e =M e L 2 T- 2 IM^G^L'^=M^G-^L^T- 2 . And as a tru- ism, W e XA e =M e L 2 T~ 2 , which is an equation missing in orthodox science, that in strictly conventional terms would be WXA=ML 2 r- 2 =Energy. Because Newton's law form- ally is erroneously stated (as was shown in the last paragraph) Hence, as the M and that equation in orthodox science uses instead of A the 74b Hence, it is at once a glaring truism that Newton's law, by making G constant, in effect asserts that the M's are fixed, con- stant, and unchangeable, and hence not structural. Therefore, the very form of Newton's law asserts that the mechanics or the de- scription of gravity is non-existent — is qualitatively or absolutely impossible. The orthodox law of gravity is static, and gravity itself is dynamic. An eternally dead or absolutely static One has no "mechanics," as a mere truism— unless we shift to a different lang- uage from the one Newton was talking, which is our ordinary one Thus it is seen that a "mechanics" of Newton's gravity is impossible 69 UNIVERSE One IX §75a orthodox static potential symbol L, and writes the equa- tion Wy(L^MLrT~ 2 = z Energy — which is obviously a very confused, and except in narrow conditions, wrong expression. d. It therefore follows at once that the comparison of F '.. .(ordinary molar bodies, or static), and F... (dynamic bodies) or W..., instead of being the nonsense orthodoxly derived in §70b, is:- F...\W..—M.: A l}^T^\Me^V i =LT- x —or, is a velocity. Obviously, in order to get the expression of dy- namic matter from the expression of static matter we truis- tically deliberately inserted a velocity, LT~ l , in par. b. So as a cancelling truism, it comes out again when we compare static matter (F...) with dynamic matter (W...). The ex- plicit velocity which we put in is the velocity of light — which we use as a distinguishing criterion in naming. Explicitly, F...jW...= MClMG~ H =CG y *=L T- 1 =average velocity of light here and now (see par. f). Hence, purely by verbal agreements, LT~ l is the velocity of light, just as we see it is in electricity (§77), and in all the other branches" of physics or knowledge (§§83, 100, 136, etc.). The fact that in electricity, etc., the same verbal LT~ l is also experiment- ally observed to be the velocity of light is nothing more than the observational verification that in that branch the same criterion was put in as a verbal form and then orthodoxly kept unconfused. The reader is not likely to grasp that general unifying point in its entirety until he has finished the book. It is merely a rigorous expression in terms of physical measurement of the fact that the total universe is inseparably related. If you do not happen to be interested in remembering or seeing how the technical language or slang of physics expresses it, you lose nothing essential in passing over this casually; for the same facts are later on expressed in familiar terms of everyday life. e. We noted in par. c that orthodoxly WX.L and FXL are considered logically identical; but we saw (§73g, and in par. c) that they were not so : in a rough quantitative way in fairly steady molar circumstances here and now they may of course be used alike. We need the special symbol A for the "L" in "IVXL." We saw in §71 e-g that F... (and implicitly TV...) is an incomplete expression — a factor, irrational when used alone. W... itself (par. b) simply names matter considered divided internally in parts. Sup- pose we name those parts atoms (we could give them any "structural" name: atoms happens to be a familiar one, and later we see that atoms are the conventional small parts which have an outlining zone of motion at about the -velocity of light). Then it is obvious that W... simply implies a verbal agreement to speak of atoms — implies that there are This's, compared with which W... is That's. A W (without dots) — a "weight" just in itself, asserting or implying ararelated That's — really asserts chaos : has absolutely no meaning. Clearly that is true: for weight means something only when we consider whatever it is that has weight as be- ing (so to speak) stuck to the earth, or combined with or compared with the earth (or sun, etc.). And obviously, in our explicit scientific language, we want a word to go with W which will be an a^thing to which the M implied by the W is stuck: we do not, in describing the universe, wish to ex- press everything directly and immediately in terms of our little earth — it would be provincial, to say the kindest thing about it; sometimes the earth is too small, and other times it is too large, to be a useful comparison. The usual name for whatever it is that makes things thus stick together especially atoms — is chemical affinity. We may give it the abbreviated name A. Incidentally, that A is not the A (which represents any symbol, word, thing) in our formal truism A=A ; but the two are always readily distinguishable by the context. So we have (as already seen in par. c) the dynamic or gravitational equation for matter in general (as distinguished from the matter that is electricity, light, etc.) :- W... XA . . .=MG^L 2 T~ 2 =Energy(dynamic or gravitational). f. I shall be more explicit as to the comparison of static matter and dynamic matter — which comparison gave (par. d) the average velocity of light in our neighborhood (which velocity I shall abbreviate to V\). We had F.../W...— MClMG-' A =CG 1A =LT~ l =V\. That equation- assumes that we talk of the same actual M from two points of view :- the static and the dynamic. So the CG^- obviously merely states that one point of view is in or from a static velocity, and the other point of view is to consider ourselves as observers in a dynamic body with a velocity of CG Vi units (which is Vi), looking at a static body. We may get that numerical ratio more explicitly:- Fe/fV e = M ii C- 1 L lii T- 1 lM ii G ii V i = LT~ 1 ICG' / *; hence, if the bodies on which the standard units F e and W e reside are the same, then FelWe=l, and LT~*=CG' A . Consequently, as our equations for matter are constructed with perfect generality, they may be transformed as desired, and converted into any other physical equations, especially the orthodox ones of modern electrical theory (see §§77, 83, 100, 136, etc.). Also, as we are taking C and G as being numerical factors of an explicitly variable V\ (which however is approximately the same for all of us on earth at any given time), with the unit or standard M, L, and T formally fixed, it is obvious that those fundamental equations at once furnish a mutually intelligible base upon which to establish with rigorous identity all physical naming (although no quan- titative accuracy is possible, for the simple reason that V\ is never exactly the same for two persons). We may also note a simple fact showing that we have rigorously uni- fied all possible naming:- The density" of a body obvi- ously implies that it is considered as a molar or formally not-internally-moving body ; its dimensional equation is evidence of that:- Density=ML~ s (Daniell's Physics," 224). The elasticity" of a body, as given by its resistance to direct compression, stretching, or shear, obviously re- fers to it as made up of mutually movable parts, which in general is the dynamic way in which gravity refers to a body. The dimensions of such direct elasticity are, Elasticity^ MLT l T- 2 (Daniell's "Physics," 263). Therefore, we have Density I Elasticity— ML~ S I MLT 1 T~ 2 = 1 / V 2 . Hence, if the same units are used, Density / EIasticity=l I V 2 = 1 JC 2 G = l/K~ 1 LT' 1 (see §§80i, 95b; also, Tunzelmann, "Electrical Theory," 32). That again obviously unifies all of science, and directly connects this elementary theory to all valid physics, especially the usual Maxwell theory of electricity and its extensions. I. e., it is obvious if the reader is famil- iar with the physics I have cited : if he is not a physicist there is no special need that he verify the point, as the same thing is proved in familiar ways repeatedly below. §75. a. We now take up fundamental electricity. We shall conclude that orthodox science handles it in rough gen- erality quite consistently, and in precisely the way we have just found was necessary to express ordinary matter. We find that conventional science is, however, if we interpret it explicitly, wholly wrong logically about electricity, in that (precisely like Newton with his G) it considers K (which actually is analogous with our variable C) and U (which act- ually is analogous with our variable G) as constant. The experimental facts are, that those values are fairly steady in ordinary circumstances (i. e., vary almost "constantly" with the thickness r or L of the various spaces" — actually the substances — through which the electrical "forces" act); nevertheless, measured values of them vary quite percept- ibly from constancy (see Ency. Brit.," ix, 245-6, and Art. §75a IX One Magnetism"). It could be claimed of course that those perceptible variations were variations in space itself; that gives the relativity theory (§66). But I am taking it for granted that we propose to talk our everyday Trinity lang- uage, and I am tinkering it into workable condition, after all the abuse it has received. Also, it will be shown that Ohm's law is empirical (§136); and that fact is shown to be directly equivalent to the principle that there is a vari- able K and U — that there is no exact science, or no constant in the universe; or mass varies with velocity. b. Briefly, the "specific inductive capacity, or di- electric constant," or 'permittivity, or K of a substance is the numerical ratio of the electric force which it permits to pass, to the force which is passed by air taken as a unit standard (or its ratio to that passed by a vacuum," according to some physicists : a vacuum acts practically as air does); i. e., K of air is 1. Thus, two bodies of static electricity exert mutual electric force on each other across a dead' or static difference surface' or space (specifically now in electricity, even orthodoxly, through an actual substance or "dielectric"), precisely as we saw molar force F r \molar) doing in §73cd. Hence, in precisely the same way, F r (static electricity)={Q s K-*-){Q. a K-K)ld % , in which QsK~ K is a unit body of static electricity {Qs...), analogous in all respects to a molar body, with this explicit distinction (see XIV for details) :- if an actual M and an actual M be touched to- gether and then separated, some of one of the bodies will always stick to the other; after the separation, if the amount of one which is stuck to the other is not molarly' or grossly perceptible, we still call the bodies the same molar bodies M and M' (which obviously is not accurate or even rational, just of itself), and then proceed to correct that assertion by calling the amount stuck on one :- Qs. . . , or a quantity of {static) electricity. Therefore, obviously, so long as that Q 3 ... does not go moving around on the body perceptibly (it always does move some), and hence so long as we do not formally consider it split up internally, it is formally a lump or molar' body of an attenuated sort, definitely named static electricity. So we treat it as static. The orthodox equation is F= Qp'lKcP, in which K is supposed to be a constant of a nature otherwise unknown; I have merely changed that interpreta- tion to agree with the quantitative experimental facts; and in order to make it logical, I am attaching the K (in place of the dots in Qs...) to the "Qs," thus:- Q S K~%. (It happens that K was orthodoxly put into the denominator of that frac- tion ; hence, in accordance with that arbitrary and logically unessential agreement, the exponent ~ y * of K is different in sign from that of our G.) c. Briefly, the permeability,' or magnetic permea- bility," or coefficient of magnetic induction," etc., or U (which most texts symbolize by m), is the ratio (a numerical coefficient again) of the electric force or relationship in any given case which is induced, or which permeates" a body as gravity does, with respect to the inducing magnetic force. I. e., two bodies of dynamic or magnetic electricity (which we shall see, especially in XIV, is static electricity split up," or with insides relatively moving with V\), are consid- ered to exert electric force throughout (inside) themselves, precisely as we saw gravity doing (i. e., are considered to be completely related to each other, in all splittings, or in infinite regress — although practically we call the velocity of light average, tacitly using our eyes as a quantitative stand- ard, and do not go to that infinity, but are content with the resulting inaccuracy). Therefore, following precisely the same truisms of expressions as were followed there (§74 T -1 ; and substituting, F — mQmT~ l lr~ 2 ; or explicitly, F T = {m. . .){Q m . . .)LT~ l r~ 2 ; hence, as Qm is an explicitly moving m... (see next paragraph), we orthodoxly also explicitly have the same "experimental" equation as the equation already derived purely verbally (i. e. , by experiments or observations on words).- F^mlfi^imU^LT-^LT^L-^. I. e., our verbal truisms are now in definite agreement with orthodox observational" equations — taking it that by correct obser- vation K and V are not quantitatively constant. Then, as before, we have the general One static reference or zero point, F re =MeLT- 2 . Therefore, Q m ...(dyn. elec.)=mU' A = \/[{MeLT- 2 )TV\=Me lA LK. And Q me , or the orthodox Qm, = Q m ...IU H =M' A U-' A LYK And the orthodox E.M.F., or P me , =ML 2 T- 2 IW A U-' A LyK Q m ...XP m ...=MU-' A L 2 T' 2 . And Pm...=M^U- A L 1 ^T~ 2 . And we see from those val- ues that Q B ...jQ m ...=LT~ l ; or orthodoxly, QsjQm or ex- plicitly Qn/Qne^LT-ilK-XU-*. ■ And the same remarks about potential (cf. par. c) still apply — an LT~ l has been omitted, so that now the difference between Pme and P m . . . is that Pm. . . is multiplied by ( U~^ 2 ) 2 to give Pme ; i. e. , the moving m has the purely verbal inverse square law applied to it, and has not yet actually become a real differ- ence in potential. Or, to put briefly what we see in more detail in the next section, the purely naming inverse square law (which is hence absolutely explained" as being a ver- bal truism of naming an arbitrary splitting of the One) is applied once in order to name the static m s; then, the same purely naming inverse square truism is applied a second time internally in the moving-m or Qm, in order to name the parts or the dynamic changes or internal motion of Q m or one of those m's previously statically or molarly' named. That absolutely explains the + ^ (rather than the ~' A ) exponent of the t/'sin the actual F T ={mU A ){mU A ){LT- l ) 2 L- 2 ; it is what I shall call the second inclusion or use or application of the inverse square law — a purely verbal way of making the es- sential cancelling of L's and T's, so that we may rigidly and honestly adhere to our agreement that A=A. But that second inverse square obviously still does not assert that the zero or unit or static or point' m actually gives or exhibits any potential. In practice, we verbally insert another LT~* in the equation, and get "power" (§73h). And in order to have our really mystic point m become actual, and consist- ently apply to parts of the universe, and not be restricted to mere geometrical abstractions, we assert that U is not con- stant — a truism naturally in agreement with observed facts, because we started these truisms on the natural fact that bodies change. That gives no exact science, and in effect logically includes an infinite regress of the inverse square law itself. That is to say, actually or observably all m's have structures — internal motions. So when we apply the inverse square naming to the One, we would in practical actu- ality take some finite smaller structure as a static or molar' body of reference ; but, theoretically and also practically in the degree in which our perception and use of the universe increases, that structure or smaller or unit static m in turn must be split, in order to be more accurate and definite — and so on ad infinitum. So we parsimoniously chop that theo- retical ad infinitum logic (not our practical efforts to use smaller and smaller structures : cf. Part Two) sharp off by calling U variable — which obviously will logically take care of all splittings. In practice, we can and do take two points of view:- (l) we consider ourselves on a static body (i. e., take ourselves in effect static), and observe (i) static bodies, and (ii) moving bodies and compare them; (2) we take our point of view as dynamic or as moving, and observe the same two sorts of bodies. Consequently, it is obvious that we need, and do use, the inverse square naming device twice ; we get started on that infinite regress of points of view (i. e., we ourselves in turn are partly static and partly dy- namic, etc., etc.); but having thus essentially experienced how we go from parts to the larger standard whole they make or vice versa — from a structure of one order (as molecules) to one of a different order (as a molar body) — we then chop off §76d IX One UNIVERSE 72 the remainder of the naming devices. It is a trifle puzzling at first, when stated explicitly : in implicit practice it is so simple that three-year-olds understand it so well as to use it fluently. I shall give a few details in the next section of just how Ampere did it in practice (see also §83). In this sharp, explicit form here that is needed by experts, the prop- osition is hard to see because it is stated in technical terms not very familiar except to physicists. — But in every- simple :- If we i. e.. day, rough terms all this is exceedingly want to get the energy from coal we burn the coal: actual energy consists of the coal's changing its inner struct- ure, and ceasing to be coal. If we ourselves work — do some- thing, — we partly destroy ourselves — partly die (usually we eat some food and grow back again). Hence, when we be- gin to express or name energy, the body which actually gives the energy ceases to be, and then of course there is not any such body to name: obviously, the actuality or the reality is ineffable. So, what we actually do is formally to name the body as exploding or flying into pieces (so to speak), and we name those pieces as flying out in 1?, while we ourselves nominally or with tacit formality take the line of the third dimension to the other body which receives the energy. That body grows (explodes or changes itself into something else, in what we might call the opposite direction; see Index, Growth"), or verbally receives the energy into itself by the inverse square relationship. So we end, not with the two bodies we first named, but with two bodies that in strict verbal truth are new, and would have to have two new names unless we used that inverse square device twice, as a general way of implicit double naming. There is no need to try to grasp all that here, in that condensed form. All that needs to be noted is that the instant we start to use language it will slip out of our positive grasp unless we de- vise that infinite regress of inverse square naming to hold it. e. It has been observed experimentally that a moving static charge or Q s and a moving magnet m both create what is called a magnetic field ("Ency. Brit.," ix, 216; and Art. Magnetism"); and hence both cause a current (or, truis- tically with our equations, are a current, when "matter" is consistently defined; i. e., Q a ..., Qm...., m..., and c... are all simply different names for matter). Ampere went indi- rectly about measuring a current (Watson's "Physics," 688), and instead of getting the immediate complete statement of those observations just mentioned (I have put them in a form reversed from the usual point of view), he made an if state- ment, a complex verbal naming:- F T {dyn. elec.)=mcl/r 2 . He tacitly assumed as a context of that statement:- F r {dyn. elec.)=m 2 U- 1 L- 2 , and c=Q ms T, and Fr=MLT~ 2 , and Q se X Pse=ML 2 T~ 2 What I did in the last paragraph was to combine all of Ampere's if s and tacit verbal agreements into a complete single statement. I did not put that com- plete statement into the equation for Energy ; that equation lacked an LT^ 1 : the complete statement is in the context — and, as we saw, more or less had to be in the context, be- cause the Q m or other matter, if it did produce Energy, died," and did not any longer exist as Q m to be talked about. So in the next section we see some of the details of Ampere's law — of the double use of the inverse square law in mentioning any actual energy. §77. a. The orthodox equation F T =mcl/r 2 , when it talks of multiplying m and c together, actually explicitly as- serts that it will multiply raules by cows — which of course is pure nonsense unless a definite proof is given that the ulti- mate meaning is merely that m and c are related as identities ■ — that mules Xcows' merely means that both are (say) ani- mals — that m and c are the same sort of matter. Actually, in that equational statement of Ampere's law, m is a static unit m e that implicitly implies an unstated inverse square law, and c is dynamic zero matter c e that is nominal^' dis- tributed over the line I, and is named by the asserted inverse square law c\r 2 . We are to look at that in a little more detail and from a point of view a little different from before, but essentially what we see will be a repetition of §76de. b. Ampere explicitly asserted his law (Watson's Phys- ics," 688) in this form:- F=cXdsXsmA./r 2 , where ds is the length L of the infinitesimal element of the path of the current c, and a the angle made by that short part of the path with the line joining its center to a point (the center of a circle in the experiments) at a distance r, at which point the F (relationship) is measured. Now, unless that element ds is actually zero or a One (a geometrical point, or the total infinite universe), as a truism that verbal inverse square law does not hold, (if Ampere's experiments show" that it does hold, then the experimentally nonsensical conclusions of §76b obviously must also be true; and as those conclusions are extremely easy to disprove experimentally and as Ampere's experiments on ds are truistically practically impossible to get accurate, forcing him to guess, we conclude that Am- pere's experiments do not accurately prove what his law nevertheless formally asserts — and as Ampere is a first class man, he probably said so himself.) If ds is zero, a is inde- terminate; i. e., by using a zero we promptly go into ineff- able religion, where no measures are positive. But as we are dealing with unit measures we may call a 90°, in which case sinA=l, and drop further considerations of its numerous im- plications — as it then has its average effect that is implicit in F=mcljr 2 - Thus we have the explicit verbal truistic agree- ments:- F»=cXo/r 2 . That is rigorously logical (a truistic statement of the naming principle Ampere started with, as was just indicated) ; but we positively have said nothing ex- cept that we are going to say something in that way or form about a c which we have not yet actually asserted or indi- cated, which exerts F r on, or is related to or identified with, the body 0, — the c itself thus as yet being positively or in a Many sense a 0, like the other body (see next paragraph). The c has not yet been asserted to move. Hence, c is abso- lutely static electricity, or absolutely Q se (there is no such act- ual thing; it is a verbal unit form). And if we have an actual Q 8 . . . , we have already seen (and it is agreed by ortho- dox science) that we must allow for its environment by K +! ^, and write Fr—cK+^Xo/r 2 - (I still write it c, as we have yet to give it a velocity.) Now, that is in direct agreement with well known experiments on static charges, Q«...'s. Thomson and Heaviside have shown ("Ency. Brit.," ix, 216) that F=cVsm&lr 2 , where c is a moving static charge. That equation is obviously the same as Ampere's law F=cXdsXsmAJr 2 , except that as c is named a "charge" the V is explicitly stated.™ So that Heaviside experiment '""Incidentally, that Heaviside equation also omits — at least in the place cited— all definite statement of evironing conditions, thus implying a constant K; hence, its inclusion of a definite V is self- contradictory. For it is obvious that if there were no variation in K —no effect of the environment on c,— then simply as a truism, r, which is logically a part of the environment (or asserts that some thing is 'at the distance r,' so that we mean, by using r, that thing), could have no effect— could not have been "related to r by F. - As a perhaps important digression, that mere verbal truism of the One and Many is the solution of the controversy as to whether "action at a distance" is possible. The answer depends, as a mere truism, upon what language agreements are made— "on definitions." In our everyday language, as a truism action at a distance (i. e., between two things absolutely separate) is not logically possible, as we have just seen. But, if we talk an infinite pluralism, then no sort of ac- tion but action at a distance is possible (i. e., no two parts are ever absolutely in contact, or unseparated, as that would mean merging or ultimate identity, contradict the agreements of infinite pluralism and revert to our everyday One language; also, cf. §97). 73 UNIVERSE One IX §77h agrees with our language truisms to the effect that we must put an actual c (i. e., c.) in Ampere's law if we are to talk positively— thus :- F T — cK +K X o/r 2 . c. We may now explicitly assert that the c& does have a velocity, as in Ampere's experiments, by simply writ- ing it in:- F T ={cK^)Y. FXo/r 2 . Next, we note that the implies a standard unit body at a distance r from cK^. Obviously, if we are to speak a positive language of finite Many terms, we now have to express explicitly an actual body instead of that formal (zero). The cK^ is asserted to be moving, the K^ providing for any changes the envir- onment may cause in the fixed unit standard c (c e , — an Me). Consequently, we truistically have to assert that c is related to — identical with — a part of the universe that is also moving; otherwise, we would undertake to identify cows with miles as such. That part can not of course be actually condensed to the geometrical point at the distance r. Also, the part or body at distance r obviously must have its motion internal ; for if the body at distance r moved bodily or molarly' as does c in its circular path, it would move away from the distance r, and we would have to devise a more complicated way of expressing and observing which would somewhat hide these fundamental elements of expression without dispensing with them. The sort of electricity which is that kind of matter in internal motion is a magnet m... (as we saw in rigorous theory in the last section, and as we shall see con- cretely and intelligibly in §135). Hence, we have to name an actual m. .. internally, by the usual inverse square law (this is the second application of that verbal law) ; we may indicate or imply that, as with the cK^, by writing mll^. Obviously, the environment of the internal parts of an actual m... is not the environment between c... and m... which the K% took care of; so we had to have another coefficient, 17 . d. We now have formally, Fr^mU^icK^LT^lL 2 . But that equation is by no means explicit. It merely names two dynamic bodies (i. e., both are formally wmles') :- (cK^XLT -1 ) and (mU H ); but it fails to assert explicitly that there is relative motion between them— fails to be ex- plicit about another LT" 1 . Also, as m... is now explicitly in internal motion (and as of course in finite language both c. . . and m. . . must be of finite size), an infinite regress of addi- tional numerical, coefficients, each implying the same inverse square truism of naming, is, for absolute explicitness and accu- racy, required. But clearly we can not write that infinite regress. So we chop short the logical procedure by letting just K and U stand for that infinite regress and then by as- serting the absolutely accurate truth :- that we can not write K and U accurately — which is the same as saying that in absolute truth they vary. We also note that we omitted one LT~ l , and that the jf-name Fr is hence still an F, e — formal. e. The equation Fr={mU % ){cK Yi )LT' l lL 2 ' is not directly comparable with the equations in §76bc. The difference of point of view used is obviously that here I have used » c e (a unit point of zero charge) to start with, as that showed the elementary verbal laws we needed to see. In §76 we used m's; and c is obviously only one of the internal parts of an m (see XIV). Consequently, our equation here is merely an outline of the verbal foundation of F r =m 2 U~ l L~ 2 . The last paragraph explicitly asserts and describes that primitive con- dition of our present equation. I have formulated this primi- tive equation because it serves to show fairly clearly a number of verbal relationships that are too much concealed in the more explicitly complete equations in §76. The present equation is merely tentative. An indefinite number of other ways of writing the equation to show those relationships are possible. I am not satisfied with the way I use ; the physi- cal mathematician ought to have a considerable volume of more careful and explicit discussion of these forms and appli- cation of this matter which I must condense into the present section. Such a treatise would show that I am forced into vaguenesses and unprecise statements in order to get brevity. f. It is obvious that the second verbal introduction of the inverse square law into our equation means that a change from cows to »mles was made; one standard One (a formal universe of things named cows' or c — things moving bodily or molarly) was translated or changed into another standard One (into a universe' named Mules' or m — things moving in- ternally; i. e., which were verbally split up some more; or, what is the same, were split differently with respect to the total universe). In short, m and c are typical of any two bodies expressed each by a. property different from the other; and that equation is the explicit type of phj'sical equation that permits and asserts their measurable (i. e., definite, explicit, scientific") comparison. Clearly, the explicit method of splitting things differently, or giving them different proper- ties, is named motion, and is otherwise expressed by or as time and space (i. e., is the L7* -1 ) — method, motion, prop- erty, time, space being obviously abstractions," or what we more precisely call relationships, all of which are ulti- mate!}' identical. And the explicit numerical or measured or scientific connection or unification thus given to all knowledge is at once obvious from the equation, thus :- The unit or standard m and c were mere monistic or mystic names to be expressed inversely as the distance 1?, in infinite regress. Those names then were simply the verbal framework or logic of a possible explicit expression or as- sertion about two actual bodies of different properties, thus :- mcjl?^a unit force or relating-into-a-One of any value (i. e., a numerically indeterminate quantity). Then, when we wished to make that abstract formal unit actually a unit or 1 in agreement with our average positive speech of finite parts like yards and pounds, I inserted a more explicit expression of the infinite regress :- U^K^XLT^ 1 . (The two parts of that expression are themselves implicitly cancelling — as we have seen repeatedly. I. e., it is a truism, equivalent to our A=A of §22 — which is the ultimate proof and explana- tion of the equation.) Hence, in average conditions, or in our inaccurate mutual positive finite Trinity language, we have U y *K y *LT^ l =l; or lT*ir ii =LT- 1 . g. The theory of translation — the fact that all science is unified — is thus complete, rigorous (as being merely tru- isms), and ultimately final (i. e., the universe itself is the standard, and no changing part such as man, or our compara- tively little earth). To get, in any case, the actual meas- ures of the things we thus unify, we simply go and measure. h. I have been calling our bodies 'static' and 'dynam- ic, depending respectively on whether a given one was con- sidered as a whole, rigid, or molar body, or as a body that explicitly was internally in motion. But a static body has in general effect, and also formally, a surface zone of substance at V\\ and a dynamic body consists of parts, each of which has such a zone, with a tacitly static interior to that part like the interior of a molar body (for explicit proof see Part Two). Consequently, a static' body is not perfectly static (i. e., the moving zone extends into the in- sides some) ; neither is a dynamic' body perfectly dynamic (for the insides of its parts are tacitly static). The fact that the coefficients represent an infinite regress of variable mo- tion obviously provides truistically for those actual variations from perfection or formally statable exactness. Furthermore, it is obvious that a part of the dynamic body has substan- tially the same zone velocity {V\) as the difference zone or surface of the static one ; consequently that part (with a negligible static insides; cf. §98pw) can unite with the §T7h IX One moving zone of the static body, changing the velocity of the whole molar body, while the dynamic body partly passes out of existence as such. Hence, our formal expression is ulti- mately consistent. As an incidental point, our use of stat- ic' is obviously equivalent to the conventional potential energy," and 'dynamic' to "kinetic energy." Clearly, therefore, "potential energy" does not assert any absolute non-existence of motion ; consistently, it merely means that the body is verbally static. I shall not go further here into those obvious details of formal speech. i. That formally completes the theory of electricity, unifying it with respect to itself, and unifying it (according to the whole of this chapter) with other branches of science. In XIV we revert explicitly to electricity, using Ohm s law as a concrete method of unifying the actual mechanics of electricity with this general statement of the valid mathe- matical or verbal theory of the expression or measurement of electricity. We ought to know definitely what measurement itself is before we go basing science on measurement. There is no more merit in the shibboleth measurement than in the Scholastic ones Essence, Substance. We have seen that Newton and Ampere fancied they were meas- uring; however, as a matter of fact, they mostly merely matched their skill with some verbal truisms. UNIVERSE H indicated by the H (because fundamentally £nerg#=Qh/and also =ML 2 T- 2 ); and H is said to be of unknown dimen- sions so that validly .7 orthodoxly must logically be unknown and unusable. Watson says that perhaps H=ML 2 T~ 2 (i- e., probably is Energy itself). Lamor, an authoritative mathe- matical physicist, states positively and, so far as I can de- termine, without reservation ("Ency. Brit.," xxii, 806):- "The temperature of a gas is measured by the mean energy of translation of its molecules." Expressing that in orthodox equational form, we have Temp=\mV^Y, a constant; or H= Ml? 'T~ 2 = Energy. ~ — However, regardless of what H §78. a. The orthodox summed statements (i. e., the orthodox fundamental equations) of the ways of naming or measuring heat consist in assertions of agnosticisms and then assertions of gnosticism. E. g. , Watson's Physics says in effect (p. 844) that J and H (which are our heat names or quantities that are really analogous respectively to the pairs of coefficients C and G, and K and U; — I use H instead of the usual Greek 9, the final straw deciding the change being that I couldn't buy the Greek type in Boston except by having it made with a delay of a month) have unknown di- mensions. But Watson then explicitly makes a guess at those dimensions; also, he and other orthodox physicists, even in the state of admitted or tacitly admitted ignorance go right ahead and use J and H in explicit equations — the very doing of which of course truistically implies definite knowledge of them. b. Consequently, it truistically follows that I am unable to say positively just what the orthodox theory of heat does assert — ultimately, to say what any orthodox theory asserts: for all actual Many units at least tacitly involve heat condi- tions. We simply have to sum it up that orthodox science asserts its incompleteness. So we are seeing how to com- plete it. And it is an unessential quantitative problem as to just where conventional science stops. §79. a. Joule and others found that a certain amount of molar motion is equivalent to a certain amount of heat un- der certain conditions ; e. g. , he found that in his latitude in about average weather the energy that would lift about 772 pounds one foot would raise the temperature of one pound of presumably pure water from 59 F. to 60 F. That equivalence or transformability of heat and molar motion or "energy" is called the first law of heat, or of thermodynam- ics. The law is expressed (Watson's Physics," 342-5) in the equation Energy=Q\J, where Qh is unit quantity of heat (explicitly, in our abbreviations, it would be Qhe), and J is orthodoxly the mechanical equivalent of heat and a con- stant (but validly, it is a variable numerical coefficient applic- able to 'molar' or 'static' bodies of heat). The thermal unit Qh by orthodox definition depends upon the mass M of water heated, and upon the "unit" (involving H) of temperature taken; or, Qh=MH. Hence, / truistically depends upon the temperature scale, whose dimensions are implied or orthodoxly is dimensionally, orthodoxly Qh = MH. b. From the two orthodox equations, Energy = ML 2 T~~ 2 =QhJ and Q h =MH, we have directly, by ordinary algebra, Energy=Q h J=MHJ=ML 2 T~ 2 . If in that we sub- stitute the orthodox presumptive dimensional value of /, J= ML 2 r~ 2 , we have (MJ)ML 2 T- 2 =ML 2 T- 2 — which (if explic- itly interpreted) is obviously self-contradictory nonsense. c. If we take that equation, Energy^Q^J =MHJ — MI?T~ 2 , as it stands and consider that it actually means or implies something (and it certainly is self-consistent in its usual interpretation, so far as that interpretation concerns approximate measurements or experiments — which are apart from conventional scientific theorizing as to what tempera- ture and entropy are, which is atrociously irrational and puerile), then it obviously must assert one of two general statements :- (l) The equation may assert that J and H are numerical coefficients, each implying an LT~ , so that H c Je = (LT" 1 ) 2 , and MHJ=ML 2 T~ 2 , — which makes the equation a truism (identically as in §77), and gives us H^J^^ LT~^=V. In that case J'^H^ corresponds identically with CG V * and K~' /2 U"^ ; and we see at once that these heat equations imply the same facts as all other valid equations, but orthodoxly have merely omitted explicit statement of the verbal processes of naming. (A quick proof of that, which of itself rigorously proves our total argument, is this :- The inverse square naming law orthodoxly is omitted twice, amounting to the fourth power of any single coefficient. Hence, radiant heat, which implies a dynamic heat, should vary approximately — since the coefficient is variable — as the fourth power of such u coefficient. And that actually is ex- perimentally what is known as Stefan's law ["Ency. Brit.," xiii, 155J. In the experiments that variability is very per- ceptible.) (2) Or we can take the equation in an orthodox interpretation :- that H and J are some sort of con- stant values. In that case JH=L 2 T~~ 2 ; and as a truism, J and H must be fundamentally identical with L and T — a conclusion which in effect asserts that all of orthodox heat is religious or mystic language, and that a positive finite or scientific language is impossible ; or else it drives us to the theory of relativity. As a matter of fact, this second inter- pretation asserts that relativity theory. In that sense, our equation is an explicit assertion of the infinite regress (to speak everyday language) that applies to any Many part ; or is an explicit assertion of no exact science. So again, by the only other interpretations of the equation that were possible, we have a rigorous general proof of the validity of the unification made by this book. d. Therefore, (l) we are forced to drop any orthodox view that J and if are physical "constants" (unless we re- vert to relativity), and to take it that they are variable coef- ficients like K and U, etc. And (2) if the actual direct measures that have been made of H and J be noted (those for Stefan's law are indirectly such, e. g.), it is obvious enough that they vary. Those two points therefore complete the essentials of the measuring theory of heat — show how to write M(varying ■witli)L 2 T~~ 2 in heat terms. The 75 UNIVERSE One IX §80d H and J really belong together, as was shown in §77 to be the case with K~ ii U~ ii . The reader who is interested may readily see for himself the details of how MJ^ expresses static ("convective") heat matter, and MH J/i expresses dy- namic ( radiant") heat matter, and get the consistent di- mensions of them. He will see too that orthodox equations really assert that Q h /, MH, and Mare all "matter," and that the inconsistency and agnosticism of orthodox equations lies in their omission of statement as to just what kind of matter each is — i. e. , omission of the naming inverse square. Consequently, as we see in the next section, when heat theo- ry or naming undertakes to translate from the measuring member M(varying wtk)L 2 T~ 2 into the One member Energy, or into the everyday naming member That... X This..., it gets confused. The actual fact is (cf. (2) in par. c) that orthodox heat is mostly engaged simply in writing what are substantially truisms of the religious member :- Energy=En- ergy. E. g. , Energy— Q h J immediately implies such a tru- ism, in so far as it explicitly has any rational meaning; and so does Qh— Miif ; and so does the vague, aspiringly tenta- tive equation H=ML?T~ 2 - Aspirations are for children and second class poets : adults, and especially real scientists, achieve. §80. a. It therefore is obvious that conventional heat is substantially not science at all, but religion. The first law of heat, Energy— QhJ, is mostly an observational statement of the religious law of conservation of energy; the poets back in the mist of antiquity said the same thing with more extensiveness, but less intensity and direct verifiability, when they said that all things unite into the One. b. But for the past fifty years there has been an effort to make heat scientific — express it in pluralistic terms, or definitely in terms of L and T. The difficulty was, as we shall see, that heat from our usual point of view consists of unsystematic splittings of bodies — which unsystematic parts were readily perceptible. In short, in heat so many varia- tions were perceived that it was difficult to make short, con- sistently mechanical or logical statements of them, and there was a tendency to bunch them religiously. When the so- called science of heat tried to make a pluralistic statement of itself, it intuitively followed everyday usages at first, and attempted to split heat into That. . . X This. ... If it had been done fairly correctly, the resulting pair of factors would obviously have been similar to the Q... XP... in electricity, or F...Y.L..., etc., and the last section (which formulated the measuring member for heat) would have amply covered the theory for the purposes of this book. It however unfor- tunately happened that a German, materialistically inclined and hence with no actual grasp of the principles involved (a physical science highbrow, in brief), Clausius, undertook to make heat a science ("Ency. Brit.," Art. "Clausius***"). And Clausius messed up heat about as thoroughly as it could have been done (the mess passes from the ridiculous to the sublime), and concluded with a nonsensical second and last "law of thermodynamics" — which is usually put into the form of a strange generality called the increase of entropy, which temporarily had as blighting an effect upon science as its sociological analogous nonsensical generality, aristoc- racy (or the "increase" to infinity of a part of mankind) temporarily had on society. We have to examine Clausius s rather confusing mess here from the present point of view of mere scientific naming of observed M...'s. We obtain the same valid principles, in familiar and more intelligible terms, in §§100, 140, 153, etc. c. The thing which Clausius substantially did (stripping it of all its confused technical verbiage which poor little schoolboys are supposed to be able to understand), is this:- He combined the two approximate, observed equations En- ergy— QbJ and Qt,=MH into the equation (which is still monistic), Energy=MJH. Then, instead of seeing what that actually meant, he substantially said that H is a quan- tity that is temperature, and Energy/ H, or MJ, is a quantity that is entropy — so that EntXTemp=Energy. However, he could not assert any such quantitative equations as A£7= Ent, or H= Temp, as the perceptible variableness of what are actually mere numerical coefficients would keep those equations from being quantitatively reasonably accurate ex- cept at standard zero conditions, and therefore such asser- tions would lead to obvious self-contradictions when H and ./ were orthodoxly taken as constant. So he named tempera- ture not H, but Temp, and said Energy \Temp=Ent. But the verbal forms of expression he used or assumed in thus attempting to get a That and This (namely, Ent and Temp — instead of an actual That. . . and This. .., or Ent. . . and Temp...), may obviously be considered to be these two:- (l) He misinterpreted the first law of heat, Energy=QhJ, to the pure dualistic effect that the total Energy which corres- ponds to the Qh is absolutely independent of the temperature of the body containing the heat: i. e., J is constant, or the equation Energy=Q\J is taken to be completely explicit, and because it fails to mention Temp explicitly, therefore it is true of any temperature. (2) He then held that the equa- tion Qh=MH was also completely explicit, and that it, on the other hand, asserted that when we have to consider the actual conversion of that heat Qh into Energy, then the temp- erature of the body containing Qh (which body is the resi- dence' of Qh) is asserted by H, and hence that temperature has to be taken into account. That second view is one way of stating the second law of heat : the equation Qh=MH is tacitly supposed to represent the law. Of course you can t undestand those dualisms if you interpret them strictly. I am implying that they are nonsensical, and from that point of view they are more intelligible than Lamor s dualistic re- mark (§79a) or the orthodox mathematics ("Ency. Brit.," xviii, 658), that are openly dualistic. d. Those two interpretations of the That and This (no dots) which he got for heat under the names Ent and Temp are clearly self-contradictory ; — for obviously Clausius says (as the first law) that heat-quantity or weight of heat' or entropy resides as a second entity on a given entity or molar M and is independent of the temperature or Temp or poten- tial of the body (which is a materialistic assertion of dualism) ; and then he asserts (as the second law) that temperature does have some effect. The first law of heat, in that orthodox form, is clearly merely an incomplete attempt to pass from a monistic truism Energy = Qi,J, to positive or pluralistic language by making a formal agreement to divide the universe into static parts or M s of heat. If properly (i. e., completely) expressed, such a verbal agreement or law is necessary for science, as we have repeatedly seen. But Clausius's way of solving that One and the Many in its heat guise is merely the customary German professor's invalid dualistic, materialistic way:- he logically or formally keeps on having absolutely independent universes, or That That That etc., explicitly as Ent Ent Ent etc., which never combine into a meaning or a real universe — although he ob- viously just the minute previously had started from a real One. Therefore, apparently being intuitively suspicious of his first law as he stated it (as was quite natural, it being nonsensical; and also because it was difficult to have such a short memory and forget so extremely quickly that One or Energy which he started with), he proceeded flatly to deny the first law in the second, with the natural result that it also is nonsensical, as we now proceed to see. §80e IX One UNIVERSE 76 e. The difficulty he directly had with the second law resulted from the fact that he tried to use Temp or tempera- ture surreptitiously (even with respect to himself) as being all three forms of the Trinity, in order to compensate for the shortcomings of the first law in dealing with the One and Many. Perhaps chiefly he used Temp as a relationship word (as Tempt, corresponding to Lr) to assert L (and T) as bind- ing his Ent Ent Ent etc., into a universe; consequently, as a formal truism of valid logic, we have Temp r disappear- ing or becoming zero in the sense that it is not a Many part; and as Ent Ent Ent etc. , is all that is left as Many parts when temperature thus disappears, then Ent Ent etc., increases" until it is the universe or infinity." But the second law also says in effect that Temp is This e — a standard unit or One, on which as a formally fixed base the whole science of heat starts (for details, see next paragraph). And still further, the second law asserts that Temp is This . . . ; obviously, in all applications of heat equations to actual cir- cumstances Temp is a changing This... . Therefore, Claus- ius, in his confused way, took Temp as actually Temp..., and asserted that all This s became zero and the universe became all That s — entropy increased to infinity, — which is some more obvious and glaring nonsense. ■ That error was clearly due primarily to fancying that Mj's could be distinct or absolutely separate, while at the same time a One Energy was asserted — that A=A and A does not=A. Therefore, that increase of entropy is the typical technical error of all formal dualism, classic logic, or scientific materialism. The materialists chase the series' of That That That etc. until they become mentally desperate, and finally assert that those That s are the universe because there are so many of them. It is the same infantile way of talking, and narrow vision, that causes a child, when he sees (say) twenty cows in a field and is not able to count to twenty, to say that he sees a whole world of cows." As a monistic or admittedly poetical way of talking it is quite permissible and intelligible, being logically the way in which a hen with more or less successful results talks to her chickens. The materialists should not, however, claim that that way — or as they prefer to put it, the increase of entropy to infinity" — is definite, or positive, or 'cold fact," or "scientific," as it glaringly is not, according to usual meanings of words. An ample logi- cal refutation of such dualism or materialism is that if entro- py increases, then there are no facts or agreements which limit the past age of the universe; hence it is logically sound, especially by the classic logic, to assert that already there has been infinite time, and entropy has now increased to in- finity, and all temperature or temperature differences have disappeared or become zero — which obviously is not so. f. Clausius tried to make Temp a One (in the same sense that orthodoxly it is guessed that H=ML 2 T~ 2 =En- er gy) — that being his vague way of asserting dynamic heat, instead of using the valid way of inserting the inverse square law a second time. When we say a body has a temperature we mean, in an explicitly measurable sense, that the whole inside of the body is considered to be divided into parts in some way, and that that 'motion' or division inside the body causes the whole to expand or contract or otherwise (as a truism) change properties" or splitting, in some percep- tible measure. ( Temperature' in a man is indicated by calling him energetic, active, strenuous ; entropy, by calling him enduring, persevering, hard-working, reliable. Obvi- ously, some of each of the two factors must be had by a man even to exist — to say that his endurance or entropy increases to infinity, while at the same time his activity or potential or actual use of that endurance becomes zero is to say that the man ceases to exist: is nonsense," if we say the man has such possibilities.) So when temperature is asserted we are dealing with a 'dynamic' body, precisely like a mag- net in principle. And to say that H=ML?T~ 2 , or that Temp is that body is valid as a religious or mystic truism, but is logically wrong if we are professing to talk scientific language: for temperature then should be the second im- plication of inverse square that is the way of saying that the body is a particular sort of M (or, is wrong because Temp and Ent are irrational factors [§71gJ: each is utterly mean- ingless unless supplemented by the other, just as it would be nonsense to talk of a man highly strenuous but whose strenu- ous activity would not endure for an instant). However, Clausius decided that because Temp was sometimes used to imply a body or an entity (was what I name Temp... : when we talk of strenuosity we imply a man, etc.), then (as a con- clusion; and this is also one conventional way of stating the second law) :- heat can not pass from a cold body to a hotter one (because, by tacit orthodox truisms, the cold body rela- tively to the hot one has zero of the entity Temp..., and can not give what it, relatively speaking, does not have). Obvi- ously, those tacit orthodox truisms are quite irrelevant (as they also tacitly assume the erroneous view that Temp. . . can be used intelligibly entirely independent of its completing irrational factor Ent...). As a matter of actual fact, if the reader will strike a match he will see that pseudo second law violated ; for heat then passes from relatively cold bodies — the original match tip and the air about it — to the things in the neighborhood of the then ignited match. Actually, what that second law will validly assert is the abstract truism (which completely applies to no actual body in the universe) that from a low potential a higher one can not be obtained : it is logically equally true that from a high potential a lower one can not be obtained, as potential with reference to actual bodies is a relationship word, and is not subject to compari- son. The materialists erroneously assume, as the practical fact, that a dynamic body has a perfectly homogeneous po- tential — that all of it has, at least approximately, a steady constant motion or temperature (Maxwell's demon is a theo- retical speculation to the contrary). We have seen here in general that the error is due to their omission of the verbal inverse square laws : we shall see repeatedly in Two and Three that no body has any such constant potential, but that all actual bodies in principle have internal potentials that vary from to » . As an equivalent statement of that, we may put the foregoing materialistic pseudo-scientific confu- sion of One words and relationship words that is usually called the second law of heat into familiar everyday terms :- (l) a baby can not be born, as his potential or ability to move about for a longer time is greater as an average than the biological potential of his failing parents; (2) or, "To you from failing hands the torch we throw" is, according to that second law, a nonsensical expression, whereas all intel- ligent people can observe directly, without all this present talk, that it is not nonsensical; (s) or, those materialists as- sert that growth, and birth, and radioactivity, and electron formation are impossibilities, as in such cases the potential or temperature increases," at least locally. We shall see just how matter w made, and what growth and birth are (index, Growth, Secondary whirls," etc.). Then these formal- ities will become easily intelligible. These facts and this argument are important to you :- all the engines which sup- ply you with many needs are applications of them, and require clear thinking about them; and even safe experi- menting with the "strenuous life" requires such clear think- ing. Also, I have just performed a major surgical operation on the materialistic mind ; it may not recover ; but at least it can no longer infect the rest of the world. 77 UNIVERSE One IX §801 g. It therefore obviously follows that the way in which temperature should have been measured or defined is pre- cisely the way in which electric potential was. Hence we may write the combined static-dynamic heat equation :- Ent. . . X Temp. ..=MJ *H' A L 2 T- 2 =Energy(general heat) . Or, if we wish to consider that we handle heat in quantities such as molar bodies, in agreement with the monistic truism Energy=Q b J, thus permitting all the standard One which is included by the equation to become formally the same tem- perature, we have the static' heat general equation :- EnU. . . X Temp,. . . ^MJ Y2 L 2 T~ 2 =Energy{static heat). And the corresponding general 'dynamic' heat equation is :- EnU. . . X Tempm. ..^MH' A L 2 T~ 2 =Energy(dynamic heat). h. Those equations (provided we write them as unit standards, Ent e ...XTemp e ...=ML 2 T~ 2 , etc.) are the valid forms of the well known equations for the pressure p and volume v of a gas. The orthodox form of the static equation is pv=a constant, — which constant" is obviously a standard One or Energy, so that logically or dimensionally (but not numerically when usual conventions of measuring are used) the equation is pv=Energy. That is called the isothermal equation, and is represented by an equilateral hyperbola. The orthodox form of the dynamic equation (the last being static) is the adiabatic" equation pv /e =a constant (Dan- iell's "Physics," 394f; "Ency. Brit.," xxvi, 809f). We take up those gas forms of scientific equations in §§82-3. i. We may now explicitly observe (it is something of a repetition) that the fundamental difficulty in those orthodox heat confusions was as to the way to use the same language to go from statements about static bodies to statements about dynamic bodies. The equation Energy=QhJ implies molar' or static heat, and Energy=MJH implies dynamic heat. The theory of the transition, which is a matter of verbal form, is identically the same as already seen with respect to electricity, etc. I must at this point omit the volumes of details which would be needed to give a reasonably full ap- plication to heat. But as an introduction to the pv form of the same verbal puzzle (which we need to consider), I shall restate a general solution in the remainder of this section, from the useful point of view of what is called the absolute zero of temperature. j. In the equation for static heat, Energy=QhJ, tem- perature (in the sense of internal division of a heat-mass, or Temp T ) is not mentioned ; and the same thing applies to Ent s ...X Temps... =MJ H L 2 T~ 2 — i.e., that explicit static equation actually has zero potential, and hence no actual Tempr is explicitly asserted to exist; it of course has the symbol Temp s ..., but that symbol is identical with L. .. in the general F. .. XL..., and as such means merely that in an actual thermometer the thermometric or heat-containing substance stands at that height L" or Temp r . In that sense, the explicit static heat equation makes a statement which is true at a formal absolute zero of temperature (and f there were no variation in J, would be true at any tem- perature — but there is a variation). That is to say, so far as the statement goes, there is no motion or zero internal mo- tion in the MJ* (or in the QhJ). And that formal agree- ment as to how the universe is to be divided — the MJ™ ob- viously implies an inverse square, — is the total meaning of such phrases as "absolute zero," whether the phrase refers to a potential called temperature, or to any other sort of po- tential. In Many terms — in actual, everyday nature as we commonly speak of it, — there is no such thing as a zero of temperature, any more than there is an infinity of tempera- ture : it is an absolute truism that it is impossible to have either, in a Many sense. The total universe is at zero tem- perature or at infinite temperature, just as we prefer to say. But no part of the universe either is, or can be. As a curi- ous fact (which again shows the consistency of these truistic statements), the theory of relativity, having completely cap- sized our language, asserts that there can be no velocity greater than the velocity of light in our neighborhood (but cf. XIII, XIV). That relativity conclusion, if expressed in heat terms, asserts that at the velocity of light there is an absolute infinity of temperature — an absolute maximum. So if a flame gives light, some portion of the flame is, by that theory, at infinite temperature. And that, truistically, is valid. The complete facts are (as we shall see repeatedly in Part Two) that at some place in it, every natural structure or body is always growing or else breaking down ; at that place, where respectively either the part's neighboring parts are ceasing to be, or else the part itself is ceasing to be (as or in its original' structure, of course), the temperature or potential is obviously either zero or infinity, depending on the point of view of naming it:- if a structure is viewed as going out of existence, its temperature' is zero"; but at the same (really geometrical point or zero) place and time its neighboring structure is coming into existence, and its temperature there is infinite. But, as the structure does not exist when it has thus broken down, or is not com- ing into existence when it does exist, clearly it is a verbal self-contradiction to say that any Many part can have either a zero or an infinite temperature. That is obviously merely the problem, in terms of measuring or of heat or of any potential, of What is a number? (see discussion of the zero- infinity line of Fig. 54c, which is analogous to these limits) . k. In a way precisely analogous, the dynamic heat equa- tion formally asserts temperature — whereas previously zero temperature was asserted (last paragraph). Therefore, speaking precisely, \f we assert that either the static or the dynamic equation is absolute or is absolutely expressed, then the dynamic equation asserts an infinite temperature, for the simple reason that the only way to make a zero tempera- ture become some other temperature is to multiply it by in- finity (and that really amounts to saying that the One named zero is the One named infinity — and we actually get no defi- nite potential that way). The mechanical or concrete facts that explain that verbal One and Many difficulty which orthodox science fails to get out of, are those given at the end of the last paragraph. 1. That verbal One and Many contradiction which in- fects all conventional discussions of potential from their very start with the obviously self-contradictory idea potential energy," is completely obviated by noting that neither the static equation nor the dynamic equation is completely ex- pressed (or valid) if considered to be absolutely separate from the other (which is equivalent to the fact in §§73h, 77d that there is actually zero potential in our static' and in our 'dynamic' equations). Actual or Many expression of finite temperatures is obviously implied in the orthodox One truism, Energy^McJH; and is explicitly given in Many terms in Mj' / *H l/i L?T~ 2 = z Energy{heat) :- for in such a com- bination we have neither the of the static nor the °o of the dynamic. The practical way of avoiding those formal zeros and infinities is of course to consider that (say) MJ' A always has a numerical value of / ^ which agrees with the actual re- lations of MJ^ with the omitted but necessarily implied H^ (and that is a mathematical proposition the fairly good state- ment of which would require volumes of differential equa- tions, omitted from this book; I call it the theory of harmonic proportions or of harmonic periodicity, as it is the principle or quantative relationship of ratios, or explicit writ- ing of the definite expansion of That. .. X This. .., on which the periodic table of elements is based ; see Index). Until §801 IX One UNIVERSE 78 we came to heat we tacitly considered that the static and the dynamic equations always belonged together: that view was the total unification of science in the form K~^U~™=^V\. But because Clausius in heat explicitly made science in act- ual effect chaos — disintegrated and disrupted it logically with German thoroughness (not out of bad" motives, but merely through coarseness or dullness of comprehension of principles resulting from having a mind overburdened with unassimi- lated details or material facts" — most of which in such cases aren't "so" anyway, being too inaccurate), — by split- ting H and J apart and asserting that they were absolutely independent, even to the preposterous extent of increase of entropy, it became needful to be explicit about their unity. m. It hence follows that a zero or an infinite tempera- ture (or any other potential:- chemical, surface-energy, space-molar-location, etc.) simply implies the 'surface' or zone between two parts into which a One is split — asserts the existence of a difference surface,' across which smaller parts of one body pass as it changes or moves into being another, the first body diminishing or dying and the second (which is the first transformed) growing or being born, with energy" being ' evolved" as the process. The potential of any actual finite body can not therefore be that formal limiting potential, but is measured from that limit in either direction — one direction being called growth or increase, and the other dying or decrease. Death is the biological term for zero temperature, and birth for infinite temperature; ob- viously there can be no such entities or Many parts, nor can any actual finite Many part attain such an absolute condition or relationship; birth and death are, with reference to any part of the universe, merely quantitative, or matters of de- gree, and not absolute. We shall see the concrete details of this subject from time to time (Index, "Birth," "Death," Growth," Potential," Difference surface"). Incident- ally, the same principles of potential apply to the problems of good and evil, the structure of the solar system and atoms and man, personal immortality, etc. I have here merely stated the rigidly formal solution of those problems, in con- ventional physical terms. §81. a. We have thus seen how Clausius became con- fused in trying to make science of heat. Substantially his was the everyday or technically philosophical way of splitting Energy or Universe into That...XThis... . The more spe- cifically scientific" way would have been to write heat en- ergy in terms of the measuring member, as indicated in §79. b. Hence, it has appeared that in conventional heat the everyday commonsense form or philosophical form That. . . X This... is ordinarily used. As that everyday form is used to a considerable extent in other branches of science, we need to complete this formal unification of science by a more ex- plicit consideration of that naming or philosophical member. c. We are going to find that Richards, by completing the theory started by Van der Waals, has explicitly and with complete generality stated a unified science in the everj'day or philosophical form That...XTkis... . And as all other branches of science are already expressed in terms of Exten- sive factor. . . X Intensive factor. . . , and as it is commonly under- stood that Intensive factor. . . or intensity or potential is included in complete orthodox statements of Energy (and that it rather consciously implies L and T), it follows that because orthodox science accepts Van der Waals's and Rich- ards's conclusions, it in effect already accepts the unification of this chapter — provided I show that those conclusions agree with the chapter, as is easily done. §82. a. The conclusion which Clausius gets, and which is in agreement with the dualism of the classic logic, is that in EntXTemp, Ent is an entity of some sort which is abso- lutely separate and distinct from another entity of some sort, Temp — and vice versa. And in agreement with that, the orthodox 'static' form of EntXTemp=Energy is pv=En- ergy. Orthodoxly, pv is equal to a constant, but the constant is obviously a standard One. Explicitly, the con- stant is RTemp, where R is a constant number, and Temp is, like H, orthodoxly confusedly given the (dimensional) mean- ing Temp=MI?T~ 2 (but I do not need to repeat our heat discussion to show that RTemp is actually Energy). And the customary dynamic' form of EntXTemp= Energy is pv k/ expressed it — because we might consistently call motion in a straight line infinite motion.' For we have seen in the problem of two bodies (§83) that any actual body is always changing direction relative to any other body. So only the universe, an absolute One, could move in a straight line. Then the name infinity applies to such unrelatable motion — meaning simply that any name is equally applicable and mystic. Any really tangential motion of a body (i. e., motion which formally is not affected by a second given body and truistically deviated from that straight tangent) obvi- ously logically holds the first body to be a One; hence that motion or its energy is absolutely indeterminate and mystic — and really can not occur, except to the total universe. d. Because, as was seen, there are an indefinite number of valid forms of negative expression — of statements of what a thing is not, — and only one general valid statement in a given sort of language of what it is, Newton naturally fol- lowed the easiest course of making his first law negative in form. And as a further result, orthodox science consists very largely of negative statements — expressions of what is not so, rather than of definite statements of what is so. When it says that inertia is a fundamental property of matter, then all M's are logically multiplied by zero or no" to be- gin with. Hence, the only change needed in the first law is to formulate it positively instead of negatively — which we have done in the general discussion of how to split the One and get That. . . X This. . . . This book in general makes science direct instead of negative : positive instead of agnostic. e. Newton's second law is :- "Change of Motion [Mo- tion here, as used by Newton, is equal to M(Z.7^ 1 ), which is now called momentum] is proportional to the impressed Force, and takes place in the direction of the Straight Line in which the force acts." Hence, change of Motion would be the variation of MiLT -1 ) during a T; therefore, the law says:- F—MLT' 2 . Obviously, Newton condenses too much there, and gets a confused result. By saying that a change takes place in a straight line, he rather inclines to the impli- cation that his ML7 1-2 is an absolute universe, and in agree- ment with that to say that his F is a standard unit F e which moreover is itself a sort of standard universe or One instead of being even there an irrational factor; whereas, his F act- ually is F r (see IX). f. Hence, it is rather apparent that Newton in this law in a too brief way tried to assert :- there truistically exists a relationship between the parts into which the One could be arbi- trarily split — that making the split-up-One (i. e. , the Many) still the One. He rather clearly implied That...Y.This..., in which formula X is the relationship, force. So this sec- ond law is also purely verbal agreements of truisms — as is conventionally recognized by the assertions that the law is not verifiable by physical experiments" (i. e., the law, like the first law, is merely expression, ' and hence is subject only to formal or logical proof; §35). This second law, in its orthodox or Newtonian form is rather a confused jumble of assertion of (l) the One and (2) relationship — is amateur- ish logic or philosophy. g. It may be reasonably held that his first law is an as- sertion of or agreement to use God the Father or One words. The second law then is a statement of God the Holy Ghost, or force. And we shall see that the third is explicit statement of God the Sons. Although the first two laws are logically confused and omit most of explicitness, perhaps the only practical defect of much importance at first was that the first one was negative in form. However, I think the reader will readily see that Newton made a remarkably good solu- tion and expression of the One and Many — and especially so, compared with the great confusion of views prevalent in his time ("Ency. Brit.," Art. "Motion; Laws of"). But what was fine in Newton is amateurish for us now. h. His third law is :- To every Action there is always an equal and contrary Reaction; or the Mutual Actions of any two bodies are always equal and oppositely directed." That is obviously a definite scientific or Many statement, be- cause arbitrary portions of matter are considered as joined in a sequence of phenomena. It is directly equivalent to Ac- tion... X Reaction... (§86e), and as such is " mechanical." It may be held by some that Newton did not imply the dots, but meant a sharp dualistic statement of absolutely separate factors :- ActionY.Reaction. Well; it is a historical problem of some antiquarian interest ; if Newton did not mean to imply the dots, then he was wrong — and we should not imitate such mistakes even if he did make them. But we have seen in the last chapter, and see further and in con- siderable detail in this one, that conventional science now is almost explicit in asserting the dots. i. This third law, being explicitly pluralistic and explic- itly stating that there are at least two mutually acting bodies or M s, is hence a general description of God the Sons. It seems to me that the first two laws, by establishing the verb- al agreements as to expressing the One and Many, now defi- nitely combine with the third law and clearly imply the inseparability of the three" laws, and also clearly imply the dots in Action... X Reaction. . . — imply the infinite regress. At any rate, the reader can see that Newton's laws, if they have any consistent meaning, are the solution of the One and Many in terms that are conventionally mechanical." j. The third law, being expressed directly in terms of the Many, is experimentally verifiable — meaning con- cretely" provable (§35). Of course, the complete verification considers the other two parts of the Trinity just as 'real" as the Many is real." We saw that such was true, when we 86 §88j X Two saw in §49j-l that our everyday valid logic considers part of the Trinity equally real or verifiable; so we need not go into that again (but cf. §§150-l). We may simply note here that the reason for speaking of the Many as being ex- perimentally, or concretely, or actually verifiable or provable is that we tacitly take it for granted without statement of it that the relationship of continuity or ultimate identity is always existing as "truth," and that the consequent summa- tion of that Many all the time into a real One is also truth. In short, we take all of real religion for granted (we take for granted God the Father and God the Holy Ghost) as being Already proved, and then have left only the arbitrary Many, and need to be shown its consistency directly as being proof. Obviously, as proof in fact or in deed — as ultimately conclud- ing proof, — we do need such Many, or concrete, proof; but as expression of proof, we need the completion of the whole Trinity — and I simply give it, and do use as a part of that the Many precisely as is required in everyday life, or by "science." Obviously, the "proving" of anything by using an absolutely disconnected, dualistic Many, and ig- noring that real religion (of which our valid logic is the ex- pression) is wrong; is materialism ; and given time enough will inevitably wind up in an exploiting aristocracy, autoc- racy, ecclesiasticism, and socialism (which are the names given to the chief "practices" of such ignorance), with cor- responding stupidity, idolatry, and weaknesses in the ex- ploited. (I am aware that ecclesiastics — and demagogs violently contend that they are "spiritual"; they are some- thing like the late Kaiser with his Gott; see §155 for the reasons for such contentions that flatly oppose fact.) But because the Many has thus been misused by being vastly overrated by those grafters (and their dupes), that is all the more reason why we should use the Many, and use it prop- erly, in its due place and with its due value. Conseqently, although I explicitly and definitely use Many or concrete proof in this Part, it is properly supplemented by the state- ment of logic in Part One — by explicit expression of the re- ligion the average commonsense man tacitlj' takes for granted as the basis of proof. k. This third or Many law may be easily verified. I once saw a two year old child discover and state the law by his own observation. His statement was substantially this :- "When I push on something it pushes me right back. The two M's were "i" and 'something," and obviously L and T were inseparably included explicitly. Clearly, there was a push out" from I"; and science usually calls that point of view or 'direction' or form of considering the rela- tionship:- "force." But equally, there was a push in" towards I" in the opposite direction ; and science usu- ally calls that form of naming the relationship:- pressure." But when the relationship itself is rather emphatically in mind rather than the arbitrary circumstances or direction of its naming, science usually combines the names force" and pressure" and calls the relationship cohesion, which ob- viously means the same as the ethical name love. And because there is in the universe as a One no absolute direction (for, as verbal truisms, there is not another One outside, with which to compare or relate and thus fix" any direc- tion; §§58g, 99), there is obviously no real difference in any of those relationship terms — which in general is equivalent to saying that all relationship is that of identity. 1. It is also obvious that because the push and the push back are equal, then the sum total of the force, and hence of the energy, in the universe is zero. That ob- viously gives an absolute Nirvana, in which as a whole there is no energy. But we could validly take another view, and say that the push and the push back was each a certain and that as there was ulti- UNIVEKSE each amount of force, giving energy, *»" "-■■- •; —-- all mately no real "direction" anyway, we ^ add *£ k t arithmetically „ . /oW way in elasticity of field and in the absolutely rigid point-masses as verbal agreements. As the logic was valid in that it was balanced, he got generally valid conclusions so far as he went with his theory, which definitely included only heat. b. The objection to Reeve's theory, other than its in- completeness, is that a part of the universe' that is substan- tially a point and a pure field" is not very concrete or subject to direct experiment. But Reeve's book is a formal valid statement in everyday language of the kinetic theory (it rejects the old one explicitly), and was written several years before Richards independently by direct experiments on atoms found the compressible atoms which Reeve showed must exist by consistently using everyday language in de- scribing other observed facts. With that comparison in mind the reader can readily complete Reeve's book to any desired extent. In fact, I first began explicitly and deliberately to write this book in 1910 by expanding Reeve's. It took me about three months to work out the mechanics of gravity with that start; and I got the whole argument of this book in a rough way from Reeve, being assisted by other valid theories which I found from year to year later on. §98. a. It has been seen that kinetic theories are usu- ally accompanied by mutually contradictory fluid or continu- ous One theories. I. e., there were observed to be what science called waves of light, and afterwards electrical waves, heat waves, etc. ; and when the theories had their smallest part' equivalent to an atom (or even to an electron) such parts failed to be small enough to serve as parts of such so- called waves. Therefore, science assumed (ultimately, it was a mere verbal 'existence assumption' : §22) that there is a continuous fluid (conveniently named ether), actually unsplit- table just as the formal One is, which served to transmit, or be, "waves." That One or ether of course with rather glaring obviousness contradicted the Many atoms or electrons and scientists have made efforts for centuries to get some consistency between that One (or ether), and the Many (or electrons, atoms, quantums, etc.). Clearly, that One ether when strictly considered as perfectly continuous or homogene- ous is not mechanical" at all, as it is not possible to make a machine out of one part. (E. g., Reynolds's and Reeve s "fields" of their rigid masses is-are really logically that or- dinary continuous ether.) Yet in order to describe" waves the ether had to be split into at-least-formal parts. So the physicists vaguely admitted that necessity of language itself by saying that the ether is elastic," and more or less ig- nored the fact that elasticity implies parts. And then that One ether, in the logical manner of the One, also caused the physicists trouble by sometimes insisting on approaching zero (as when it directly gives excessively slight resistance to the earth's movement), and at the same time on approaching an infinitely dense solid (which is the only thing that will trans- mit a light wave as orthodoxly described; XIII). b. The last paragraph shows the general total difficulty science had with "ether," and its source. Ether is nothing more than a name for "substance," or matter, or what- ever it is we talk about. In philosophical technicality the name ether is the name Being, and the philosophical science of ether, or Being, or of the question Does the uni- verse 'Be' or exist?, is called ontology (§§22, 60, 142, 16l). When science was naming or considering the Many matter (or atoms, electrons, etc.), and ether a continuity or a One, there was obviously an irreconcilable formal contradiction between ether and matter, and ontology or Being or ether became also a formidable "scientific" problem totally insolv- able until explicit statement of lingual agreements was made — as the problem obviously is that of just such agreements. c. Also, conventionally ether often became substantially the name for a universal relationship (such as L is used for in this book). Thus, Newton in a vague sort of way recog- nized that force essentially asserted a relationship between the various M's, and that the only possible relationship was that of continuity or absolute touching," or really identity in the end. He indicated that recognition by insisting on what is ultimately merely a truism (of everyday language ; §77a), that action at a distance is inconceivable — or that force can not travel over absolutely blank space. So ether was often used merely as Being, in the pure" sense of re- lationship to fill empty" space so that force could exist or Be (Being in conventional philosophy is also similarly thus confused between the three parts of the Trinity ; apart from that verbal carelessness, Being" is no problem at all). So obviously ether is a verbal or logical problem. Science has talked almost as much about ether as philosophy has talked about Being — and as futilely so long as the One and Many was unsolved. Ether" is said to be, or belong to, science ; but obviously that does not make it actually any different from Being merely because being is called philosophy, or from God ' because God is called religion. d. The immediate solution of the actual (i. e., verbal) problem of the ether is obviously therefore to say that ether also will be given mechanical structure — i. e., will be verb- ally split into parts, so that it will as a whole or when consid- ered as a One be the universe or God or Energy and really absolutely continuous; but that when we talk positively of it, it will be split into parts (also, it can be used as a relation- ship name, when properly so designated). Ether is there- fore matter. In this Part Two I usually use both terms as Many words, with the infinite regress. e. Reynolds named all the universe or Being ether, and arbitrarily split it into parts that were always touching, which parts or grains were small enough to be used as verbal counters that would outline, or construct, or constitute a structure" or form or mechanics, for any phenomenon. Those grains were finite, and did not explicitly take care of the infinite regress. Therefore, that regress or ultimate for- mal accuracy, and the explicit logic, was included in the field of the grain (which formally was a second' ether, im- plying an infinite regress of ethers or splittable Being). And obviously Reeve implied substantially the same thing (§92a). f. It is therefore definitely obvious that when scientists use any sort of elastic ether, or other elastic Substance such as Richards's "compressible atoms" (whatever those may be verbally made of"), they are tacitly making the existence assumption' of Being or substance or matter or the One, and are further tacitly asserting that it is split into arbitrary parts in infinite regress. For elasticity can not possibly be verb- ally asserted •without truistically implying a relative motion or verbal separability of internal parts. In orthodox science such elasticity is usually taken as perfect" — i. e., is given values of or °° as happens to be convenient to keep names from obviously reversing. Such elasticity is of course pure One, or mysticism. It is quite true religiously or ultimately, but violates the agreements that science as such will talk a posi- tive language of finite bodies which hence is directly verifiable experimentally. g. It also follows that all of science which treats of any sort of wave motion in any sort of perfect medium is not specifically science, but is religion. I. e., orthodox light and analogous subjects are monistic, and contradictory to atoms or electrons. Also, that orthodox light is invariably quantitatively inaccurate (XIII) — just as Newton's law is, and for precisely the same reasons. §93h X Two UNIVERSE 92 h. As a result of such confusions in the One and Many in previous science, it naturally is difficult to say just what is the general character of sciences which treat of fluids of light, hydromechanics, ether mechanics, etc. The descrip- tions frequently use zeros and infinities, just as if they were talking of the One; but they also consider a fluid as made up of relatively moving finite parts. Obviously, there is no explicit consistency in such ether mechanics ; they solve the One and Many by tacitly using the everyday valid logic — and no clearly nonsensical conclusion is written down, although as we shall see, some conclusions are written that are obvious nonsense in the light of explicit logic. §94. a. We may now consider two excellent fluid theo- ries of the universe. The first one, Marion Erwin s The Universe and the Atom" (l916), claims to be a general description of the universe. The second one, V. F. K. Bjerknes's Fields of Force," with considerable parade of modesty" avoids claiming to do anything in particular. Bjerknes gives a fine fluid theory, universally applicable (and I suspect that he is intelligent enough to know it — in con- tradiction to that modesty"). In another book he gives a mechanics of gravity; I have not seen that gravity descrip- tion, but as it would be but a trifling and obvious step be- yond "Fields of Force," I judge it is substantially valid. b. Erwin says in effect (ibid., pp. 14, 20) that he holds to both dualism and continuity, and throughout his theory he formally has that logical hodgepodge (the existence of the similar one in conventional science has been noticed in §93h ; Bjerknes formally, but not explicitly, has the same mixture). However, Erwin tacitly uses our valid logic in spite of the contradictions and vaguenesses he writes down, and gets his theory without much important error — working out a valid mechanics of ether which gives a structure of matter and a mechanics of gravity, light, and electricity. c. Erwin starts his theory by assuming (as a verbal name of Being) an ether. He then takes it (p. 16) that his ether is (l) structureless" and non-elastic," and is also (2) "capable of indefinite subdivision" — which is of course logically self-contradictory. He actually does use ether par- ticles" as his 'smallest part,' which particles (p. 6) are to be considered as not solid , but actually as a sort of elastic eddy or center of gyration ; such infinite and zero elasticity follows because (p. 16) the parts move over each other frictionlessly. That is obviously a logical mess when I thus merci- lessly set it down in parallel columns. But it is logically precisely the ether used in textbook physics : and as I said before, Erwin by a powerful and intelligent use of valid ev- eryday logic, or commonsense, steers a fairly safe course through the confusion — that confusion being merely his sup- erficial use of dualistic logic. Perhaps the only mistake of consequence which he makes is that he asserts that different sorts of light travel at the same speed in free space; he seems to have copied that out of the textbooks without investigating it much himself (see §127). d. He then begins his intelligible, detailed description of the universe by showing (p. 18) that because his ether is continuous, the particles are like bricks in a wall, and cer- tain given ones can move only if other particles take their places — so that finally all motion in the ether is effectually in closed paths ('circular,' like valid logic), or is rotation. That is simple enough, although it usually is not ob- served or stated. Reynolds of course always in direct effect uses that proposition. Also, it necessitates that either there be somewhere some absolute vacuum serving logically as an elastic field (as in Reynolds's theory), or else that the par- ticles themselves be elastic (i. e. , formally divisible in infinite r egress) ; for otherwise there can not be motion (cf. Index, "Zeno's paradoxes"). Also all of those considerations ob- viously introduce the formal verbal contradiction of the One and Many — and valid logic requires that they should. Also, if we apply that fact that the ether "rotates" to the trick of using words, it directly gives us the analogous conclusion or truism that all valid logic is 'rotational or circular. e. Therefore, Erwin builds up atoms by making the ether particles rotate. They explicitly rotate in all three dimensions of space, and that explicitness keeps him consistent with facts usually. Each rotating particle or wheel" is obviously truistically elastic. Also, a "wheel" in turn can and does act as a particle itself by revolving along the cir- cumference of a circle which passes always through the cen- ter of that wheel at right angles (that is a formal, perfect One statement, given as Erwin gives it, which contains inac- curacies). And that larger wheel is a part of a higher order structure — which means in the terms I have been using that the large wheel is, relatively speaking, static, and the lower order wheel moving along its circumference is dy- namic (as, besides rotating about its own center, it explicitly moves as a whole). And that large wheel can in turn also revolve as a particle in a wheel of a still higher ordei — and so on. In that way Erwin automatically or mechanically introduces the essential verbal inverse square form. Conse- quently, he can go from one phenomenon to any other me- chanically, so that he tacitly does unify them in spite of his dualistic logic. Or, what amounts to the same thing, he by that mechanical device introduces the infinite regress into all structures. He himself explicitly asserts the equivalent of that infinite regress on p. 78, and often elsewhere less posi- tively. Hence, his perfect circular paths are mere verbal forms ; in actuality that infinite regress makes all his circles or wheels vary from such perfection, or from such zero-infinity talk, and he definitely has That...XThis..., and he himself occasionally says so in effect. f. The reader may thus see in general how Erwin gets a valid mechanical model which in the end is formally con- sistent. Although it is nominally a fluid or ether theory, it actually is kinetic in that to the very ultimate the universe is divided into parts. In that ultimate, or with such infinite regress, fluid and kinetic are obviously identical. g. Now, Bjerknes in his Fields of Force" does not say anything very definite about atoms or ether: he asserts analogies. An analogy is of course in customary meaning a similarity of relationships among at least two sets of things or circumstances. Obviously, if there is a similarity, as the word analogy asserts, then there can be only one sort of simi- larity, and that is flatly an ultimate identity (§28h, etc.). So a valid analogy is, by valid logic, that valid logic itself. Therefore, if Bjerknes's claimed "analogies" are valid (and they obviously are), then he actually has unified the various phenomena he describes by means of them. Also, as he deals with electrical "fields" offeree, he essentially is deal- ing with atoms (XIV), whether he says so or not. 948 94 »I am quite aware that it is customary for people who do not wish to be held responsible for their logic to say that they state an analogy. I have merely pointed out that by any valid logic an act- ual analogy is valid logic. Probably the most sensible way to be re- lieved of responsibility for one's logic is explicitly to disclaim such responsibility— in which case it is obvious that usually the ethical wisest course is to keep silent, that sort of silence having long been praised as "golden." Bjerknes has the "modest" habit of "registering" what perhaps he thinks is proper scientific caution by verbally dodging saying anything in particular (if he were not really a first class thinker, with a highly valuable theory that is sound apart from that "modest," "cautious" ducking, this book would ig- nore him). By using a little valid logic I have rigorously pinned him down to saying something explicit, as a necessary preliminary to considering his theory; to do that is always easily possible with such 93 UNIVERSE Two X §95c h. Bjerknes uses vibrating, pulsating, or oscillating bod- ies — i. ei, he uses bodies that tacitly are fluid, and which change shape continuously, or are elastic. Vibration, oscil- lation, and pulsation are merely names for what finally is rotating motion : Bjerknes takes the whole of our par. d for granted. He then proceeds by using a pulsator as a body inside a fluid, and deduces the fields" in the whole, fluid, as far as he can take the mathematics before they become too complicated (he uses vector analysis, which is pretty com- plicated to begin with, and has buried deep in it the ortho- dox confusions as to the One and Many). The pulsator plus its field is obviously experimentally identical with one of Rich- ards's compressible atoms, or one electron and its tubes, or with any elastic kinetic" part. And in proof of that fact (which fact he only implies), Bjerknes shows that actual pul- sators, vibrators, etc., act just as do natural" phenomena; and that the mathematical statement of them is equivalent to the usual mathematical statement of electricity. i. Bjerknes explicitly has a serious difficulty (ibid. , p. 122). He can make his mathematics for vibrators agree with experiments and correspond either to static electricity or to magnetic (dynamic) electricity. But he can not mathe- matically consistently pass from one to another. And he obviously would get into that difficulty, because his phe- nomena are all of the same order. I. e., he keeps his vibrators all either static or dynamic; or, there is no ex- plicit mutual motion of the vibrators as wholes which is of the same order as the motions of the fields. If he had given such very rapid motion to some vibrators as wholes, as we saw Erwin in effect doing in par. e, the verbal inverse square law would have been introduced, and he could have com- pletely unified phenomena — including explicitly the infinite regress in his expression of the unification. §95. a. There are many other historical physical theo- ries — descriptions of the universe in the mechanical or mutu- ally named form of That. . . X This. . . . Our everyday talk is in that form; e. g., we classify" or relate certain things and name them paper, and use that with another factor, (say) cloth; or again, we similarly assert some meaning about Plants... X Animals... . But as soon as we observe a number of things we see that sometimes paper conventionally is cloth, "modest" people, but it is rather obviously objectionable in that it wastes your time, my time, and good paper and ink. The only sort of scientific or other caution that is actually logically or rationally or morally permissible to a normal, responsible adult is a statement that we are uncertain as to quantitative measures: if a given measure is of great importance (for the theory of "value" see §168) we should be unusually careful about using it, as it is certain to be inaccurate in some degree. To be "cautious" about a principle or about logic or about a theory, or about any real explanation, or about any general policy or executive policy, is logically absurd; for directly by the solution of the One and Many, we either know or do not know what it is; if we do not know, then we can readily find out and decide by attending to the matter. The completing practical remark about that very simple theory is that the greater part of our human personality is not intellect or "logic," but emo- tions (XVII); practically, it takes much training to make the emo- tions stand up firmly on two feet to any such definite principles (Index, "Courage"). Generally speaking, the person who is in practice very sharply, definitely decisive — is a "fine executive" — is often merely a callous, thick-witted brute (e. g., Napoleon, a num- ber of Germans). Only unusually developed men of the executive type, such as Lincoln, F. W. Taylor, Jordan, James H. Foster, Carnegie, have enough emotional strength to be definitely decisive and at the same time be intellectually sensitive and poised and bal- anced and right. However, the man who publishes a book is respon- sible for having enough emotional training to make him first definite, and then consistent, about principles; that is not too much to de- mand of any man who writes a book, for obviously the writer has plenty of time to think and then brace up his emotions, get his cour- age to the sticking point — whereas the good executive has but little time to decide, and hence has to have much greater strength. and vice versa ; and animals and plants are seen to merge indistinguishably together. Hence, we obviously need nam- ing factors that will be more specific than those names which are actually so vague that they fail quickly in use to stay definite" and distinguishable," as we just saw. And what is of more importance, we need to know also the unifi- cation of (say) those Jbur factors — to know, e. g., Plants... X Cloth... (the cotton fabric industry is largely summarized in that formula, for instance). Therefore all the more urgently do we need more specific naming factors, that will not lose their definiteness and usefulness in ordinary phenomena at least (e. g. , suppose we burn the cloth; then, as cloth, it is gone, and we would have to skirmish around for some new words before we had got fairly started on a discussion of cloth). Scientific" descriptions are merely those which use those more minute and hence more generally applicable fac- tors, or splittings. b. But the theories mentioned above suffice to make it obvious that all theories are finally identical. Superficially, the most thoroughly different conventional theories are the atomistic ones and the continuous fluid ones. But we have seen definitely that finally in practice they become identical in meaning — and that their inventors, by using ev- eryday logic, usually made them formally almost obviously identical. And similarly, we have just seen, in terms of That... X This..., precisely the same ultimate unification of the verbal contrast of 'rigidity" and elasticity," static" and dynamic," that we saw in terms of M(varying with)- L 2 T- 2 in §§74g, 80i. c. Those fluid theories may all be said to rest on what is called Bernoulli's principle or theorem ( Ency.Brit.," xiv, 42-3). That theorem is the law of conservation of en- ergy in terms of fluids, and can be expressed and experi- mentally exhibited in many forms. We may state it in this form :- parts of a moving fluid which have a relatively higher velocity have a relatively lower pressure; and vice versa, (if the fluid is supposed to be frictionless" that statement is directly positive as a sort of standard unit or One ; no fluid Fig. 95c. is such, and hence internal rotations of all parts, resulting from friction, have actually to be considered in infinite re- gress as being part of the true velocity." A vortex whirl is the most uncomplicated of such actual fluid flows.) Bernoulli's principle may be illustrated by the reactions of water flowing through a pipe containing a contraction, as shown in cross-section in Fig. 95c. Obviously, if a certain volume of water flows through the pipe, filling it continually, the velocity through the contraction is greater. If two small vertical pressure columns be attached as shown, the water will rise higher in the one attached to the part which has the larger cross-sectional area, in which the velocity is slower. §95c X Two UNIVERSE 94 A pipe with such a contraction is usually called a Venturi meter. The observed differences in pressure will imply the various velocities, and hence the amount of water flowing. d. The easiest way to see the ultimately truistic nature of Bernoulli's theorem — to prove it absolutely — is to express, formally at least, the infinite regress in it :- If the contrac- tion approaches a cross-section of zero area, the velocity must continually become greater in order that all the fluid may go through. If the contraction becomes zero, the ve- locity must be infinite; in such case there is obviously no cross-section of fluid which can exert pressure, and hence the pressure is zero. And by expanding the large part of the pipe to infinity, the velocity becomes zero and the pressure becomes indefinite, and sums to infinity (precisely as does the unlimited sum of pressure Reynolds has available to run his universe). That is the monistic form of the tru- ism and it is self-evident. The final pluralistic proof is to make a venturi meter and observe it (§35). The mathemati- cal or complete expression of it may be deduced from the last paragraph ; for the conventional expression of it, see "Ency. Brit.," xiv, 43, 121; or Bjerknes's mechanics, which are the same as Maxwell s electrical mechanics. e. It is obvious that Bernoulli's theorem is what we might call the fluid-naming or -aspect of the One and Many. It considers a "continuous" [One] substance in motion [split or the Many]. Obviously, arbitrary parts are conceived as having relative motion, or as being split out of that One ; and that verbal contradiction is promptly verbally contradicted by naming a relationship in the reverse way, in the direc- tion' of pressure,' so that there is no real contradiction. Or, Bernoulli's theorem is identical with our fundamental scientific law that mass varies with velocity. Bernoulli s form of that law, about two centuries old, is a capsized state- ment, that pressure decreases with relative velocity, or pres- sure (and hence density, and hence mass) varies inversely with velocity. It always happens that we get a reverse point of view and make language go backwards' (become a different form; §104), when we talk of pressure: e. g. , grain theory. And it is further obvious that all physical theories ul- timately use an indefinitely splittable universe, or Being, or One, or ether. And it is again obvious that all of science is rigorously and explicitly unified. f. But it is obvious that if we try to see all those ortho- dox theories at once, noting their consistent description or unification in detail for each phenomenon, we are likely to overburden our memories and become confused. The reader who happens not to be familiar with the names in physics is possibly a little confused by the foregoing too numerous points of view, even though they are handled generally. There is no need to try to remember them; if you see only in a rough way that a rigorous unification is possible, then you have understood all that is essential, and there will be no difficulty in grasping all that follows. For in the next chapter we use a single, comprehensive machine, a whirl, that can be concretely followed, and that automatically takes in all those conventional points of view. The next chapter is itself dry-as-dust mechanics, with perhaps an occasional bright spot. But we have got to get a language laboriously that way which will stand the strain of giving concrete names to cloth, paper, etc., in all circumstances. CHAPTER XI. General whirl mechanics. §96. a. Possibly the most important source of confusion or unintelligibility with respect to the various conventional mechanical theories in the last chapter is that people are prone to take them too seriously. They are merely tacit verbal agreements. We are not compelled to use just those agreements, nor to use those of the simpler whirl theory which I am going to outline — although of course if we are to be honest and fit for intercourse with the large majority of our fellow men, and wish to preserve a normal and useful nervous system, we have to adhere to some selected verbal agreement. But some people are inclined to exaggerate one point of view to infinity, and other points of view the oppo- site way to zero, and thus assert that those other ways are absolutely wrong. Principles or the One are absolute ; but ways of splitting the One can not be. b. And the men who invent scientific theories, just as the men who invent philosophical systems, are often so seri- ous about them that their fanatic insistence upon the sole correctness of their way or verbal trick is liable to mislead others. Consequently, there is in many people's minds a vague belief that there has to be a hard and fast way of de- scribing things. So it becomes desirable that if possible we adopt some easily intelligible way of describing, in which orthodox apparently mutually contradictory theories are all combined into a single directly observable machine which shows that they are not contradictory. c. Second, although the fact was ignored in the last section, conventional descriptions have a bad habit of using a so-called machine that explicitly occupies only one or two dimensions of space; e. g., the motion of an electron is us- ually described in two dimensions (because the mathematics for three dimensions are too hard, as if that would alter facts). There is actually no machine in any but three dimen- sions, if we are using everyday language (VIII). So a really intelligible machine, in addition to possessing the reconciling characteristics and obvious consistency required by the last paragraph, and the familiarity and other characteristics re- quired by the last chapter, must explicitly be a 3-dimension one. Then we shall avoid the verbal troubles of trying to talk two languages simultaneously. d. Third, and perhaps the most important of all, we want a model machine which will reproduce itself in higher or lower orders — which will in effect concretely and experi- mentally display the infinite regress. Bjerknes's models would not do it, and he could not finish a unification (§94i). Erwin s wheels, as he describes them, are not, as such, ex- hibited in any actual machine; he could have rigged a series of gyroscopes which would in general effect have exhibited them. Kelvin some years ago suggested that the universe could be represented by gyroscopes; and Erwin' s is substan- tially that theory, although expressed nominally in a quite different form. In short, in order to show concretely the way to describe static and dynamic, or fundamentally to show directly any "transfer of energy" or "change of poten- tial," we need a machine which will visibly give birth to smaller or "lower" order duplicates of itself; or which, in collections, will give 'birth' to a single duplicate of itself of a larger or higher" order. e. The machine which will concretely meet all those re- quirements fairly well is a vortex whirl. It has already been stated (§63i) that when our language model is revolved it gives a whirl; hence, all of the theory of language is directly identified with such a machine. These vortex whirls are readily made experimentally with some soap and water and the experimenter's hands (§10l); and they can be observed to give birth to different orders, which is something that some machines do not automatically perceptibly do, in the usual senses of those words ("biological" 'machines' do it of course ; XVI). And a whirl obviously has three dimen- sions; it would take much ingenuity to ' drop" one of those 95 UNIVERSE Two XI §97d dimensions and talk in a different language about whirls. But the actual proof that vortex whirls have those advantages when used as a mechanical model of the universe is given by the using of that model below. f. Kelvin also suggested some years ago that whirls would make a good model of the universe. Descartes over two centuries ago tried to use vortices as such a model — which is substantially the same as trying to use whirls. But Kelvin was troubled with the perfect gases and perfect atoms of classic logic, and made his whirls mutually frictionless, and eternal. Naturally they would not work," as there is not any frictionless part of the universe, unless we agree to reverse language forms. Any actual whirl, as we shall see experimentally, is modified by friction — and thus in the only way possible exhibits the relationship, force, verbally required by any mechanics in our usual language. g. In the rest of this chapter I give the elementary mechanics or description of whirls themselves, with conven- ient experimental verification. In subsequent chapters I use those whirls, as being simple and intelligible models of all phenomena, to describe those phenomena. The remainder of this chapter, because it gives details which at first are not obviously useful, will be somewhat tiresome. That can not be practicably avoided. The reader needs to see the general mechanics or relations of the universe summed up succinctly in the model ; that is what the model is for. But he may merely casually observe how the summing up is accomplished and not try to remember the details, and thus get through the chapter without painful effort. The intelligent reader is aware that it is difficult, by using classic ideas, to determine or express just what are the relationships and re- actions, especially the "valuable" ones, between (say) son and father, or a man and his neighbor ; or precisely what is democracy, concerning which there are so many conflicting opinions. Our model, by itself splitting or giving birth to sons, and by combining with others like itself to form collec- tions like mankind (or like the solar system — it is all the same except that mankind is much more perceptibly quantita- tively complicated), exhibits concretely and in the simplest form the complete answers to such problems. I doubt that the solutions of such problems can really be comprehended without the use of such concrete models — which serve to support and connect our memory, that otherwise would fail and leave us in confusion (XVII). In fact, the general so- lutions of those problems have already in Part One been given verbally, mathematically rigorously, and in terms of L and T. If you completely comprehend the solutions from that form of expression of them, then you waste your time in reading the remainder of the book, which in a concrete and more comprehensible way repeats the solutions. §97. a. We begin with no assumptions, but with an un- derstanding of the nature of verbal agreements (§22), and a willingness (and ability) to make some and stick to them. Let us say that the universe (or whatever it is that we are talking about : select your own name) is something continu- ous, which we will arbitrarily split as much as we like, but which universe in that verbally split condition is still, verbally- contradictorily, related together. That is the verbal trick or solution of the One and Many. If you do not like those agreements, then you may with equal validity (but with a considerably harder strain on your memory) take Reynolds's or Reeve's opposite ones : occasionally below I point out how you are progressing, if you have chosen thus oppositely. Also, we have tacitly chosen everyday Trinity language ; if you do not like that language, then you have an infinite choice of others out of VIII. Regardless of the way in which you choose to talk, it will appear that ultimately your meaning is identical with the one expressed in the ordi- nary way used here. b. We shall name that continuous something or universe ether. We do that merely because it is conventional ; if you do not like the name, then call it consciousness, or spirit, or mind, or relationship, or loyalty, or love, or anything else you like; or turn ordinary language upside down, if you like, and say that the continuous substance is non-Being, or non- God, or nothingness, or hate, or non-motion, or Nirvana. It would be precisely as if we agreed to call an apple a balloon, and vice versa :- it merely verbally happens that a balloon would be what we now usually call an apple. If any reader is unable to see that this paragraph is true — that it is actually merely a statement of verbal truisms, — then the only way which remains that can convince him is for him actually to try such substitutions, and see directly what he gets. I have observed that most people idolize words so much that they will not at first believe this paragraph — certainly they can not very readily make their emotions content with such verbal changes for a long while, although intellectually they have no objection (index, Ritual"). For my own benefit I have spent considerable time actually making some of the various substitutions suggested : it was profitable to me. Like most other people, I am quite fond of ritual and stereo- typed verbal phrases and names — when they are my own.' c. We shall now consider the ether to be verbally split into parts in order that we may have a positive or Many language. The parts are then really held together or re- lated by a relationship which we may call anything we please. Suppose we conventionally name it force: and as the parts are held together' let us give it also the more explicit con- ventional name cohesion. (Again, we could say the opposite :- that the parts were not held together. That would be iden- tical verbally with Reynolds s pressure, which is the reverse-direction relationship. But obviously the final mean- ing is identical.) Such split-up ether that is held together by cohesion is obviously, as a truism, viscous — or is not the mathematicians frictionless, perfect fluid. The parts of our ether, as a verbal agreement, rub together with some friction. That characteristic of course, in terms of ordinary language, agrees completely with all the actual parts of the universe that have ever been observed : nobody ever saw any actually frictionless parts, so it is rather a waste of words to talk about such. The fact of the matter is that Reynolds, e. g. , gives his grains mass, and hence actually a resistance to their motion (a substantial friction, regardless of what it is called or where mechanically located'), which he nomi- nally overcomes by the force of pressure. His pressure is then actually a relationship; he merely has not stated ex- plicitly the truisms. The truth is again obvious :- that the force" which runs the universe is truistically merely our name for the relationship of continuity. d. Suppose we name those parts of the ether ether cells, or merely cells. As it is an arbitrary procedure to assert parts, obviously we can keep on dividing ad infinitum. Fin- ally, an ether cell would be absolutely a geometrical point, of no space and time, that formally corresponds perfectly with the One from which we started — and would be Reeve's theory, and substantially Reynolds s. But, we are going to use positive, finite, Many or scientific language, and introduce quantitative inaccuracy. So we say that the cell is of some small finite size (thus definitely introducing L and T — but I shall not go into that again as it would be only a repetition of Chapter III). That cell itself is, truistically with the last two sentences or because of the actual infinite re- gress, further divisible; hence it formally has parts which can move relatively to each other, or is elastic in a vague and §97d XI Two UNIVERSE 96 unexpressed quantitative degree. Regardless of how small we make the cell, there inevitably remains that vagueness as to the measure of its elasticity. The real measure is and °° : it is absolutely a One : — but language disappears if we use that. Hence, the elasticity (or a cell's actual splitting) is pluralistically or scientifically indeterminate; in other words, it is absolutely impossible in any finite time to get any abso- lute accuracy in any scientific or actual measurement. That vagueness as regards that cell will never disappear, as it is a verbal truism. e. All other valid mechanical theories or verbal descrip- tions will have the same inaccuracy or its equivalent. (If we use an infinite pluralism, thus starting with fixed cells of exact size, we get a variable, inaccurate One, which obvi- ously amounts to the same inaccuracy.) Both Reynolds and Erwin fail to state that logical point very definitely : they calculate the "size" of their standard small parts, which in our machine are called cells; but both of those calculations finally take for granted that V\ is fixed and constant (and it is not; §127), which amounts to making the One constant; hence their sizes are merely relative approximations — Me s, applying to our average environment, and really unfixable with respect to a general environment that is a One truistic- ally variable. Also, if later on we say that light is waves, then one size of ether cells would fit average measures — be fairly accurate. But if we say, as is equally correct, that light is corpuscular as Newton had it (i. e., is not formally continuous, but is verbally made of small structures"), then a different sized, smaller cell would be needed for the same degree of quantitative accuracy. In short, any size of cell which we determined on would give a certain degree of accuracy — whether close enough to be acceptable or not de- pending entirely on the fineness of our perceptions, measure- ments, experiments, standard units. The mathematicians can readily calculate those sizes (they are the ultimate arbi- trary quantitative bases of harmonic periodicity) from the mathematical theory of unification in IX, and by following Erwin's and Reynolds s methods if they need such guidance. But we do not need such figures in this book, for we can get a better concept of what an ether cell is, and its practically- varying sizes, in this way :- Suppose that our stellar galaxy (i. e., the nebula in which we are, of which the Milky Way is the base; XII) is an atom in some world like this earth, but larger. Then our solar system — which is obviously a variable, elastic affair, — which would be an atom of our gal- axy, would be an electron of that larger world. And then, what to us is a pin head would in size serve an inhabitant of that larger world as a pretty accurate ether cell. Similarly, what to us could be a fairly accurate ether cell is a percep- tibly variable molar body to an inhabitant of a world inside one of our electrons, and he would have to split it (our cell) up quite a lot, quantitatively, to get a fundamental de- scription of it. And so on forever ; — that is what an infinite regress actually means. From that can be seen the consistency of asserting that there is no such exact thing as an ether cell. It is just an arbitrary very small part — small to us: we are enormously big to some things and enormously little to others. f. We may also note again that when we say we split the ether into parts, then in ordinary language (because of having introduced L and T) we imply simply as a verbal tru- ism that there is relative "motion" of those cells. (Or, we could use an inverse language such as Reynolds's, in whose theory the grain plus its vacuum does not necessarily as a whole move; i. e., we could assert a static universe — static relative to any given part. But that would, as an obvious tru- ism, and as actually seen in practice in Reynolds s theory, produce the same final meaning as our everyday way of nam- ing "motion.") And that is the last verbal agree- ment needed, and the last time the reader could consistently require a general change in the everyday verbalisms which I have been stating as the ones I am explicitly to use. I have given the reader who does not like everyday commonsense language an "infinite number" of other expressions to select from, and shown explicitly the translation of each into our language, and demonstrated in general that all those lang- uages give the same meaning as the meaning now to be ex- pressed in our commonplace language. g. If the cells were absolutely distinct, then the relative motion of any two of them (say we take two tangent cells) would obviously require or exhibit either or » force — i. e., relationship. Reynolds's grains are thus distinct, and he fundamentally had to use mathematical trigonometric fictions to get any Many measures (e. g. , the tangent of is ; and of 90°, °° ; with "actual" values between). That fiction is the orthodox mathematical error that and <*> are numbers (§44) ; I shall not use the direct mathematical avoidance of that fiction here, but express the consistent avoidance or so- lution directly in terms of parts of the ether. Strictly speak- ing, with such absolutely separate cells (i. e., in explictly infinite pluralism), the size of them (or of grains, or Reeve's masses, or Erwin's particles) would have to be absolutely before we could have a really positive language in which there was a canceling number of formal contradictions (in short, for explicit verbal consistency we must assert explicitly an infinite regress). That is a repetition of pars, d and e from a reverse point of view. h. Then, when I assert that the cells are not distinct or of accurately fixed size, it is obvious that it means that that way of asserting the infinite regress formally requires that the cell be finally divisible into relatively moving zero points. Then, any motion of any point is zero-infinity, or indetermi- nate, or mystic. Therefore, when we arbitrarily proceed from that One to the agreed-upon Many, we truistically take a time and space assemblage of those points and arbitrarily assign a positively named or numbered L and T to it (i. e., assign a finite size — verbally contradictory to the One) : we number or name that L and T, or Energy, or force, anything we please. And the inaccuracy of such ' 'measure' ' is merely fundamentally a truism of the fact that there really is no such thing as an actual measure, or that the One is ineffable. That is of course another repetition of the solution of the One and Many. It sounds odd in that "concrete" form. But it is the explicit general expression of this very simple fact:- If we slide a finger over this paper, there is friction. Parts of the paper enter into depressions in the skin, and vice versa there being transfer, or "wear," of the paper into the skin, and vice versa. Ultimately, the "friction" is the re- lationship of absolute continuity. If that is not so, then the motion of the finger over the sheet involves absolute tangen- tial motion, and zero energy is exhibited — or no phenomenon occurs,— which glaringly is not so. Hence, with rigorous logic (this is of course another repetition of the One and the Many), the fact is that the finger and paper absolutely merge; or part of the so-called paper is in the so-called skin, and vice versa. Now, from that fact, which is so ob- vious that we customarily take it for granted without ex- pressing it, we get this very simple and intelligible relation- ship for our ether cells:- the outsides of neighboring ones are together, or stick together, or merge together (or nega- tively expressed, simply have never absolutely split apart), and exhibit friction when there is any relative motion of the two. (Precisely the same thing happens with respect to the parts inside a cell, ad infinitum.) That statement is the 97 UNIVERSE Two XI §98b formal expression of any 'motion." By explicit classic logic obviously it is impossible that there be any motion; Zeno's paradoxes showed that centuries ago, as we saw ("Ency. Brit.," Zeno"). This paragraph is hence a detailed, con- crete, consistent expression in everyday language of motion. i. Therefore, with such moving cells, and with an inner infinite regress of motion in each cell, when we inaccurately speak of a finite relative motion of any two cells another verbal puzzle arises. We may consider the cells each to be like a toy rubber balloon, with the surface covered with sticky glue. The problem is whether the relative motion of two cells consists (l) of stretching the surfaces of the bal- loons inwards and outwards from their original spherical shapes, while their centers do not move in translation, and the place of the sticking together of the two surfaces does not change; or whether the relative motion consists (2) of the same stretching motion, with the sticking-together places slipping more or less on each other so that the motion is a rotation of the cells as a whole; or whether the motion con- sists (s) of a translation of the whole original centers of the cells, accompanied by some degree of stretch of the surfaces with (A) fixed sticking, or (B) slipping sticking, or (C) rup- ture of the sticking. That problem is obviously a verbal quantitative one of some complication. None of those things can happen if the Many cell or part is exact ; but we need not go again into the solution of the One and Many with re- spect to each phase of the complication. (The same compli- cation is tacitly buried for Reynolds s grains in the vacuum' that surrounds each ; for Reeve s points, in the distances' between them; for Richards's compressible atoms, either in the fields" of kinetic theory atoms, or else in the omission of saying how anything can be compressible : and it is tacitly buried in other theories. Obviously, it truistically is inevitable. So I am being d-efinite about it here.) We merely observe, now that we know how the One and Many works, that the verbal problem of such motion itself takes an infinite regress; the three heads under which I with arbitrary formality stated the problem indicate that regress — and that it is a quantitative problem of where and how much. So the problem above is itself absolutely insoluble accurately, and has no essential meaning (i. e. , there is no such real problem). Formally, and with rigorous logic, we instantly solve it arbitrarily by saying that we shall roughly have it that the cells have some of each kind of motion:- that spe- cifically with reference to two originally touching cells there is some surface sliding, and then rupture of surface contact; some internal stretch or elasticity, largely stopping when the contact ruptures and translation as a whole (revolution) takes place. To illustrate that:- if we had a roomful of the sticky rubber balloons, with a string tied to one near the cen- ter of the room, and pulled hard enough on the string, there would obviously be some perceptible degree of each sort of motion in some balloon or another, and some motion in each balloon. The quantitative theory of those motions is an ar- bitrary matter, and has no end ; it simply is truistically im- possible to work it out in complete detail. But, we can readily enough get sufficiently close answers by experiment or experience in a particular case and predict such answers. j. The sum of the last paragraph amounts to saying that there is absolutely no accurate decision possible as to whether the motion of the universe in any given place is (l) a vibration (where the cells stick together, as is substantially the case in Reynolds's theory or in orthodox wave theories), or (2) a translation (where the stickiness of two cells ruptures, and the two move apart [finally in closed orbits], or revolve [as is substantially the case in Reeve's theory or in ordinary kinetic theories]). The obvious truth of the matter is that neither sort of theory — (l) wave, or fluid, or formally "static," or (2) kinetic, or formally "dynamic" — is accurate. So it is a mere matter of convenience as to which one we shall use in a given case (of how definite or accurate we want to be or need to be in expression), the ultimate truth obviously being that in a finite Man}' language, some degree of one sort of motion implies some of the other. This fact that any phenomenon may be expressed validly, but inaccurately, as either a vibration," or as a molar movement," is rather hard to see when expressed in the above general form. It is easy to see when we come to use it in detail. k. This section completes the general explicit descrip- tion of an ether cell. That cell exhibits, for each of an in- definite number of points of view, the inherent infinite regress of any actual That or This. The reason this section seems complicated is that I have condensed all of Part One into it, in being explicit as to the solution of all those infinite re- gresses. Possibly it will be a year or so before the reader can feel comfortable and at ease in the conscious explicit presence of one of those regresses. But now that we have summed all those solutions into the ether cell, we shall no longer be troubled by the explicit or obtrusive presence of a regress. So we are ready to get the summed motions of two or more cells. In short, having split the universe down to the limit, we now start putting those parts together again, and in so doing we describe everything. And immediately on considering a number of cells in motion together we get, truistically and also experimentally, a whirl, which is an easily observed unit structure, that turns out to be mechani- cally identical with the reactions of a cell itself, and that also serves as the automatic model of everything. §98. a. The universe is therefore inaccurately agreed to be a number of cells. By the theory of commensurability (§50), any certain number of constant cells would fail to make a universe or anything (which statement summarizes the regresses stated in detail in the last section). Therefore, as a truism all cells must continually be in motion as an at- tempt, to speak logically," to bridge that verbal gap or incommensurability or contradiction. Also, and what is equivalent, no cell of a positive size (and all are agreed to be positive— to have a definite L and T) can ever possibly be in a position [perfectly] symmetrical with any certain cell or cells. Therefore, no two adjacent cells may ever have ex- actly the same amount of motion or energy. As we have agreed that the size of cells is variable (i. e., they are split- table), we must therefore, in order to have any positive lang- uage agree that each cell will always be verbally the same body. To say that is not saying that an ether cell is always the same mass. A cell is always varying in mass (cf. par. h). But a cell is always the same That or This — is Thate or This e . It is a fixed verbal counter or symbol. It is a positive, verb- ally surviving' unit of the Many, but in every actual way is varying, inaccurately measurable, and irrational alone. b. Consequently, we must state the relative motions of at least two adjacent cells in order to be rational, The adjacent cells may first be considered as joining their sticky skins along a part of the circumference, as shown in cross-section in Fig. 98b. Then, because they cohere and are in different rates of motion, they will (l) rotate in the same direction, as is shown by the arrows; and (2) one cell will to some degree revolve about the center of the other. (In expressing these mechanics I make the usual Fig. 98b. §98b XI Two UNIVERSE 98 distinction that a body rotates when it turns [approximately] around its own center, as in the daily rotation of the earth; and revolves when it turns around some other approximate center, as the revolution of the earth about the sun.) c. We first consider that rotation in the same direction (Fig. 98b). If there is any actual reaction between the cells A and B, then obviously they must rotate in the same sense, so that the joining portions move oppositely, as shown. That is contrary to Maxwell's vague guess at a mechanical ether. But the essential point is that so far as we have yet gone, those two cells (virtually 8-dimension wheels in this reaction) are formally the total universe; from that point of view their rotation in the same direction is readily proved experimentally :- Suppose A and B were two spur or cog wheels (as partly indicated in Fig. 98b), and that we sup- ported them by their axles (not shown) so that the cog teeth meshed (those pictured are engineering monstrosities, of course). Then, the only general way in which we could make the two react would be to pull A quickly down (say) for some distance (and B upwards, if we liked) ; the teeth would of course shortly unmesh, and the wheels would rotate in the same sense, in the direction shown in Fig. 98b. If instead of the sticky cells, we had cells that had very flex- ible rubber cog teeth, and meshed them loosely together, we would get the same reaction somewhat more clearly, the teeth reacting, and bending out of mesh. Clearly, if the two wheels rotate in the opposite directions with teeth in mesh, no reaction of just the two wheels (i. e., of the two considered as a standard or whole One) occurs, except in so far as the teeth themselves have friction (which is a lower order reaction). If that friction be free to exhibit itself in a reaction involving perceptible motion of the whole wheels it obviously will push the wheels apart — so that the two, at the point of contact move in opposite directions, which obviously amounts to identically the same reaction already described for rotation (note the small arrows at point of contact in the figure). d. Before we explicitly take up the revolution of (say) B about the center of A, we need to consider in general the motion of a collection of cells in the total universe of cells. Obviously, as already seen in §94d, if a collection of cells moves, its place has to be taken by another collection. 983 In order to avoid infinities and zeros (to avoid lapsing into One language), that replacement would obviously require some short time and be accompanied by some slight stretching of cells (in infinite regress as indicated in footnote). (That is obviously what happens, as also shown by direct experiment; e. g., if a puff of smoke be blown into the air, time is re- quired for the reactions.) But obviously that motion finally is in a closed path. The part that first moves takes the place of some other part; and that, of another part; and so on until the last part that moves takes the place of the first part that moved. (Obviously, because there is some elasticity or vibration, in actuality that motion involves in some degree every bit of the universe; that is the infinite regress, or it is the way the One and Many absolutely reconciles itself in this de- scription. We simply quantitatively ignore the vibrations that 98d If the cells are elastic enough, the cells that 'move' may merely "condense," and adjacent cells "dilate," so that there is no change in the relative order or arrangement of cells. That, relative to the cells mentioned, would be a formally absolute "vibration." But obviously, the size of the "elastic" yield made it result that there were merely "vibrations," and the 'motion' I am describingin the text would then take place relative to 'parts of cells, instead of relative to whole cells. Hence, the text which I give is always ap- plicable if we take parts small enough. Compare also §97j. Neither "vibration," nor the 'motion' I describe, is perfect; to avoid lapsing into One language, when those cells move some "elasticity" must be exhibited in order to make the motion use a finite time interval. are extremely slight: we can't yet in any way perceive such vibrations that are much beyond X-rays in smallness unless the yet unmeasured reactions in telepathy, "personal mag- netism," etc., are such). Hence, all motion in the universe is finally revolution. If we speak of translation (or "vibration," meaning strictly back and forth translation), then that is but a partial statement of the total motion which finally takes place. e. Therefore, because the motion of A and B is neces- sarily asymmetrical, one cell must necessarily finally revolve about the other. For the reaction of the sticking surfaces (or of the elastic cogs) accounts for or provides for only equal or symmetrical motion in each wheel. It is therefore again seen (and again it is directly truistic with language agree- ments), that there can be no accurate solution of the motion of two bodies (§83). For there is no possible way of de- termining just how much asymmetrical the motion is ; that is finally dependent upon relative sizes, etc., as given in §97i. So it does not in the least "simplify" anything to use a machine of only two cells. Hence we shall at once con- sider more cells and get explicit whirl mechanics. The fore- going is the rough, general logic or mechanics of whirls. f. For the foregoing, in addition to omitting the other cells that actually existed, also has been tacitly dropping a dimension of space. If we consider that A and B in Fig. 98b are actually 3-dimension approximate spheres, then the actual reaction, instead of taking place in a plane, as the figure tacitly indicates, takes place in the 3-diraension space in which the surfaces stick together, or the flexible cogs intermesh (the cogs' on such spheres could be small radial pins). And in that actual case, obviously there is nothing to determine positively the direction in 3-dimension space in which they rotate. In terms of technical physics they have six degrees of freedom (i. e., three dimensions in two direc- tions each); that substantially makes six specific vague- nesses. And in our actual model (i. e., the whirl we are going to use) we are going to eliminate all such vaguenesses. They will still be there of course in reference to measurings, or when using the measuring member. But we are not using that member now, but are using That... X This... which is to have concrete, direct experimental positiveness. g. Consequently, we observe that actually A. and B are surrounded by other touching cells, and that in each case of two mutually reacting cells the motion is asymmetrical or unbalanced. The motion or reactions for two cells was-were seen to be as a whole balanced when we were considering it in a 2-dimension plane, by all the 'closed' or universal mo- tion there is — namely, a rotation and a complete revolution. We may note that that leaves an unbalance in the third di- mension; i. e., on each side of A and B in the direction per- pendicular to the plane of the paper there is an unbalance. That unbalance has to be totally or ultimately compensated precisely as we ultimately balanced A and B in just the plane of Fig. 98b. I. e., there can not be either perfect rotation or perfect translatory revolution of A and B in the third di- mension : there must be, for finite Many or pluralistic lang- uage, an infinite regress, which gives a combination (in some quantative degree) of such rotation and revolution and of elastic internal "reaction" (i. e. inner rotation and revolu- tion), of adjacent cells (cf. par. d and §97j). h. And therefore, if we begin by considering that there are numerous cells in the plane of the paper (Fig. 98b), the reaction of rotation and revolution of all the cells will sum up as being of precisely the same nature as for the two, keeping in mind that there is some elastic change in the size of the cells. That is a verbal truism with 'mass varies with velocity.' For obviously, that elastic change is a change 99 UNIVERSE Two XI §981 in mass, and the rotation and revolution (considered apart from the inner change or elasticity) is velocity. It is simi- larly obviously truistic with Bernoulli's theorem. i. Then, to complete or finally balance that reaction in the plane of the paper (Fig. 98b), the sideways unbalance will have to be taken up in precisely the same way by cells on the sides (i. e., by cells up and down from the plane of the paper). By Bernoulli's principle the greater the local unbalances or the higher the pressure, the slower the veloci- ties. Consequently, by that, just in the immediate vicinity of the plane of the paper there forms a tube — "eddy" — of ro- tating and revolving cells, with any cross-section of it that is approximately parallel to the plane of the paper equivalent in motion to the motion in the plane as described in the last paragraph. And that now partially described balancing of motion, or definite statement of equal action and reaction, in three dimensions is identical with the "tubes of force" used by Faraday, Maxwell, and finally with practically complet- ing additions by Thomson. Also, it is substantially identical with what Erwin calls "ether flow" from the center of his wheels. In various formulations of physics that tube (just a short portion of which I have so far described) is called fluxes, stresses, strains, magnetic lines, displacements (electric and otherwise), currents, distortions (of various sorts), centers of gyration, etc. Consequently, the concrete reactions I am stating here maybe compared with those conventional mathe- matical ways. The difficulty with the conventional ways is that they usually tacitly consider that tube as being exactly perpendicular to the plane of the paper, and hence as extend- ing indefinitely up and down (I have asserted or shown no such tube: see next paragraph) ; consequently, conventional ways usually get "lost" right there, in that and °° — as those unending" tubes are obviously unintelligible, and agree with no machine or finite thing, being really a One. j. As we have here carefully carried along a verbal bal- ance between the zero-infinity One and the arbitrary finite Many, we may now at once see precisely how to complete that tube and make it actually practically balance, and at the same time show the explicit completion of all conventional ideas of tubes of force, etc. We have already seen repeatedly that the only possible way — the truistic way — of completely and wholly balancing those unbalances is to make a closed path. Ultimately, the only way of obtaining that closed path with one tube is to consider it bent around into a ring (i. e., it was only approximately perpendicular to the paper in the last paragraph, in order that the cells in the plane of the paper should balance), closing on itself, thus forming roughly an anchor ring or tore or doughnut, or a vortex whirl or whirl (§68hi) — or a somewhat fully formed and enduring eddy, of which a whirlpool is one not very obvious example. Actual finite parts of the universe then, in such a structure, are in rough equilibrium (i. e., absolutely complete balancing is obtained only by considering some elastic motion of every part of the universe in infinite regress — as we have already seen repeatedly; e. g., in §86). That whirl is our unit structure, or symbolic machine, or This e . Verbally, its formation is the expression of truisms ; for a concrete tube has to end somewhere; otherwise we abandon scientific lang- uage and revert to the One — -which, although quite correct if acknowledged, is no longer the science we agreed to make. Faraday substantially made his tubes close on themselves; but Maxwell lost the idea. Thomson makes his tubes end in positive" electrons; but positive electrons are nothing more that standard Ones (i. e., they are mere logical verbal unifications of electrons) ; hence Thomson implies that ulti- mately all whirls are themselves united, which means that no whirl is a perfectly closed or balanced structure. It will be noted that I have said above that our closed whirl was in rough equilibrium. This whole Part Two is required to show that (i. e. , the whirl, not being in complete equilibrium, changes itself in various ways into other structures, and thus transfers energy, or displays all phenomena). But this much of this chapter shows the general completion of the electron theory. We see the details as we proceed. k. Instead of having the tube 'close on itself' (as in the last paragraph, thus forming a whirl) in order to obtain a. fair dynamic equilibrium for a given collection of cells, it would have been possible (as the only other verbal alterna- tive) to have the cells all take up mutual motions more or less immediately or directly closing on themselves (in the sense that a rotation may be said to be a se^closed revolution), thus forming a more or less spherical or spheroidal body or collection of cells. But we note at once that if the tube' were of sufficient diameter, so that when it closed on itself no hole" was left in the ring, then the so-called 'ring' or whirl itself would quantitatively be more or less a sphere. (I. e., suppose we made a doughnut out of a tube or roll of dough — instead of cutting out a hole as is more usual in hand making. If we made the rolls relatively short, then when we bent the two ends around to join them together, no hole would be left, and the dough would squeeze into more or less a sphere.) Consequently, that spherical form of dynamic equilibrium is merely a special case of a whirl (a quantitative case, in which case conditions are pretty steady, or potentials are comparatively low). We shall see, e. g. , that the earth is a whirl (XII). On the other hand, the closed tube — the filament of the whirl — could have any degree of tenuity com- pared with the size of the hole. If the tenuity went into the limit of becoming a line closed in more or less of a circle, with a hole therefore of a size infinitely ' greater than that line's diameter or size, then our language would obviously reverse — the One and the Many formally exchanging places, giving explicitly an infinite pluralism. In the precisely anal- ogous case of where the hole or radius becomes zero (if we were to consider it explicitly) our language also reverses. Therefore, as we shall see (XII), the spherical form of whirl is a reversal of the ring form. In practice we do not let the logic or language itself change, but our point of view — or statement of L, — in lieu of such logical change, changes from in to out, or reverses ; or, from the same point of view the language goes backwards mechanically. Or, what is prac- tically important, the sphere is (to use customary terms) static (e. g., we say the solid," steady" earth); and the whirl which is not a sphere is dynamic (e. g. , the magnetic "field" of the earth ; or the winds that blow over the earth). 1. It is hence obviously a truism that when we consid- ered our rather spherical ether cells as being variable, or elastic, we thus considered them as being whirls also — very small whirls, the definite motions qf translation of whose inner parts were so short that we quantitatively neglect them. In brief, our valid logic appears perfectly circular — and valid because it consistently includes the universe. Therefore, as some more obvious truisms, any actual body whatever in the universe may be considered a whirl; or any part of any body or of the whole universe is a whirl ; or the universe it- self is a whirl. I shall explicitly show all that in direct, concretely verifiable detail as we proceed. So in a whirl we have a machine model, immediately applicable to anything. In §101 I shall describe some experimental whirls which you can make for yourself in a minute or so ; then you can sub- stitute that visible affair as being the directly usable summa- tion of these verbal truisms which constitute the mechanics of a whirl — for these truisms are rather tiresome and hard to remember in their verbal form. §98m XI Two UNIVERSE 100 m. As we saw, because no cell can, by the theory of in- commensurables, possibly be quantitatively accurate, there- fore no finite collection can be accurate or symmetrical, or in absolute equilibrium. Hence, a finite or actual whirl is never in absolute equilibrium with its environment — or what amounts to the same thing, the whirl is not perfectly closed, does not have a definite surface, etc. In brief, the whirl, as our actual structure, is not a perfect or an exact structure. Therefore, if we conceive a geometrical line in the whirl which always passes from one cell to another at a point where the pressure in its constant change is instantaneously zero or balanced, then that line obviously would be continu- ous ; the point mentioned would always be the instantaneous point of rupture; the line would always be changing its loca- tion ; it would be the conventional path of least action (ex- plicitly the path of zero action, which is the limit of least); it finally at some point would leave the given whirl to join similarly continuously with the rest of the universe, and would reenter the given whirl at the point where it was begin- ning to join another (the cell-pressure being there infinity, which, as we shall implicitly see in the rest of this chapter, is the same as the zero-pressure from the opposite point of view), after having passed through all the points of all the other cells in the universe simultaneously (as strictly by the infinite regress, each point is always rupturing from one point and joining another). Hence that line, which is analogous to the conventional stream line, would be infinitely long, and formally would outline the total structure of the universe. The line would in every respect be zero and infinity, so that a geometrical point (zero mass or zero "material") moving in it at infinite speed would obviously truistically be the universe. In brief, all materiality" absolutely disap- pears from the universe whenever we give explicit and rigor- ous description (and the description just given is quite ortho- dox, being the ordinary principle of least action stated in an obviously truistic form). We see that the so-called whirl or "matter" I am talking about is a mere form, a verbal trick, which outlines the absolutely inexpressible finally real uni- verse, which universe or God is the line of least or absolutely zero action. We land in Nirvana, here and now, by that particular view point (we could shift to infinite God by em- phasizing that the line reentered each cell or point at the point it was joining another) ; and we did it by being per- sistently and really concrete — by really sticking to Newton's third law, which the materialists fancy they accept. Only by being metaphysical and vague and inconsistent like con- ventional theologians and materialists is it possible to be ma- terialistic and "worldly." The reader need not take this paragraph too seriously. It is ultimate truth; but as we see in ethics (§§166, 162), ultimate truth is a dangerous thing to dwell upon explicitly without previous training: just a touch too much of it for an unprepared man, and he goes insane, as, e. g., did Newton temporarily and Sweden- borg rather persistently. So if you do not grasp this para- graph for a month or two it is merely nature automatically and properly protecting your brain from too sudden a load. I abruptly described the total universe or God in sharply precise physical terms. If I had at the same time definitely shown that the sum was also a person, if nature had not sufficiently protected you, you would have become God- intoxicated," or in undue measure have had what the theo- logians usually call a rebirth or salvation (cf. §158). n. Without being so ultimate as in the last paragraph, we may observe that because the whirl is not exactly in equi- librium, there are truistically variations from a perfect geo- metrical tore, which we may note from three important points of view:- (l) The 'surface' of the ring is not a sharp geometrical surface, but is a variable, 3-dimension ^zone of high velocity and relatively low pressure, which shades off" with lower velocities in both directions away from that 'surface' (in the direction of the perpendicular or normal on both sides of the 'surface'). I. e., there is rotational and revolving motion "outside" the ring or closed tube, as well as inside it. The ether cells outside with that shading-off velocity constitute what I shall call the field. In Fig. 98n two views of a whirl are shown — in cross-section above, and Fig. 98n. in plan below, (which tube is show the field, only the ring.) The shown closed dotted lines about the tube in cross-section at ABD and A B D ) (The field is not drawn in the plan view — I shall call the ring or tube the filament of the whirl. The filament is shown in full lines in the figure — the plan or doughnut shape being below. The approximate or instantaneous center about which the cells of the filament revolve is shown in the cross-section part of the figure by the centers F and F of the filament, and in plan by the closed line FiFi Fi . I shall call it the filiar axis. The line ap- proximately perpendicular to the plane of the filiar axis, and through its approximate center (shown at C C in elevation, and at C2 in plan) will be called the ■whirl axis or main axis, or simply axis. The field and the filament is the whirl. The 3-dimension surface or zone (ABD, A B'D , A1D1, AiD/) between the filament and the field I shall call the difference surface, or briefly surface (when I mean 'geometrical sur- face in this book, I use that explicit phrase, unless the context clearly implies it). There is also, in the same way, an indefinite 3-dimension boundary of surface on the outside of the field — 'between' the field of one whirl and the field of the adjacent one. I shall call that the field difference surface, or briefly the field surface. We see more such details below, p. The second important view to be taken of the result of the asymmetry of the filament is that the cells truistically do not revolve {and rotate) in a plane that is normal to the filiar axis; i. e., there is no definite, sharp, exact revolution of the cross-sections ABD, etc., about F, etc., in the plane of the paper as shown by the little arrows. For the 'side- ways' pressure is not steady. Hence, there is truistically a sideways (i. e., in the direction of the filiar axis) component of motion, so that as a general sum for the whole filament the filament effectually rotates about the main axis, and a cell 101 UNIVERSE Two XI §98q in the difference surface thus travels in a spiral (as at S, S) — in a line which when projected on the filiar axis in any whirl always makes with it an angle different from 0° and 90°. (Possibly a more correct technical name for that path is heli- cal, or screw thread. However, it is not perfectly helical and not perfectly spiral, but a variable path between the two as limits.) Obviously, that spiral motion, relative to any- thing outside the filament (to its field, e. g.), may as extreme limiting views be either (l) called a rotation of the filament about the main axis, or (2) called a relatively fixed filament with a spiraling surface (like a helical spring). And those two points of view, when taken to the extreme One limit (to 0, or <*>), are analogous to the dynamic and static views in par. h or in §97j. So we again avoid both verbal mysticisms by asserting that the motion never becomes perfectly rota- tional (for in that case no connection could be had with any- thing outside the filament, which is a self-contradiction; or it is Kelvin's frictionless whirl), and never becomes perfectly spiral (for the same truism). We say that the motion is some of each, and the cells then are consistently of finite size. Therefore, now that we have preserved actual finite sizes, without running off into - °° mysticism, we get an important mechanical reaction — the completing or ultimate reaction- — or the concrete truistic expression of what transfer of energy is, of what a phenomenon is :- For obviously, with cells of a finite size, whenever the angle of the spirals ap- proaches close to or 90 {how close depends upon the size of the cells), then at that surface locality where it happens, obviously a cell or cells would truistically leave, or enter, the filament, and the filament thus would partly wear out or decrease, or grow. As orthodox science so often omits that point it is desirable to consider it in detail for a few paragraphs. In the next one I emphasize the point by sub- stantially repeating it in a different form. p. What we must say, as a truism of the positive plural- istic language we are by agreement using (and which is also definitely proved by concrete, verifiable experimental fact in §§101-2), is that if the spirals S, S in Fig. 98n make an angle of 0° (or 180 ) with the filiar axis F1F1 Fi (become parallel to it), so that the motion is pure rotation of the fila- ment about the main axis, then obviously there is no reaction, or there is zero force, holding the cell in the filament. Be- cause the cell is of some finite size, therefore it truistically leaves the filament and joins the field before that absolute or 180° could occur. Similarly, if the spirals at any spot on the surface approach 90° (or 270 ) the local pull on the cells outside approaches infinity, and as they are of finite size, be- fore any actual 90° is reached, one or more cells are pulled into the filament. Or, by taking the opposite point of view, the expression of all that can be reversed, giv- ing identically the same result. The simple verbal fact is that such and °° functions are indeterminate, and are not applicable to finite bodies and can not occur with respect to them. Orthodox science frequently uses such - °° forms. When it does it obviously is religion — and is wrong if it pro- fesses to be science. As a matter of fact, orthodox science tacitly uses valid logic or commonsense, and asserts the act- ual or correct answer ; for it sees the answer also in the form of experiments, similar to those I shall give. But I am being explicitly consistent here — putting commonsense into words, — and as an immediate consequence we have seen already the total explanation of what "growth" is, and it turns out to be identical with any actual "transfer" of energy, or any phenomenon. A few rabidly agnostic scientists and theolog- ians hold that the explanation of growth is "impossible." Truistically it would be if pseudo-science kept on dualistically splitting the universe into absolute parts : for such parts then obviously can't formally get together or grow. But we now see that growth, in expression is merely ultimately an inevit- able truism of our primary agreement arbitrarily to split things into parts. In short, religiously, or from the point of view of the total universe, everything is conserved (that is the explicit statement of the general religious law of the con- servation of energy) ; taking the verbally opposite point of view of the universe as being arbitrarily split into parts, then the identical law (expressed pluralistically in formally oppo- site terms) is that always each part changes — either grows or decreases (which it does, depends wholly upon our point of view; i. e., there is no absolute evolution or progress up or down — for up and down are purely relative or Many; Index, Direction"). That law of growth" is hence obviously simply the law, mass varies with velocity. For obviously, here we have concretely given a mass or body (given a cell) a velocity, and we find the resulting structure explicitly growing — and doing it truistically : we have not even made any experimental whirls yet to see it happen. We shall also see (§146) that the same double aspect of the growth of the filament (i. e., increase" and decrease") is also funda- mentally what we call sex. All of this is just as explicitly biology and sociology as it is physics and chemistry. As a matter of fact, as soon as we get these elementary mechanics summed up into whirls, I am going to use those whirls di- rectly and in some detail to state astronomy (XII), as that subject exhibits perhaps better and more simply than others the familiar principles of biology, ethics, chemistry, etc. q. Another point of view or way of stating the last two paragraphs is quite useful in giving an understanding of things in general :- When the asymmetry of the filament is considered as truistically giving a spiral surface-motion, it obviously is a part of the same truism that the spiral motion exists in order to balance the filament with the field outside; and that therefore a complete understanding of the truism requires explicit expression of the motion of the cells in the field. Because that spiral exists as a means of balancing sideways asymmetries, it truistically follows that the reaction of the field cells is a rotation and revolution (as before, neither perfect or 0° or 90°) of them sideways — on one side or the other depending on whether the unbalance is due to a growing filament or a decreasing one. That is precisely the same sort of reaction we have already seen in pars, h and i. Therefore, the cells in the field move in a spiral, the projec- tions of which on the spirals of the filament cross at some angle between 0° and 90°, but never at 0° or 90°. When the angles between various field spirals and filament spirals get rather close to those One limiting angles, then, as before and depending on the size we are taking the cells to be, the geo- metrical paths of a spiraling cell in the field and a spir- ^C r ^ aling cell in the filament absolutely join, making a rounding turn of about 90° — not exactly so, nor a per- fectly sharp turn, — and the cell in that path leaves, or joins, the filament. I. e., if we look perpendicularly down on the path of a cell C, then it has a path represented by one of the two arrows in Fig. 98q, with a rounding turn of about 90°. The elbow in the arrow is in the difference surface — the locus of all such elbows is the difference surface. That filament surface is identical in kind with the surface of the possible spherical form of a whirl. That of course directly follows from this paragraph, by noting that the motion of the field difference surface, relative to the field Fig. 98q. §98q XI Two UNIVERSE 103 of an adjacent whirl, is mechanically identically the same as the filament surface. And it further follows that if the fila- ment is growing, the cell moves into it on one path (say A in the figure) ; and when the filament is decreasing, the cell moves on a relatively opposite or reversed path B. r. It is obvious from the last paragraph that again we have the distinction between static and dynamic. Every- thing in the universe, by our verbal agreements, is moving. Hence, if we are in the field say of a large whirl, moving along with it, we can arbitrarily consider it static, just as a fish in a muddy stream would not readily notice its steady motion (the fish is of finite size; hence in principle he could always detect the motion of the stream by reference to his nervous system, as no finite portion of the stream can have mutually steady velocities of its parts — but in practice, the fish would need some delicate tools to improve his nerves). Then if we undertake to refer to the filament (or to act with it in any way), the surface motion of it tends to approach to- wards taking a path at 90 to our static' motion. So we speak of the filament as dynamic,' or as exhibiting energy, and formally we must introduce the other two dimensions of space (the verbal inverse square law) in order to assert that motion in a plane at about 90 . That is now con- cretely obvious; for in our static" environment we tacitly assume equilibrium, or that we are in a center of refer- ence," and hence we must for formal consistency assert the two balancing L's in going into a different structure. Also, it is obvious (or possibly not readily so just yet), that we could recognize or perceive a filament only when it was grow- ing [or decreasing] a little, relative to the filaments in the biological structures of our sense organs. That criterion oc- curs at V\ (XIII). All this is concretely" precisely what we saw "theoretically" in §80. s. It also appears that because there is universal asym- metry, or universal growth-or-decrease (i. e., change), all filaments and fields as a truism are changing. I. e., even if we assert that we are in a static" environment, the actual pluralistic fact is that by measurements which are accurate to within the size of cells, there is measurable motion. So there is no positive static environment — or in a similar sense no accurate wholly dynamic one. A perfect static, or "dynamic," one is monistic. Or, in the terms we are now using, all That's and This's are explicitly That...'s and This...'s. Also, this truism is identical with what we saw in §8Sg:- that all naming coefficients are infinitely regress- ive. And so on- — in repeated proof of no exact science. t. I have been speaking above as if there were a number of paths of cells in and out of filaments (and implicitly, of fields of adjacent whirls). Obviously, at any given instant the chance that there is more than one path at exactly the same phase would be one to infinity. Consequently, and also in extension of the same truism, there is one con- tinuous geometrical line in which all the cells must move. That is simply a definite verbal proof of par. m. Beyond the fact that it shows absolute unification, I do not use it. u. (3) We may now look at the asymmetry of any whirl from the third point of view mentioned in par. n. This point of view is what might be called a structural or concrete summing of the second point of view (beginning in par. o) :- v. In a fairly steady whirl there is, as a truism, but slight change at the difference surface. But when there is considerable asymmetry ( disturbed conditions," consider- able difference in "potential," etc.), obviously as another truism, there is a tendency for a number of cells to pass into (or out of) the filament more or less together (never two ac- curately together, or simultaneously, of course). We shall say that a number of cells come out of a filament more or less together, observing concretely and generally what happens :- w. In Fig. 98wthe large rough circle represents a cross- section of a fairly balanced filament. If it is much out of balance dynamically, as we now shall consider it to become, we shall have a number of cells bulging out into the part \ D Fig. 98w. shown dotted. By Bernoulli's principle, the part of the bulge farthest out will have the greatest velocity. There- fore the farthest cell will leave the filament, and others around it will in turn leave until equilibrium is practically restored. They all come in contact with slower cells in the field, and hence curl over and around as shown by the arrows just in and outside the bulge, and thus form a new, small whirl, in somewhat the relative size and position shown at A (the variations from that size, etc., are great, depending on conditions; §§101-2). The new whirl moves off (see next paragraph) to the right, and its environment being asymmet- rical with respect to it (usually markedly so, for reasons that appear from time to time), it turns up or down (depending for the direction in which it turns upon relative values of ve- locities) and thus tends to take up a revolution about the filiar axis F of the large whirl (subject to taking up also the spiral motion of the main field, as we shall see). The new whirl is shown moving around down, through the position B. x. A whirl as a whole will partly have a motion of trans- lation (more precisely :- of variable revolution about some relatively distant point), and partly of rotation about its own main axis (more precisely :- of spiral or varying rotation). That is obviously a truism with Bernoulli's principle. Or, the spirals on the outside of the fields can be considered as effect- ually a screw thread, and the whirl will screw itself through its environment, which then acts as a more or less fixed nut. Or, its motion is due to precisely the same principles as were set forth in par. b, relative to two cells, A and B. In short, a whirl moves by the same principles as a cell — another cir- cular checking up of the consistency of our argument or me- chanics. Also, we have before seen that a cell will go in or out of a filament (and also, in or out of a field, across the field surface). Here, we definitely have a whirl acting as a cell acts. So we see again, as we saw in par. 1, that except for unessential L and T, a whirl is identical with a cell. y. This small whirl, to which the filament gave birth, is obviously a 'dynamic' body, in that it moves off while the filament as a whole is a "center" or is static. As we saw, orthodox physics does not explicitly recognize any bodies as giving birth to smaller ones (or vice versa) — although all men, e. g., are born. Such physics usually calls those things which are given off "vibrations" or "waves"; yet, as we shall see, electrons (and radioactivity) are tacitly by orthodox physics the birth of such small whirls. And so far as that is concerned, precisely the same idea is definitely contained even 103 UNIVERSE Two XI §99c in the old Maxwell physics :- in such physics God gave birth to the smaller things — "created" them, in Maxwell's own technical speech. So I am not proposing any novelty; I am here merely being a little more definite as to the immediate parents, while also agreeing that as a sum total God or the universe gave birth to all things — and vice versa. §99. a. The last section gives the general total of all mechanics, and is as such the concrete summary of all plur- alistic statement. It is much condensed. But I find that it is much more intelligible that way. Those who have the need or the interest to expand it in detail will have no par- ticular difficulty (except in remembering the details when they become numerous) in expanding it to volumes. I have myself on occasions expanded it to a volume or so. The worst difficulty about those mechanics is to condense them into sufficiently brief expression to be comprehended as a whole readily (so that the trees will not hide the forest), which at the same time permits useful detail to be visible. The last section is a reduction to about 6000 words of a pict- ure or description of the universe in all its infinite variety — undertaking to make the completely unified beauty of the universe intelligibly explicit, and at the same time to make the infinite details and extent of that beauty also explicit enough to be intelligible or perceptible. It is thus an effort to accomplish in explicit completeness what all literature undertakes to accomplish in more or less completeness. I. e, , any writing or verbal communication is formally an explicit (or implied — as in nonsense" books like "Alice in Wonder- land") statement of the solution of the One and Many — an analysis into parts, which are then synthesized into a com- plete meaning (and most writers do not take the whole One, but imply it by using a standard One). E. g. , the usual modern love story names force love, and proceeds to make one couple of people, or several couples, One, or vice versa — with positive mention of such This s and That's as the writer thinks will best make explicitly comprehensible to the reader the One and the Many. The Bible undertakes to do that with respect to the universe. But the author of the love story and the compilers of the Bible failed usually to be very vividly conscious of what they were about, I was quite conscious of what I was trying to do. To those people for whom the last section is comfortably and applicably intel- ligible, it is literature ; to those for whom it its not thus successful, it is not literature (success of course includes per- ceptible stirring of the emotions — moving' the reader to do something right, indicated by my phrase applicably intellig- ible ; cf. XVII). If the last section is successful to a majority of readers, then by conventional measures it is lit- erature" (§l71k). Then, as it is explicitly completely exten- sive, greater" literature than that section would in general possess (l) more meaningfulness and forcefulness (i. e., more comfortable and more applicable or emotion-stirring in- telligibility) in an equal number of words (with the subject remaining equally complete) ; or (2) equal meaning in fewer words; or (g) both. But, as the estimate of the relative measures of literature obviously thus depends upon the per- ceptions of the readers, such estimates will change as the readers change, and a direct comparison of literature requires a preliminary comparison of the readers who estimate it, That digression as to the measures of literature will, by introducing an odd point of view, probably permit the reader to see just what the last section really means. The reader might try for himself to condense the Bible, Shakes- peare, and all the novels and science he has read, to 6000 words intelligible to others, and see how he comes out. As a matter of fact, I did not expect to be successful at it, so I have added the rest of the book to it. A volume on the theory of literary construction (i. e., on ' making" lit- erature, or synthesis) and criticism (i. e., analysis) is defin- itely implied by this paragraph. b. Judged by ordinary standards, the chief omission in the last section is that I have failed to indicate in which di- rection any given motion took place. E. g., I said that the whirl or cell would move, but usually I did not show or assert in which direction it would move — whether up or down, left or right, etc. Obviously, the actual direction of such motion will always depend upon the relative values of the asymme- tries — which is a truism. Clearly, the motion can always be in either direction; i. e., this machine we have arbitrarily invented is reversible, (it is not perfectly reversible, as tru- istically the asymmetries or measures will always be different if it runs in the opposite direction; but it is always logically or qualitatively perfectly reversible, and hence the universe as a whole is perfectly reversible in measure as well as form — which is the same as saying that L and T do not apply to the One.) As an explicit example of my omission of direc- tions, when I said (§98x) a whirl would move, or screw itself along, between adjacent whirls, I omitted all remarks about those others whirls even having directions of motion. Ob- viously, the others too would have motions, so that the whirl mentioned, in its somewhat corkscrew motion in the general direction of its main axis (cf. path of solar system, Fig. 107e) has a direction that depends on those other motions. I pro- pose usually to omit naming such environmental directions; for if I did name them, I obviously somewhat obligate myself to the ad infinitum task of naming the relative directions of all motions in the universe. I could not, while trying to set forth the principles, maintain such a grasp of details: no reader would stand being bored by such detail, even if a publisher would print it [and since I wrote that about 18 publishers have in effect assured me that readers are not in- terested in even the essentials of the universe or all things; but I think they overestimate the prevalence of the provin- cial or New York weakness known variously as pep, punch, brevity and speed in the actual sense of shallowness, that is shown in get-rich-quick and living-your-own-life-and-to- hell-with-others delusions]. And worst of all, there is no general agreement as to how directions shall be named from any given place, so that I would also be involved in a com- plete revision and unification of all scientific standards (as all of them finally depend upon L or direction' — T being im- plied), which is rather another story. Or to put it in terms of the last chapter (also, cf. §§58g, lOli, 134d, 135c, 149, etc.), if I name directions, thus somewhat obligating myself to state environmental quantitative relationships in infinite regress, I must also explicitly locate, relative to ourselves or our usual tacit standards, the arbitrary zero" potential. And / can not locate such a beginning point of measures except for myself alone ; it requires general agreement of people (§171 k); you might agree with my zero potential, but by the theory of chance you probably wouldn't, and then I would be involved in an argument or controversy with you as to (say) how many pounds is a, heavy" load — which is not the purpose of this book. I propose to give here the principles or theory of all measures or descriptions ; my guesses at those actual measures are my guesses, and you verify the book by using your guesses or opinions. So my avoidance of entering into any extended statement of direc- tion is simply my generalized avoidance of imposing my opinions or standards on anyone. You really want to form your own standards and need to at first — though in this gen- eralized form the need is yet obscure. I shall give some ex- amples in the next paragraph. c. The conventional technical example is an electrical §99c XI Two current. It is now generally admitted that there is » flow [of what is actually matter] not as the "positive" current, but in the direction which is called "negative. So the guess made over a century ago as to the direction of elec- tricity is verbally contradictory to ordinary standards of zero 'molar potential.' We may take a wider case. When a filament gives birth to a secondary or smaller whirl, that filament at the time decreases — or we would conventionally usually say it degenerates or runs down or loses. But verb- ally contrary to that, when people give birth to a second generation, we commonly say the race is evoluting, or pro- gressing — implying a growth or increase. The trick in the naming of such directions is of course as to where we take the zero" and begin to count from. In the absolute, there is no such "start" or zero mark on a scale (§80). In the birth of people, our start" is the race, and we ignore the individuals who, as such, decrease and finally die. In the birth of a secondary whirl I took the filament before the birth as standard ; of course, the filament itself previous to that pregnant condition had to grow before it could decrease, d. So it is obvious that I may not properly state direc- tions in this book in any extensive connections. If I say the race is progressing, I have to state that it is my opinion or quantitative observation or guess that it is moving in that direction; and I have to go further, in order to show that the opinion is based on consistent statement of observation, and show that the climate, by being fairly steady for prob- ably two or three hundred centuries, accounts for it, and further state that quite possible changes in climate may at times in the past have caused the opposite for a while (index, Climate"). It therefore follows that anybody, by taking a different point of view of the directions which I do happen to state in much brevity, may show that they should be re- versed, in his point of view. I agree that he is right. But even more confusing than that, by the theory of chances it is going to be found that some of the few directions I do state (when it seems more economical of space, I name a direction, or guess) are going to be found to be mutually inconsistent whenever they are followed out considerably further, with careful measures taken all along. Those inconsistencies are quantitative errors, and are due to the fact that I do not know the measures, they often not having been made by any- body ; those errors are also due to the fact that I can not carry very many facts in my memory at once, and hence get confused sometimes with measures that are available. How- ever, those inconsistent guesses which I occasionally make at relative measures do not vitiate the principles or logic, as is explicitly proved by the whole of Part One. They merely prove that I am incompetent to give the reader any quite re- liable practical (i. e., pluralistic or Many) advice or informa- tion. In short, there is no exact science, and I personally am unable to make science as exact as available information would permit. §100. a. We may sum up what has been 'made obvious about whirls in general. The summary is a concrete or tangible" restatement of the whole argument of the book, b. (l) Any part of the universe may be considered mechanically as being a whirl. If we take a part as a whirl, then we have thereby explicitly implied a certain filament difference surface, which has (truistically) a fairly definite velocity; and that in turn, by the truism of continuity, es- tablishes or implies every other whirl in the universe, because the same relationships that hold in the first whirl must be consistently identical in all the others. The relationships in the first or standard whirl thus established are definite (i. e., there is a difference surface velocity that is definite) within the degree of accuracy that is (A) possible to our UNIVERSE 10 * perceptions (if we have actually-measured velocities), or (B) which we care to assume formally if we do not wish act- ually to measure. That degree of definiteness establishes the size of the cell — which is a smaller whirl we consider a vague, internally unmeasured unit. Only by regarding that cell as a geometrical point could we obtain accuracy ; and in that case we would require an impractical infinity of words. Therefore, we take or verbally agree on the practical quan- titatively vague cell (or small whirl) ; and that, from two points of view, allows — and verbally necessitates as a truism — all other whirls to vary widely (i. e., to exhibit all phe- nomena) even though they are, as has been shown, formally fixed by the first:- (l) Certain limits of variation are possible to the cell to begin with; when, e. g., those variations are multiplied by millions (by the inverse square law) in travel- ing out to a distant whirl, there obviously can consistently be considerable variability in the whirl (that is the funda- mental reason for harmonic periodicity, or the periodic table of elements — stated in a new way). (2) We have no practi- cal means of actually verbally keeping the limits of the cell measurably steady (getting rid of the infinite regress); so in practice those limits themselves vary, which adds to the other variations ; but formally in this book, and also implicitly in practical life, we consider that variation to be zero; and be- cause it is not, assert that we are always inaccurate, or that there is no exact science. ■ Those two verbal reas- ons" or truisms or explanations of why there are phenomena or changes, are obviously identical. c. We hence see further, from the last paragraph, that in practice our description of the universe begins anthropo- centrically. Each of us takes himself (his body and-or mind) as being a whirl — a This e . That primarily fixes all molar bodies. Then by observing more closely (requiring some millions of years of nervous evolution"), we name parts of ourselves (with temporary undue self-consciousness:- "they knew that they were naked" ; Gen. 3, 7) and hence of molar bodies, until we now have carried the splitting down to elec- trons as being definite whirls or molar bodies of a lower" order. Then, we can observe even more minutely ; but at that next step in splitting we consider no longer that there are definitely lower order whirls (we validly could : cf. cor- puscular light in XIII), but consider the whirl "continuous" cells, as has been seen in this, and the last chapter. Obvi- ously in that process we use the difference surface of our skin as a criterion — we adopt the effective velocities of its structures as the particular one(s) by which to gauge and describe the universe (e. g., the Adam and Eve myth intui- tively mentioned correctly that skin standard, by "naked" ; except for that, and other substantial implied truths in the myth — for instance, the fact that the race for ages have been tackling the job of formulating this book, particularly Part One, — the story would not have survived long). So when we get things split down, to vibrations, we find — because we originally put it in — a continuous and obvious velocity rela- tionship, V\ (IX). And then the total universe becomes established for us as being whirls (or any other formal struct- ure or 'splitting') on the criterion of the velocity of our light Vi. Therefore, jf orthodoxly we hold that V\ is an absolute constant, obviously we make the universe consist of parts ab- solutely different to (for) each one of us, and each part differs (to each one of us) at each instant from itself at other in- stants, and we then have an absolutely anthropocentric universe (which is in principle the relativity theory; §66). That anthropocentric universe obviously has the difficulty of requiring a separate language for each person, etc. (§66). see again that such a universe is logically valid or is ' ' just as Ptolemaic astronomy, which But we consistent and true 105 UNIVERSE Two XI §100d is geocentric, can be expressed consistently. But that as- tronomy is grossly impractical ; it would verbally give some of the stars terrific velocities, and thus (e. g., in order to have verbal consistency with such velocities) require complete re- vision of the expression of the properties and structures of atoms — in short would force us to revise our ordinary way of naming things. Also, unless that anthropocentricism, geo- centricism, etc., or a«#-centricism, go to the ultimate limit (formally at least) of splitting things down to geometrical points it will become illogical (because a man, etc., is him- self variable — and (2) in the last paragraph applies). No sort of orthodox centricism does that ultimate splitting in practice; so all are both illogical and inaccurate, except Ein- stein's in pure formality (§66). I.e., such a theory which as- serts any physical constant," uses something finite (a part of the Many) as an absolute center (or as an absolute stand- ard of measure — which is logically the same thing), and hence is illogical and inaccurate. (As we saw, theories like Thomson's electrons, Reynolds's, Richards's, Reeve's, and Einstein's agree with that either by explicitly implying that there are no such constants, or by formalty going to the nec- essary infinite splitting; Einstein's book, §66, seems to be inclined to overdo the thing by doing both, which, if he so intends, would be wrong, and a new variety of meaningless- ness.) Therefore, this book explicitly uses that prac- tical anthropocentric start, formally asserts that man varies, or is approximate and not absolute, and thus logically uses an absolute no-center; i. e., the universe or the One is the only center or constant. 1 ° Man is so accustomed iooc n probably is better to be more explicit on that point :- Throughout this book I take the everyday general or summed-up language agreement that the One is "real" (§49g); and that is eqivalent to rao-center, in the sense that the One is everywhere, and hence my center or standard is everywhere at once — which usually is expressed as no center. Now, that agreement which I use makes the logic or form of the book easier to follow. It however is not essential. We can, as just shown again, use an infinite pluralism as "real," and in that case the correct thing to do would be to have each thing that was mentioned be temporarily the absolute center and standard of the universe — to have finally an infinity of centers — or, so to speak, to use anthropocentricism absolutely but with a new or changed man every time. Further, it was seen (§49) that valid logic is a dynamic logic that shifts the "reality" of each part of the Trinity to apply to the part being used momentarily. So it follows that after a time, when men have learned to use language with much skill (implying great brain development), a valid descrip- tion of some length will shift its "reality" from (1) no-centricism, to (2) infinite-centricism or a&soZwte-anthropocentricism, to (3) an at present unnamed and practically unrecognized ignoring of centers by making relationships "real," or by speaking temporarily in terms of "abstractions" as if they were the reality. Such a valid description will shift its 'centers,' etc., as the viewpoint shifts — using (say) one center for a chapter, and then changing:- Thus science would as the most direct way of talking use infinite-centricism; religion, the third way mentioned above; philosophy, and religion as we now ordi- narily use it consistently would use the no-centricism or first way, which as stated is the everyday "reality" nowadays, and hence the most familiar, and so the one this book uses (cf. §39). In short, this book uses what in time will be found not to be the best way: in time the dynamic logic with its varying "reality" of the three Trinity forms will be 'expanded' explicitly to what we might call 'dynamic- thinking' with a corresponding varying reality of the three forms or ways of conceiving truth (cf. §39; the idea is as old as our history but has no definite explicit names:- by proper dynamic-thinking the subject-matter of religion, science, and philosophy is identical, but for convenience and full intelligibility of expression the three ways will be used as just stated). My way in this book of emphasizing the reality of monotheism or Many -continuity or Many-One is the conventional, the Occidental way. It seems historically to be a re- action from the gross materialism into which anthropocentricism al- ways — even now — tends to fall, and also a reaction from the religious abstractions of the Orient, that always tended to make people good- for-nothing in practical affairs. So it seems reasonable that we first get skill in our hardest way of the three, before trying the still harder and ultimate way of using all three as described (in which event we to using himself as an exact or absolute center or standard (without however noticing that the use of a scientific infinite pluralism makes himself formally or logically be conceived as coincident with the absolute unit of the Many that he tempo- rarily mentions; §66) that he often fails to see that he does, and denies it. Yet it is glaring, in every bit of classic logic and in all the orthodox dualisms, that man creates God in man's image — that man substantially takes himself as a finite entity, and by 'multiplying" himself in size by about a thousand (which is about as "high" as a barbarian can think) gets what is actually a formally finite God; e. g., Jehovah, and the God of Aquinas, and the late Kaiser's Gott. All of us Occidentals tend however (as mentioned in the footnote) to think in no-centricism, or with the universe or the One God as the final standard. But we are so much in the bad habit of using classical or theological logic, and of failing to shift to an actually absolute infinite pluralism which would be correct enough (multiplying man by an absolute infinity to get God is correct; the materialists are our present-day barbarians who can't think so high," but stop at an exag- geratedly emphasized finite anthropocentricism), that we are a bit puzzled by the verbal sound of this no-centricism, or definite That,..Y.This..., when I state it explicitly. That puzzlement is simply the difficulty that our nervous systems always have in making a previously vague and indefinite and dreamy idea into something more precise and useful. If in addition to making that no-centric step definitely in this book, I were to go on and make the last step mentioned in the footnote, that puzzlement would be possibly too much ; as it is, there will be a number of persons with brains so weak and soft and flabby that their nervous systems can t make the no-center step, which most of us have already made in practice ; I fancy some of those will be so senile that they will exhibit their weakness by public protests. But I think that the majority of Americans are strong enough to make also the last step of the footnote within a century. When that is made, the aristocratic exploiters who befuddle stupid men's minds will find their field unprofitably narrow. d. (2) Next, we have seen in general that any whirl consists of ether in motion, the velocities of which ether reach a maximum in the difference surface, and decrease (so far as just one whirl is concerned) as the distance from that surface increases. (That is Bernoulli's principle in another form.) Obviously if we had in the universe a stream of ether which had a greater velocity than the streams on either side of it, then as a truism that stream must finally close on itself will be protected from the grave dangers of the easier ways — in all "soft-snaps" it is correspondingly easy to get into trouble). ■ As an example of what is stated in this footnote (and the example is the concrete thing which caused me to add the footnote), the reader is referred to Jordan's Introduction. In it, when he talks of science he uses infinite centricism — inclines towards using infinite pluralism without however insisting that infinite pluralism is the "truth" or the only way. Then he substantially shifts to a use of no-centricism when he sums up (particularly in summing biology). Jordan thus is using valid logic in its ultimate 'expanded' form — a trick of skill in using language that probably not a half dozen men have the emotional strength to achieve, or the intelligence to use consistently without confusion. But to repeat, that ultimate dynamic form of speech is too hard to understand for an elementary book like this (as proof of that, see the remarks about British biologists in §147, who, perhaps without even knowing what they were up to, have failed to follow Jordan all the way in that full dynamic form of ex- pression — although as shown, in bare logic they may be considered correct) . Also, that final way Jordan is using is so hard to stick to that I doubt whether I could have been successful at it if I had tried it in this whole book. As a matter of fact, this very statement of the ultimate dynamic expression is hard to make clear; what it sums to is that science, religion, and philosophy are identical in subject matter, and that the three sorts of 'centers' determining their forms should be shifted as the point of view changes. §100d XI Two in three dimensions : so we have as a result of that closing a whirl. Then, if the velocity of the ether decreases as we go from the difference surface towards the filiar axis, it fol- lows that there must formally be ether on that axis at zero velocity. But clearly, that can be possible only if there is a part of the ether which is a geometrical point; hence, we see again that there must be an infinite regress of parts in the cell, and that no cell, in our Many language, itself has such zero velocity — which truistically would take infinite en- ergy to start it going again. Also, as we leave the difference surface and travel out into the field the velocity decreases so long as we decrease our perpendicular distance from the fila- ment surface, down to the limit of velocity at which the ad- jacent whirls are in fair equilibrium (or until we come to an analogous balance near the main axis of the whirl). At that zone, obviousb' another field, of another filament, would com- mence (or at the main axis, the opposite part of the field of the same filament, with increasing velocity), and there would be a field difference surface. e. Itistruistic that such a place of fairly balanced equi- librium could occur inside either the original filament or field ; consequently, there may be secondary whirls inside of either filament or field — and tertiary whirls inside the fields or filaments of the secondaries; and fourth order whirls, etc., in infinite regress, down through the finite whirls we have arbitrarily taken as cells, to ultimately point-cells. And in the same way there could be no upper limit of orders of whirls. If we arbitrarily took a given whirl as being the ultimate upper limit, it would be a One; its field would then decrease in velocity towards its field surface, and reach abso- lute zero at that zone or surface, which would then be the outer boundary of the universe. But evidently, as that outer boundary is zero, it differs in no respect from the pseudo out- side" of the universe. Outside is hence absolute zero. f. It can further be seen, as a truism, that there can be no actual upper limit of velocity, regardless of what velocity we practically use as a prime or standard velocity for split- ting the universe (i. e., V\ is by no means an absolute upper limit of velocity, but it is the highest velocity that can occur except inside our atoms, as will appear). For obviously, at any place in any order whirl there may be a field surface, and on account of previous asymmetries the field velocities on one side of it may increase very rapidly (have a high grad- ient) to any velocity; we shall see that truistically there must be such high gradients. It is obvious that if that ve- locity is higher than V\, then the ether structure suitable to be used to express such velocity must be smaller than ordi- nary atoms ; for clearly, the effective structures or atoms that we select to give our ordinary light are, considered as whirls, determined by filament surfaces at V\ (XIII). Evidently, if in a very minute cell, considered as a whirl, the filament sur- face velocity became infinite, then the formally still smaller cells that composed that filament surface would become points or zero, that difference surface would become an exact geometrical surface, the point cells would then turn in at ex- actly 90 , and infinite energy would thus be displayed at each point, as a result of each such birth (and those births would be infinite in number — or zero, just as you prefer, be- cause clearly the whole whirl truistically reduces to a point) ; or the energy would be zero, as each point cell was zero. Obviously that gives the concrete" details of the infinite regress (IV-VI). That is another explicit way to reduce the universe verbally to an absolute pluralism: obviously such pluralism is identical except in verbal form to monism. g. It therefore truistically follows from the last para- graph that there exist coincident with this universe of ours — this V\ universe — an indefinite number of other universes. UNIVERSE 106 That is an old idea; those other universes are conventionally vaguely known as astral planes, heaven, hell, spirit world, etc. But there is one very important practical mistake in the conventional idea of them :- they are obviously truistic- ally not essentially different or separate from this universe we ordinarily name and explicitly talk about in our positive terms, but are merely verbally quantitatively different uni- verses which have standard basic structures with surface ve- locities different from V\ in any degree we arbitrarily care to take. I. e., we can name and describe just as many of those "new" universes as we like; they all truly exist: but every one of them is inseparably bound up in our ordinary one, coincident with it, and if we (say) stub our toe, all those ad- ditional universes are definitely included in the sensation and general reaction labeled "toe stubbed." Hence, it is or- dinarily a waste of time to be explicit about those others. Also, as a different form of the same idea, there is obviously an infinite regress of parts or structures of different order:- secondary whirls, tertiary whirls, etc. E. g., our solar system can be an ether cell in some larger man, as we saw. But in the same way as just above, that makes no practical difference to us. For if that larger man has (say) a thought, its effect on us actually exists (perhaps it will quickly to him smash up our solar sytem — and do it in a few billions of our years to us), but that effect is included in our ordinary That. . . X This. . . , and we usually need not go formu- lating different order languages to talk about that effect. This ad infinitum duplication of universes themselves obviously corresponds to the ad infinitum duplication of lang- uages shown in VIII. And we get the same conclusion :- that the average man with his age-long commonsense has adequately (even if not quite consciously to himself) collected the whole affair into his everyday point of view. h. (s) Next, it has been seen that in general there are pluralistically no perfect whirls. E. g. , in par. f, when the difference surface became a geometrical surface, we lapsed into mysticism. So it is clear that there may be any (finite) degree of indefiniteness about a whirl. Any difference of velocity implies a whirl of some nature. But such a whirl may not have time to form very far. Only in a space where there is comparatively steady equilibrium can whirls which are relatively large for that size space form. (That can be seen readily by a brief consideration of those spaces and times ; or the various experiments shown hereafter make it directly obvious.) Several important points of view of that inexactness or lack of perfection of whirls are obvious :- i. Perhaps the most important point of view is that it means that there are no "perfect" phenomena. I. e., all phenomena are simply the changes in whirls ; and hence no phenomenon may consistently be pluralistically sharply dis- tinguished from any other (except in infinite pluralism). That is identical with §83fg, and I need not repeat further. j. But precisely the same thing concretely accounts for what is conventionally called the purpose in the world. Of course it is "purpose," in the real meaning of the word; I am simply going to express purpose pluralistically here; us- ually, it is oratorically used in a monistic, mystic way that is at least not clear. When I express it consistently plural- istically also, then I have absolutely explained it. Some of the conventional figurative ways in which the idea of purpose is validly pluralistically expressed are :- water seeks its own level ; in an otherwise fairly steady environment tempera- tures tend to equalize; birds of a feather flock together. If at any place there are whirls of the same order in which the velocities of the difference surfaces are consider- ably different from each other, then as a truism there are considerable asymmetries. Those asymmetries would, as a 107 UNIVERSE Two XI §100m further truism, keep on forming whirls of other orders un- til the various velocities had become fairly equalized. So over any space in the universe which is large compared with the size of bodies of the most usual order in it, there is fairly steady equilibrium for those bodies. That is equivalent to the fact observed long ago, that "nature makes no leaps," has no catastrophes, or displays fair uniformity. But from our way of saying and observing that here, at once we see that bodies of the same general order tend to collect to- gether, thus forming with more or less definiteness a struct- ure of a higher order; or, the reverse way of stating the fact is the easy and more familiar and intelligible negative way :- whirls of a given order that are in the majority will drive away or change into their own order ("destroy") whirls which are out of balance with themselves (just as men fight when they get badly out of balance or in 'disagreement"). Thus, certain bodies collect together as the solar system. In one of those bodies, the earth, there collect secondary bodies, men, who are of such a great difference in order or of poten- tial from the earth that they scarcely interfere with it. In men, certain physiologic cells of the same kind have col- lected — into differentiated organs. In the earth, to a certain extent atoms and molecules of the same kind have collected together. Briefly, all of what we commonly call progress, or what looks to be purpose" towards some sys- tematic or unified end, actually is so; but it is also true that it is, in more precise and intelligible words, an exhibition of this truistic or mechanical tendency to smooth out asym- metries among neighboring bodies, up to a certain quantita- tive point. Now, if all bodies were sufficiently close to each other quantitatively in what I have here been calling order' or potential, the majority obviously would steadily tend to wipe out the others, so that the orthodox increase of entropy (§80) would be true. But when the quantitative disparity in order' or potential reaches a certain ratio or proportion (the theory of which I call harmonic periodicity ; see Index), then whirls of one order do not much interfere with or destroy those of the different order, for the reason that, so to speak, they can't "get hold of each other" (that refers to a comparatively brief time); e. g., it would be practically impossible to handle a pin directly or at once with a 100-ton crane; and as mentioned above, man and the solar system do not in brief times directly interfere. (Incident- ally, in agreement with that practical point, in other places in the book I use the phrase order of structure, etc., to mean such considerable quantitative difference.) Con- sequently, there is eternally a two-fold aspect, or mechanical reaction, in the universe, showing it to be truistically an ab- solutely automatic (i. e., perfect) machine:- (l) bodies of the same order or "sort" tend to collect, to fit together, to come together (and in doing so to smooth out, destroy, each other's inevitable slight variations — just as men are "well bred") in a "purposive," suitable way, "appropriate to some end" (as we saw in §86d); (2) on the contrary, the precisely similar efforts of bodies of a slightly different order from those just mentioned, to do similar things for themselves tend to destroy both themselves and also the first collection when the two sets are more or less neighbors, and the result is that the two sets of bodies are to some degree driven apart spacially, the remainder of the reaction being that the part of the less energetic set which doesn't get away is destroyed — i. e., changed — into whirls of considerably different order, so that the resulting two sets can stay together without much interference for a long time (i. e., they are separated tem- porally instead of spacially— &n important mathematical point quite overlooked by Clausius, but which is implied by Ein- stein). Thus, a difference of potential is built up at the same time that potential is smoothed out — and the process is eternally reversible. The process is very easily seen in the history of men (it applies to all natural structures) in the so- called rise and fall of nations ; a very superficial knowledge of these principles shows that there is no need of a nation s "falling," as a very mediumly intelligent application of the principles will reverse the direction at any stage — given a fairly steady climate. Truistically, the sum total of that oscillating effect is zero — or infinity, if we speak opti- mistically." But because human beings started their lang- uage anthropocentrically, anything of a different order that tends to break up humans (to change their supreme This, which is themselves) they call evil, thus asserting that there is no purpose; and then they worry over the problem of Good (or Purpose) and Evil which is thus started. This paragraph is the general concrete or physical solution (l) of that problem of purpose, (2) of all geological segrega- tion, (3) of the stability of the solar system or any other natural structure, and at the same time (4) expresses the reasons for all chemical reactions" (it being the underlying principles of what is technically known as Gibbs's phase law), and (5) gives the reasons for biologic trophisms" (XVI). The paragraph also (6) directly implies the general theory or reasons for the periodic table — is the concrete or That...X, This... expression of harmonic periodicity. Also, it (7) di- rectly implies the total theory and methods (see §§140-l) of how to get available energy out of any collection of whirls (or put it in; it always is put in first somehow; but truistic- ally if we could use the velocity of an atom down to the zero velocity on the filiar axis, there would be taken out of that atom infinite energy; however, it also truistically would take infin- ite time to get that much out). Necessary details of such problems are shown later by direct experiment. Volumes of such details are omitted. A direct extension of this para- graph is given by §10 If. k. The last point of view which we have to consider of the fact that whirls are of all degrees of perfection (see par. h) is that just as the multitude of resulting quantitative de- tails is difficult to handle mathematically, so it is difficult to see experimentally all the numerous details and describe them verbally.' But it can be done experimentally and verbally better (at first), as I propose to do it in this Part, than it can be done mathematically (in the way indicated in IX with the measuring member). E. g., the phenomenon of heat is a considerably confused secondary whirl formation, which occurs whenever any appreciable asymmetry of whirls of the same order occurs. 1. It is therefore a direct truism that it is not possible to describe any experimental whirls accurately. We can not even observe them definitely in much detail, compared with the infinite detail they exhibit. We shall become aware of that clearly when in the next section we begin with the di- rect experimental proof of the mechanics of whirls. But it is better to be thus admittedly quantitatively inaccurate con- cerning things as they actually are, than it is to talk in the old dualism about frictionless bodies, perfect gases, or con- stant anything, when no such things exist. Many great art- ists in various lines have been praiseworthily notable for giving a sense of mystery by their productions. That sort of mystery is good, as it is the truth, being simply their intelligible expression of the fact that quantitative details go on infinitely so that all are not perceptibly expressed. There is no proper reason why science, particularly mechanics and physics, should not be more clearly truthful, and human," and beautiful, and useful than the work of those artists. m. (4) The last general thing which we saw about whirls is that a whirl completely fills the requirements of all §100m XI Two UNIVERSE 108 machines (§86f), and is a concrete model of Newton's laws. (A) For first, each whirl consists of at least two react- ing parts:- the filament, or This...; and the field, or That. . . . We may note that the reaction between a given cell in the field and a given cell in the filament is identical in principle with a lever, of which intervening cells form the arms (§98b), and the difference surface the fulcrum (specific- ally, it is a bell-crank lever; see Fig. 98q). That fulcrum is truistically not a point — which agrees with fact about an or- dinary actual lever. Also, it may be observed that the ex- periment made with the cog wheels (§98b) to show the nature of cohesion, very directly shows that cells are in prin- ciple levers. And it can be noted from §98x that whirls are mechanically equivalent to inclined planes. And if we con- sider the single line of motion of a cell (§98m), it is obvious that a whirl may be considered a pulley (the difference sur- face is the pulley wheel). All those fundamental conven- tional machines are obviously merely forms of levers, as has been orthodoxly recognized for years. And it is clear that a whirl includes them all. (B) Further, each whirl in- cludes (even if only vaguely and implicitly inside the cells) the dots of the formally consistent That. . . X This. . . . There may be as many explicit or concrete dots as we like, in the form of secondary, tertiary, etc., whirls, on down to the absolute limiting One zero point-cell. As a truism of that characteristic of cells as a model, we saw that our machine exhibits all the phenomena of growth and purpose, just as a person" does — that the so-called machine, when it is really a valid or workable machine, has those personal or human characteristics. Now, the truth of the matter is that any actual or experimental lever, properly and consistently con- sidered (cf. §47), will promptly extend itself to include the total universe as a vast inseparable system of levers, any one of which formally gives birth' in either direction to infra- levers and super-levers. But we are not accustomed to thinking of levers that way; emotionally we are myth-ridden by the classic logic perfect lever with rigid line-arms and ab- solutely constant point fulcrum. Such myths are excellent perhaps as preliminary verbal steps for untrained observers; but certainly nobody should believe" such abstractions. n. It is so obvious that a whirl exhibits the solution of the One and Many, as do Newton's laws, that no summary statement seems to be needed of how it does. So we are ready to look at some whirls experimentally, and thus syn- thesize all the above rather lengthy talk into a single com- prehended working idea of a Many part. §101. a. The remainder of this Part Two will be chiefly devoted to observing actual whirls, as a means of understand- ing and applying the foregoing concrete way of naming That...'s and This... s. Probably the simplest and easiest whirls to make and observe are those formed by dropping soapy water off the side of one's hand into a fairly large basin of water. If the reader will do that occasionally when he washes his hands, then probably without much expenditure of time and effort he can see directly for himself the truth of all the foregoing truistic mechanics. b. Whirls which travel slowly are the best sort for see- ing the important reactions — and even then whirls often split into secondary whirls so rapidly that to see them it is necessary to observe attentively. So far as I have observed, any ordinary variety of castile soap will make a solution with water of the proper viscousness or cohesiveness to produce fairly slow whirls. I have tried numbers of other ordinary toilet and kitchen soaps, and all produced whirls that trav- eled faster — usually reacting too fast to see much detail. If the basin holds considerable water there is of course more room for the whirls to react in. And it is well to have the water fairly steady — at first, anyway. Afterwards an indefi- nite variety of disturbances may be given the water, there being no end to the variety of whirls and part-formed whirls which may thus be visibly made. Also, if the experiment- er's hands are rather dirty before making these whirls the whirls will be more easily visible. Similar whirls can by made with numerous visible liquid solutions, using appa- ratus of varying degrees of elaborateness, starting with fount- ain pen fillers and going beyond million dollar laboratories. I mentioned the most easily applied way, which I chiefly used for about two years in order to formulate the general mechanics I have just given. c. If the hand be held so that a thick soapy drop (with no appreciable bubbles included) will fall from the flat or outside edge of the hand held down (so that the drop itself will not be rotating inside itself very much), for a distance of three to six inches to the surface of the water, then the drop enters the water with a velocity sufficiently greater than the then surrounding water to form a well-defined whirl which slowly moves downward, with its main axis about vertical, so that from above we see the filament as a ring. A consider- able part of the drop of soapy water is at first in a confused looking field about the filament; but by the mechanics we have seen, that field spreads or extends out until it becomes rather imperceptible and we see chiefly the filament, with a perceptibly indefinite surface. d. If the whirl forms in a condition of unusually steady equilibrium it will look from the side, in cross-section, like the top figure in Fig. 98n ; the rotation of the filament and field would be the same as shown by the arrows in that fig- ure, and it would therefore travel downward in practically still water. Usually, however, an experimental whirl is soon noticeably asymmetrical. A bulge will begin to grow at some place on the outer side of the filament (cf. Fig. 98w; obviously the field inside the ring is held steady by the ring, and it in turn steadies that ring or filament so that ordinarily a bulge does not grow on the inner side of the ring — towards the hole in the doughnut). That bulge will then break out or away as a secondary whirl (Fig. 98w) — with its filament appearing edge on to the experimenter from above. It will comparatively rapidly travel out a little way perpendicularly to the main axis and to the original surface of the filament where it formed, and slowly tilt over and as a result start downward. Sometimes, if the primary whirl has bounced up from the bottom of the basin before a secondary is born, the secondary will turn upwards. Also, if the whole primary whirl has been almost symmetrical, and has traveled down slowly, it develops more than one bulge on its filament; then it may break up apparently wholly into two or more secondaries at roughly the same time. I have seen a whirl break into as high as probably fifteen to twenty secondaries; such very small secondaries react so fast that it is hard to observe them. Also, it is occasionally possible to observe a secondary give off a secondary of its own (a tertiary), and two or three times I think I have seen a fourth generation. e. Another important phenomenon to be observed is that when a secondary breaks out of a filament it retains (often^ng enough to be easily seen) a distinctly visible film of soapy water connection with the filament, which film is like the sides of a barrel, except that it bulges in all around instead of out (is roughly a hyperbolic 'surface' or zone of revolution). The secondary filament or ring 'sits' on one nm of that tubular surface, and the other rim merges into the primary filament. Sometimes that connection will per- ceptibly stretch out to comparatively great distances, becom- ing attenuated to the apparent thickness of a thread. Now that connection between the primary and secondary whirls 109 UNIVERSE Two XI §101h consists of actual water cells,' strung out in identically the same sort of spiral or helical nearly right-angle turn described and pictured in §98q. Here we have a number of such paths in a summed up con- dition, and made of visible globules or cells of soapy water, so that we can see the sum. The phenomenon (by §981) would obviously be no different if the whirls were ether instead of water. It is indicated in Fig. 101 e that those spiral paths, making about a 90° turn, would sum into such a surface. If a whirl be made of smoke in air, it usually on breaking up leaves considerable of such visible connecting surfaces or summed spiral paths. f. Those paths would (as shown in §98t) finally at any exact instant be unified into just one path with infinite veloci- ty. But because we are using actually finite bodies, in finite time, we get a visible sum of paths. Hence, we can directly from those experimental whirls now observe what in the dis- cussion of "pu r P°se" (glOOj) we called 'birds of a feather flocking together, and give it a more intelligible name. We note that with a certain lack of equilibrium a bulge grows or accumulates on the filament, instead of there being a more or less instantaneous correction of it by the giving off of say one water cell. That is because water as water (i. e.,ua Many — and not mystically or in the pure" abstraction or meta- physics sometimes mistaken for science) is truistically not perfectly homogeneous (has a lot of unequal, smaller, asym- metrical structures .in infinite regress, even apart from the soap, etc., in these experimental whirls; that lack of perfect homogeneity applies in every respect; e. g., chemically pure" water is not perfect" H2O, but contains variable molecules); or, in general, there is no exact science. So there is truistically a certain amount of accumulation of un- balance; the equilibrium begins to be restored by movement of the very small structures which are imperceptible to us, and it takes time to show an effect in the larger ones — to show the bulge. We can take it simply that water" struct- ures are of finite size, and like bricks in a wall require a finite accumulation of energy to dislodge them. Then, when that unbalance or potential accumulates enough, the secondary whirl is born. It seems to us fitting" that it should be born ; for a perceptible length of time we can notice that the filament, so to speak, intended or purposed to give birth to the secondary. No dualistic science — nothing in the classical logic — will with verbal consistency permit any such phenom- enon to happen : such science says it is logically impossible, and yet it does happen before our eyes. For by classic logic effect must follow cause instantaneously in the sense that any force at once produces motion. Well ; the actual pluralistic fact is that never does any force which we say we measure' instantly start its motion or produce its effect: always in science — in consistent positive language, which is not formally mystic or religious expression — there is a lag in time. The orthodox way of assuming and asserting that a reaction is prompt on action is merely a One form of speech — true as a One or zero or infinity ; for the reaction does begin instan- taneously on the zero parts at the end of the infinite regress. Classic logic and dualism having thus omitted positive state- ment of that time lag which is pluralistically usually glar- ingly perceptible especially in biological phenomena, and having further formally or logically denied the possibility of any such thing, naturally commonsense persons observed the existence of lag — naming it, in general, purpose. Then, truistically purpose" could not conventionally be explained as it had been "logically" denied. That time lag implies an accumulation of energy or motion which then ob- viously as a truism (and also by direct observation) goes too far — overruns, so to speak, — and then bounces back some. Hence, including that second and completing result (that bounce is of course in infinite regress : — all this is obviously merely a detailing in physical terms of the theory of incom- mensurability, and the incommensurability is not finished by one bounce or any finite number), we call this phenome- non of an accumulation or summing of results by various conventional names, depending on the way we look at it:- purpose or intention, will (volition), lag (with its numerous technical synonyms :- hysteresis, viscosity, elasticity in some senses, latent heat, potential energy, etc.), overrunning, rhythm, vibration (as of an ether cell — and our use of those last two terms will thus have a more extended meaning than is conventional), etc. Generally I shall use for this total aspect of that summing up of effects (which is a deriving of That... by beginning, so to speak, with the last dot and building up the That... by going backwards), due truistically to the finite size of parts, the names overrunning, rhythm, or vibration. Obviously, rhythm is a universal property of the Many. The orbit of the earth is a rhythm ( music of the spheres" — though music implies a perceptibly sustained and-or organized rhythm, which involves the definite addition of the principles of harmonic periodicity to conventional rhythm). All vibration is explicitly rhythmic; a pendulum is rhythmic. Even free verse" is rhythmic — but percept- ibly so only after a painful effort to perceive. But there is no perfect rhythm — no exact cycles short of the total uni- verse. So there is no perfect music short of the One. g. It may be directly observed, and consistently ex- pressed as Bernoulli s theorem, that the filament throws off a secondary when it loses velocity or energy, or when the field relatively gains velocity or energy, so that the field has loc- ally a relative asymmetry — i. e., locally its velocity tends to become greater than the maximum velocity which is or de- termines the difference surface, and hence truistically that surface has to change in some way. Or, it could be said that the inner field (the hole' in the doughnut) got energetic locally, thus pushed against the filament in some spot, and forced out a secondary on its other side, precisely analogously to a whirl gun (§102b). There are a number of direct ways of stating the actions and reactions of that phenomenon. It is then obvious that precisely the reverse can oc- cur:- that the field loses considerable energy relative to a place on the filament, and gives birth to a secondary into it. We see that experimentally more definitely in §102d. h. It is also obvious that it is theoretically possible for such secondary whirl formation to take place in either direc- tion across the field difference surface with respect to two primary whirls, when there is considerable local asymmetry. I have never directly seen that occur with experimentally made whirls; but it is probable, e. g., that most ordinary electrons (they are indirectly observed) are such field surface secondaries (XIV). However, it is also clear that when two whirls which have joining fields are rather free to move (as is the case with the limited number of whirls which can be made somewhat simultaneously in the neighborhood of each other by the soapy water method), then an asymmetry of the two whirls is more likely to distribute itself rather evenly over the whole field surfaces (cf. history of solar system in XII), so that the two whirls repel or attract each other as a whole (as largely happens in electricity ; XIV) — and in especially free conditions will alternately repel and attract in percept- ible long-continued rhythm, the two alternately threading §101h XI Two UNIVERSE 110 through each other (§102b). If there is perceptible only a "repulsion," then truistically the two repelling whirls sepa- rate spacially, but in so doing would approach towards or be "attracted" by other whirls; i. e., as an obvious truism there can not be "repulsion" without equal attraction' elsewhere, and vice versa. i. If two whirls are attracted together in ways which do not start too much rhythmic change, the 'direction of birth reverses, and the two join together into one whirl having one filament and one field. This larger whirl is of a higher order," which we might call the first super-whirl. It is very difficult to form two soapy water whirls nearly enough simul- taneously to join thus (i. e., the two drops have to hit the water almost exactly at the same time at a little distance apart, as otherwise there will be so much relative asymmetry between the two that they will not join — just as two rather different sorts of animals will not breed together). But such unions are readily produced in other ways (§102ef). This joining of whirls into superwhirls is a very common phenom- enon, being simply the quantitative obverse of secondary whirl formation ; in one side of the complete cycle the po- tential "increases," and in the other side the potential cor- respondingly ' decreases" — which is which depending solely on point of view (§99b). E. g., the combination of ether cells into a definite whirl is the most general example of joining of whirls; in that case the degree of union is slight, just as it is in (say) the joining of two or more atomic whirls into a molecule, or in the bunching of molecules into a higher sort of molecule, such as a chemical chain or ring" is sometimes. It should be noticed that when the degree of union is practically complete, as when two whirls unite to form one whirl without substantial surviving traces (asymmetries) of either, that larger whirl is conventionally called a different order; but there is no essential difference. By the theory of ineommensurables there can be no perfect union, and hence the question of order of whirls depends truistically on the quantitative degree of union (cf. §100j) — and that is in infinite regress. And that joining of whirls will be shown to be equivalent in principle to the join- ing together of two one-cell organisms, or to ordinary fertili- zation in two germ-cells (XVI). A biologic cell is a whirl (just as the earth is), and is in principle equivalent to our ether cell, merely varying in L and T (XII, XVI). j. That quantitative joining together of two whirls ex- perimentally, or the reverse secondary whirl formation, tru- istically depends upon the size of the whirls compared with the size (energy) of the asymmetry. E. g., an asymmetry that would break a smoke ring into pieces too small to see well would be imperceptibly taken up by the solar whirl as a whole; or, reversing, an asymmetry that would affect the solar system perceptibly would be so comparatively huge that a smoke ring would pass through it mostly unchanged, in a short time (§100j). Thus there is truistically a rhythm, or harmonic proportioning of sizes (at a given time), due to (or which fundamentally is) the overrunning or accumulation of energy — and due fundamentally to the finite size of ether cells, which in turn truistically rests on the arbitrary split- ting of things by V\. Or, whirls which could form and sur- vive in any given environment would occur in certain 'steps' in size, with a very definite proportionality; i. e., this is the L aspect of the T aspect that was called lag in par. f. That is the statement of the principle of the periodic table (Appendix B). There is nothing esoteric or hard to understand about it. It is precisely the same principle as this :- that (say) a woman can not have a continuous or fluid' stream of child- ren, but has to have them in stepladder order, with all sorts of variations inside certain probable limits, including possible quintuplets (say), which however are never exactly the same. The principle of harmonic proportions is the same as the gen- eral statement in par. f (except that harmonic proportions emphasizes L ; or figuratively asserts concrete music which of course lasts for a while, or includes T) ; or it is the same as the fact that "static" friction is for given substances a fairly fixed proportion greater than ' dynamic friction, but varies with substances; or that a given vessel may be over- filled with a given fluid in certain roughly definite propor- tions. In no case however can there be exactness; e. g., there is perceptibly no exact weight of the Pb atom, but what is called Pb are atoms which are in fair proportional equilibrium with other whirls in the environment and hence group themselves comparatively closely around some certain average weight, but exhibit some decided variations in even as general a property as weight where the past histories (en- vironments) of the various Pb atoms have been somewhat different. The same principle of harmonic proportion is very apparent in biology; those different ' elements" there are named "species," etc., and individuals of them vary percept- ibly from each other, but group themselves around an av- erage." ■ The definite measuring-discussion of that harmonic proportion — i. e., the explicit expansion of the scientific theory of measurement — is scarcely begun in the present day, as was noticed in IX; consequently, although the principle is simple, and recognized in various forms by nearly everybody, the expression of it is unfamiliar and hence gives an emotional feeling of puzzlement. Kelvin was right in saying that measurement was important in science (§2); but he did not do more than begin to say what measure- ment" is — he just took it for granted that anybody with commonsense knew; and I am saying here that such is the case, but that that knowledge is exceedingly vague and is not definitely expressed. I shall give various That... X. This... discussions of the principle hereafter. But that discussion also is rather novel verbally, and will lead us to things that although really simple seem hard at first because the details have not been very definitely observed by us. I don t know the details myself — merely the beginnings of them. For in- stance, it is obvious from this paragraph that theoretically in a chemical compound, because the 'elements" are fairly stable in their proportional sizes or energy-contents, the dif- ferent element atoms would not ire a great degree join together into a superwhirl (obviously, if they did a new "element" would result — and under suitable conditions it is probable that such ' new" elements do result; §118); but there would at least be always a variable and slight degree of union into larger structures or compounds (or biologic cells, organs, etc.) that are harmonically or spacially-proportionally fairly in symme- try. So in comparatively steady conditions we would have a compound ' that is a distribution or structure of "element- ary atoms" in a space lattice" in crystals, directly observed with perhaps most thoroughness by the Braggs with X-rays, and which is being worked on symbolically from a dynamic point of view by Langmuir (cf. also Erwin's "wheels"). So it becomes obvious that this general, seemingly abstract, theory is the foundation for getting definitely at atomic phe- nomona, structure, and measurement — implies the principles of solids, liquids, and gases. Some few of the facts about all that, and expansion of those principles into applicable de- tails, are given below in suitable places. Most of them that are known to the experts I do not know; and comparatively only a few such facts are known to the experts. But it has appeared that such ignorance is quantitative — not essential, k. The final general sort of phenomena which whirls display, and which may be directly observed in these experi- mental whirls, is the general elastic reaction, or various sorts Ill UNIVERSE Two XI §102b of vibration of the whirl. Primarily it is of course easily ob- served that there is no fixed or constant difference surface — the filament surface is visibly variable. That is the general principle of elasticity :- single cells have an infinite regress of parts, and hence no surface exactness can be shown any- where. All phenomena are of course truistically ultimately such elasticity — it is simply another name for motion. But when we consider a whole whirl as for a time remaining formally a definite structure, then the whole whirl visibly varies, or is elastic : the filament moves back and forth, re- maining the filament' (for marked and systematic experi- mental evidence of that, see §102). - — — Inaccurately and briefly (it is a quantitative problem I have not worked out — for general implications of the probable truth of the guess to be given, see XIII), ordinary light is the wave motion from vibrations or rhythmic processes in atoms ; X-rays are the waves from the rhythmic processes of secondaries in atoms (from 'electrons' inside atoms) ; and electricity is a collection of many atoms in a large or super-whirl or -whirls, so that electric waves come from the vibrations of the large fields or filaments of such whirls. Now, clearly the same harmonic periodicity of size would hold between the dimensions of such waves, as held with respect to the orders of whirls (taking order here in its full formal meaning of §100j). So in our ordinary average environment there would not be any persist- ent or stable and hence readily detectible waves between wireless waves and light waves ; then there would be a simi- lar rough gap between light waves and X-ray waves, just as there is a gap (including a difference also in properties) be- tween C (atomic weight roughly 12) and N (l4), or between an ape and n man. There is of course truistically possible (using the full meaning of order) a continuous gamut of waves, from those approaching the limit of infinite length that are the vibrations of the ultimate whirl which is the universe, down to those approaching zero length. But in & particular environment such as (say) ours, by that theory of harmonic periodicity there are those three "element" waves (each sort has considerable natural variation about its average ; e. g., the different "colors"). By changing the environment suf- ficiently and for a long enough time we could produce any length of wave just as it is possible theoretically to produce any sort of chemical element of any weight, or as it is pos- sible to change an ape into a man or vice versa (with enough knowledge we could take any given ape to pieces, and change the pieces and put them together as a man : it is a quantita- tive task — see XVI, — and in principle every quantitative task is possible, given enough L and T). This paragraph is theoretically consistent. Quantitatively there is not a suffic- ient amount of direct experimental proof, as this particular application of obviously true principles is somewhat novel. Hence, I am perforce guessing at quantities, and quite likely I am badly inaccurate in some guesses ; e.g., there nearly certainly are 'organic' waves normally existent, which consti- tute an 'element wave' between electric or wireless waves and light. But there are no positive measures and conven- tional recognition of any such waves. Possibly the smallest size electric waves (I do not know how short the experi- menters have now got such waves: perhaps to 0.1mm) will be finally shown to be near the size of waves that cause what is named telepathy, the "light" in a person's eyes, per- sonal magnetism," etc. ; but it is rash to guess at such wave lengths. However, even if there are no such organic waves of an 'element' length of their own (and with absolute cer- tainty, the brain and all sorts of organic cells will give off some length of wave; §146h), they are obviously nothing new. For light waves (say) truistically imply the existence of all sizes of waves. Also, as light waves may be said to be themselves actual whirls (§§124-5, 130), then any sort of wave may be considered explicitly a structure, or ex- plicitly matter, and so they definitely show all the phenom- ena possible to any sort of matter" — including spirit or "mind" (see Part Three). So theoretically there is no diffi- culty whatever in obtaining thoroughly consistent, intellig- ible, and so-called "concrete" explanation of all the table rappings, levitations, automatic messages and writings, etc., produced by "mediums" for the psychic researchers. Per- sonally, I never observed any such phenomena except some I could see was a fraud (I have myself experienced some very inaccurate and uncontrollable telepathy, which is the direct form of most such phenomena that isn't fraudulent) ; but I believe that Carrington, Hyslop, and Flourney, e. g. , have seen some such organic phenomena — mixed perhaps with considerable fraud which they have mistakenly thought genu- ine. (The difficulty with observing such phenomena is that most mediums have more than a touch of hysteria, and will deceive even themselves in their efforts to attract attention to themselves ; hysterics frequently fool experienced physicians who are on their guard against just such a thing, with re- spect to commonplace doings : see Weir Mitchell's little book on hysterics, which gives some of the almost unbeliev- able deceptions practiced by them, and furnishes proof of this sentence. So they easily deceive scientists, who are not accustomed to dealing with liars; also, except after consid- erable dealing with hysteria, recognizing it as such and guarding against it, hysteria is temporarily very catching"). However, although there are such psychic phenom- ena, genuine and easily explained, that by no means proves the existence of a spirit world or spirits ; it actually disproves the existence of any such, as we implicitly see in §§152, 144, and elsewhere (index, Personality," "im- mortality"). The truth is, as is truistic wjth the theory of this paragraph, that we have thus far in the existence of the race perceived merely a few spacially isolated spots on the unending gamut (or spectrum) of waves and-or molar ele- ments" (both are the same, as just seen). Not only have we failed to observe the vast majority of things that exist, but we have not formulated any very explicit statement of the existence of the vast majority of things. In a universal sense we are as narrow or provincial as many New Yorkers are in a mundane sense. Yet in spite of that limitation of vision, with which we have formerly been rather content, we shall never experience or observe anything with which we are not already thoroughly familiar in principle — anything which is not in general exhibited by a whirl. §102. a. Practically all of those general phenomena of whirls can, as has been stated, be observed directly from the slow-moving soapy whirls. Such are needed for direct ob- servation of many of the reactions. But well-formed whirls may be experimentally made in many ways, and in this sec- tion I shall mention some others which serve to verify details which are perhaps not clearly visible from the soapy whirls. Any relative change of velocity in a Many medium forms or starts forming a whirl or whirls; if the medium is compara- tively fluid and conditions are fairly steady a perceptibly complete whirl will be formed. b. Some smokers can make rather symmetrical smoke whirls. Volcanoes occasionally make them, as do locomo- tives. Smoke whirls may be made readily by using some sort of closed box having a hole of some sort in one side and one or more sides relatively flexible or elastic. (Put two or more holes fairly close together in order to make two or more whirls at approximately the same time.) If the box is filled with a visible fluid (e. g. , smoke) and placed in a fluid medi- um of about the same, or greater, density (e. g., in air) a §102b XI Two UNIVERSE 112 sufficiently hard rap on a flexible side will force some fluid out through the hole, which fluid will form a visible, rather sym- metrical whirl. Such a box is usually called a whirl gun. By varying the factors involved (sizes and shapes of holes, location of holes, elasticity of diaphragm, rap, densities and viscosities of fluids, etc.), indefinite variation in the whirls may be obtained. If the hole is not round, and conditions are otherwise fairly balanced, the filament vibrates markedly — substantially in the plane of the filiar axis. Also, as a well known experiment, if one whirl is made directly after another one, the leading whirl will often expand the diame- ter of its filiar axis (start what we might call a vibration as a whole), and attract the following one, which will contract its filiar diameter and thread through that increased hole in the first, and get ahead. Then, the new leader expands, the other finishes its whole vibration by contracting, etc., and the threading through is repeated — and so on, until the whirls wear out or hit something. That is equivalent to the rhythm of pendulum action. c. An excellent experimental discussion of whirls is given by Northrup ( An Experimental Study of Vortex Mo- tion in Liquids," Jour. Franklin Inst.," 1911 ; reprinted "Sc. Am. Supp.," Sept. 28, Oct. 5, 12, 19, 1912). He made whirls of colored water and colored kerosine. He used a gun; and as the whirls moved rapidly, he photographed them. I shall give such description of his whirls as is needed to supplement what can readily be seen with the soapy whirls. That will be but a small part of his article, and the reader who desires further details and some conventional analysis of vortex motion, can profitably read his article. d. Northrup does not notice any secondary whirl forma- tion. It is obvious that with his rapidly moving, very sym- metrical whirls the fields would constantly be losing energy rapidly in a way that theoretically would make them give off secondaries into the filaments (§101g), and because of the well-balanced conditions such secondaries would tend to be small. Also, as the primary field in Northrup's whirls con- tained more or less of a fluid in which were chemicals that destroyed the coloring of the filament fluid when the two were mixed, it follows that as soon as a field secondary was projected into the filament a number of reactions are possible which would result in a perceptibly visible uneven distribu- tion of coloring in the filament ; which reaction would happen is a quantitative matter not determinable from the data giv- en. Northrup repeatedly noted such a result, and it appears clearly in a number of his photographs as a collection of darker colored little roundish objects all along the filiar axis of the filament. Northrup couldn t account for them — said they might be dirt. e. Northrup (in his photograph marked View D) shows two whirls made approximately at the same time and travel- ing side by side. Each whirl shows a field confirming our Fig. 98n ; but on account of the rapid motion of the whirls there is some perceptible trailing of the fields (cf. §101e). One of these whirls looks precisely like the picture of an av- erage comet (we shall see that comets are whirls; §120). The two whirls, by the usual Bernoulli's principle, have a sideways attraction for each other — shown by their tilting their main axes and approaching towards each other. f. He pictures the same two whirls actually joining to- gether to form one whirl (his View F). Later pictures given of the new whirl show its vibration in three dimensions ; i. e., its filament bends very considerably backwards and forwards and in and out in rapid succession. ■ The mechanics of those reactions can be got by applying Bernoul- li's principle : or see Northrup's article. Those details are not explicitly needed by the general reader. g. Northrup shows how whirls bounce off surfaces, pro- ducing marked vibrations, with the following phenomena :- They are reflected from surfaces just as light is reflected. They will break up diffusely (not visibly as secondaries) if the collisions are too violent. They will push aside relatively light obstacles. If the obstacle is relatively small and too firmly fixed to be pushed out of the way, the whirl will en- gulf it and travel right on around and past it without being broken up as a whole: analogous reactions happen (XIV, XIII) when electricity, light, electrons, etc., go through or pass over atoms or any structure of different order without being changed in whole structure. All those reactions may be followed in detail by applying the mechanics above. We see them in direct detail in various phenomena below. h. Kerosine is less dense than water (it will float). Northrup shows that a water whirl, on passing into a layer of kerosine floating on the water, quickly drops the water out of itself, and forms itself of kerosine. That oil whirl may then be deflected back into the water, and will travel in it still made of oil. That is direct proof of the law that mass varies with velocity and-or Bernoulli s theorem. Even more definite proof is obtainable :- For as the oil whirl wears out in water, drops of oil visibly segregate in the filament, be- coming visibly analogous to the ether cells I have described, and travel around in the filament, outlining it, apparently in direct violation of so-called centrifugal force. §103. a. As another summary of the mechanics of this chapter I shall give a rough statement of the mechanics of gravity. (An ultimately precise statement of the mechanics of gravity is formally given in §134j.) In Fig. 103a let S be a collection of ether whirls which is the sun, and E a collection which is the earth. Then, speaking 1 roughly, the relative motion of the earth about the sun is equivalent to a flow of ether between them, if we Or, the result is the same as if there r--©-^- 1 o — E Fig. 103a. consider them fixed were a pipe, represented by the dotted lines, with the earth and sun contracting the flow of ether as shown. Hence, by the mechanics of this chapter there would be a lower pressure of the ether fluid against E and S in the space be- tween them. As the ether is indefinitely extensive, and the dotted lines of the pipe are merely formal surfaces with equal pressure on each side, then that less pressure between S and E is equivalent to attraction. That attraction is gravity. b. That is the total of conventional gravity. For actual gravity we have to be somewhat more precise, and not stop thus with E and S tacitly rigid One bodies, and with the explanation concealing a considerable collection of zeros and infinities. In short, I have tacitly expressed That. . . X This. by SXE (without dots); to be consistent, and reasonably accurate, we need to include dots. But when we do, gravity is no longer separable from other phenomena (§134j). c. That inclusion of dots is accomplished by definitely considering the actual fact, that if E and S were (l) regarded as simply two cells they would still in that elementary form be elastic, so that the difference of pressure at the contrac- tion would modify their size and hence in infinite regress modify the resulting contraction and hence the "force" of gravity. Or, (2) if E and S were actual collections of whirls, then each would have what we shall see is a field (§114f); and those two fields would react on each other, and theoreti- cally be or give precisely the same modifications as in (l) in infinite regress. And the observed facts are that E and S do have magnetic fields, and that the pull of gravity is 113 UNIVERSE Two XI §104c not absolutely steady or static (not exactly according to the inverse square law; IX). Therefore, both by direct theory and direct observation, there is some gravity attraction be- tween E and S and some chemical (or electrical, or 'field,' or whatever it is preferred to call it) attraction or union between them. And obviously, it is impossible to say that there is a real distinction between the two "sorts" of attraction (ex- plicitly, the attractions are in infinite regress) ; each is what we call irrational if asserted alone. Hence, we rigorously have W...XA... (§74), or inexplicitly, S...XE... . Or, the problem of any two actual or experimental bodies is in- soluble (§88). Or, there is no exact science. §104. a. In this section I shall directly unify the fore- going mechanics with conventional mathematical science, and with the measuring theory in IX. That is the sum of the book from a particular point of view, and so I have to con- dense ; the section can become obvious in detail only to those readers who follow out the thought from the hints given. This aspect of the subject is so extensive that I have followed the suggested steps only a little way in preparing for this book, and had to write a volume or two to express that much. The general reader has perhaps forgotten what he read in his physics textbooks so thoroughly that he will have slight interest in, or recognition of, what is here condensed to dry bones. If so, a casual, careless reading will give him the essentials and be less boring. b. We have seen (§§80h, 82) that any "perfect" part of the universe (such as pv=Constant) is symbolized by a rectangular hyperbola. For instance, if in the actual total Fig. 104b. universe the sun and earth were an absolutely separable per- fect gas part, then SXE (without dots ; §103b) would be represented in Fig 104b by the rectangular hyperbola CBD (including the third quadrant branch C 3 B s Ds) in which the general point B represents S and E. Clearly therefore, in order that the geometrical hyperbola may accurately repre- sent bodies, the bodies must, as a truism, be reduced to geo- metrical point masses, of which there would be an infinity, so that the universe would be validly represented by an in- finity of such hyperbolas, and infinite pluralism would form- ally be considered reality. In that case it is obvious that the only way to represent any phenomenon with logical consistency would be to travel on the hyperbola representing conditions at the beginning of the phenomenon to the asym- ptotes (i. e., revert to monism, or mystic - °°), and shift on those to the hyperbola or hyperbolas of the conditions resulting (and for intermediate steps of the phenomenon an indefinite number of those curves would have to be considered similarly used). Now, if Carnot's perfect heat engine, or any perfect gas, or Newton's gravity, or any absolute constants, or any exact cycles be asserted, obviously such a geometrical representation of them is consistent and valid. But, it is equally obvious that such a representation is actually an ad infinitum affair or regress, and in so far as it is explicit is mys- tic or religious language; it formally and largely explicitly is the old Maxwell science and is also identical with the meta- physics of Hegel, which I understand he admitted was un- intelligible to himself; it is obviously mystic language which is the opposite of Many language and to the usual tacit valid logic and commonsense used by science. I. e., every one of the bodies B is in every explicit expression (every actual curve) a perfect universe of itself. In metaphysical terms, each perfect curve is Kant s thing in itself — and most other older dualistic philosophers had a pet name for it. Maxwell's pet name for it was molecule or atom; that infinite collection of hyperbolas is equivalent to Maxwell s kinetic theory (except that I am finishing it here); for clearly, the actual working together of the parts of the total universe is merely implied — the describer of phenomena reverted to One language (went into a verbal trance, so to speak) and said God worked them — moving in a mysterious way his wonders to perform. It is quite true; the universe did do them: but science proposes to say positively how it did. Obviously, so far as positive explicit expression of phenomena is concerned, that old kinetic theory — and similarly all dualism, including classical logic and orthodox theology — makes no statement whatever of how or why or where such a universe or God works. Or what amounts to identically the same thing, it is glaringly obvious that those old doctrines provided no struct- ure, no real mechanism, no actual relationship (such as love), no working together, no binding together which is religion — provided none of that in any explicit way ; but in geometric expression, left it all to the asymptotes at a 0-point at °° . Well ; as is obvious, such doctrines are right ulti- mately, provided we dig out their implications as was done for classic logic (§24). Unquestionably that tacit taking for granted of relationship is the entirely valid religion which animals, etc., correctly hold; I remember that as a child I took such a tacit religion for granted and wondered why peo- ple invented a God when all things worked beautifully and justly right before their eyes. The only valid objection that can be made to those dualistic, perfectly kinetic, orthodox theological doctrines is that they merely fail actually and positively to use the language tool ; they stop before they finish and then get into a stew because their God is as empty as those asymptotes. Such doctrines obviously pretend or seem to use language, whereas in actual effect they are using formless interjections, like the clucks of a hen. c. But if we use as B any actual body (a finite Many part of our usual Trinity language), then the body does not stay on the perfect hyperbola. If we use Van der Waals's partially corrected equation, which is a cubic equation, the body takes a swerve at someplace (Daniell's Physics," 376) and the body apparently usually has two imaginary values (see par. i). Richards's form of the equation, or our That... XThis..., or the S...XE... of the last section, obviously makes the hyperbola become a continuously changing line of infinite length, which is the single closed line we saw repre- senting the universe in §98m. Hence, any phenomenon is §104c XI Two represented by an actual portion of that universe line. But no phenomenon can be accurately described ; only by sum- ming it into the One do we get accuracy, and then it is formal and mystic and sums as being the asymptotes, which directly represent the One. d. Also, although I shall not go into it explicitly, this hyperbola model is being given in two dimensions, with the third only implied. We must add the third, and consider 8-dimension curves in order to be completely explicit. This modification applies to this whole section. e. If a symmetrical single surface ring of no thickness and infinite width be revolved, this hyperbola will always be related to the generatrix in ways suggesting mathematical laws, including the inverse square law — and also the non- Euclidian geometries (by having the generatrix vary from a straight line) and ra-dimension space (by extending or dupli- cating' the curve beyond the point where it touches the asymptotes — as in orthodox projective geometry). f. Suppose we take a formally infinite or One filament (as in §100df) in which the surface is a geometrical surface of zero or infinite velocity. Then suppose we change the filament so that it comes just inside those One limits, its val- ues becoming finite. Then the motion in its surface becomes helical with pitch angle different from or 90 , but ap- proximately one or the other. Then a line of no force would be normal to those spirals, and approximately in the surface (we may take it so, omitting considering its other dimensions). The projection of any such line on any plane through the main axis would be (approximately, by valid logic; exactly, by classic) our hyperbola — which is a line of no resistance. But that line is at right angles to the line of no resistance of §98m. So we see by this geometry how the inverse square law comes in. ■ This paragraph is condensed far be- low the point tolerated by mathematical precision. g. The last paragraph is another form by which par. b can be proved (and understood, if you have the patience and professional need to dig out the implicit truisms in the last paragraph). Incidentally, use of explicit logical expression in the last paragraph would make the One line of no action definitely 8-dimensioned, so that the two lines' mentioned would be ultimately closed on themselves and identical. h. Also, by explicitly and with pluralistic consistency shifting from that One filament to actual or finite ones, we get the actual universe line of par. c again. The hyperbola of par. f is obviously simply the limit or envelope of that act- ual line. So from that point of view all of Carnot's theory and of old kinetic and cyclic theory can be seen to be only limiting statements of actuality, and not actuality at all ac- cording to ordinary language. That covers the whole theory of calculus, and most of physical mathematics. If it be un- derstood that each such dualistic or classic equation is summed perfection or absolute abstraction from our actual world, and hence (l) is actually inaccurate; and (2) is formally sepa- rated from all others, so that logically explicitly there can not possibly be any such thing as what is actually meant by ex- planation, or knowledge, or continuity — if that be under- stood or implicitly accepted, then even the mathematics of Maxwell is correct. And science nowadays does implicitly accept those things, as shown in the next paragraph. i. As noticed (par. c), Van der Waals's equation makes a swerve (usually), giving two imaginary roots. Obviously, therefore, those imaginary or logically absurd values result when the actual observed curve, by everyday language leaves that One hyperbolic curve and exhibits at least two of the actual dots of S. .. X£... or p...X«... — and hence does con- tradict the classic logic it started with. So it is further tru- istic that the swerve in Van der Waals's curve is equivalent UNIVERSE U * to the inverse square law (cf. pars, e-g), or to the principle of Ampere's law. And Van der Waals himself substantially asserts that, when he says that the modification of the exact pv is due to a variable extension or field of the bodies which are molecules ("Ency. Brit.," vi, 846). Richards's theory makes all that explicit. Therefore, vaporiza- tion or melting or disassociation (etc., in infinite regress) lines in pv curves (or in any curve of the general 7%«tf. ..X This...) are actually the verbal inverse square law; or ex- plicitly represent (never accurately) the 3-dimension differ- ence surfaces of field and-or filament. Or, they are the explicit geometrical model (or equational) representation of the formation of whirls of a different order (cf. Reeve's En- ergy"). Or, Van der Waals's imaginary states" merely mean that the M's talked of become something else, that are not of the same order or state. j. The last thing to be definitely suggested about this sort of averaged or summed or e form of model of the uni- verse, is that it shows that we may reverse the direction of naming of any quantity — i. e., that our location of the zero potential of any phenomenon is purely arbitrary. Ordinarily we fancy — without really thinking — that we name things which would be represented in the first (trigonometric) quad- rant as algebraically positive, and that all potentials are taken so that such positive trigonometrical directions increase them numerically. But it may be readily seen that even science, with its more careful speech, does not thus consistently name potentials:- Ordinarily, with reference to molar bodies, the extensive factors F, W, Ent, and Q, and their respectively corresponding intensive factors L, A, Temp, and P, are named positively, as indicated in Fig. 104b. But^j is a force which usually is named as acting oppositely to F; so a con- ventionally positive p is in the direction of OY , and p... X v... is in the second quadrant — giving the conjugate hyper- bola, or a language from a different viewpoint. Also, when conventional science shifts from molar translatory mo- tion to vibrations the point of view changes from out to in (or vice versa, if you prefer to look at it that way), and the direction-naming shifts from the usual branch in the first quadrant to the branch in the third. Hence, when Rey- nolds substantially begins by considering vibrations as real or positive sort of motion his whole nomenclature of molar bod- ies practically reverses from custom. But his vibratory mo- tions are consistent with the customary naming of vibratory directions, because conventional science is capsized in its language referring to them. Therefore, here in brief is the general theory of potential directions. I omit the several volumes needed to treat the matter adequately. k. So this section is a summary of the mathematical as- pect of the That. .. X This. .. member ; it becomes naming mathematics, or "geometry." (Obviously, it is a general repetition of IX, which gave the "algebraic" mathematics of the measuring member.) I have merely very roughly suggested its possibilities. I have not gone far enough into them to be very definite about them ; but the mathematical physicists will have no difficulty in seeing that even this ele- mentary discussion unifies their equations. There is no fur- ther mathematical discussion in this book beyond occasional brief reference; this section is not actually mathematical, but only^implies mathematics— as does the phrase "Good morning." Such a large proportion of all orthodox mathe- matics is infected with classic logic that it is a sort of neces- sary evil that we have to endure, to refer to such mathematics at all. The reason ordinary mathematics are so excessively boresome and offensive is that they are so wrong and mean- ingless (cf. §30g). Consequently, they are not a pleasant topic for discussion, just as bad health is not usually a pleasing 115 UNIVERSE Two XII §106b subject. Hereafter, I mostly use the That. . . X This. . . di- rectly — usually as the explicit machine Field... X Filament..., or some duplication of it, as Those whirls or cells. . . X These. . . . CHAPTER XII. Astronomy. §105. a. It was shown in general in §100 (especially in pars, be) that the practical way we had of using the form That...\Tkis... was to split the universe into parts on the criterion V\. Parts of our skin (including our eyes, which are physiologically parts of the skin; "Ency. Brit.," x, 93) are used as standard parts ; and that fixes all other parts with quantitatively a corresponding variation of limits (be- cause the skin itself is variable). That actual standard makes atoms the primary order of whirls, as atoms are the skin structures, with a velocity V\ of difference surface (see XIII), so that other different-order structures have different, but proportionally related, velocities. All "things" in the universe are therefore in practice compared with that stand- ard or primary'; e. g. , our nervous activity or "thought" is (in this materialistic"-seeming phraseology) directly such atoms (XVII). The first ' higher" or superorder of bodies is molar bodies — such as the skin itself, or any arbi- trary part of it, as the eyes or nervous system; or such as a house, a man, the earth, the sun. Conventional science gets from the atomic order to the first super- or molar order by means of the kinetic theory — by making the atoms dynamic- ally fly around in 8-dimension space in order to produce a static molar body. And conventional science, in full agree- ment with the logic of this paragraph, finds that if the whole of a body has V\, its mass theoretically becomes infinite. I. e., the old Maxwell kinetic science has just two actual ord- ers of structure; the experimental introduction of the elec- tron, which is the first infraorder, thus promptly threw that theory into mysticism. b. We have seen that such a passing from one order to another order logically implied an infinity of orders. Mod- ern orthodox science is in logical agreement with that. We have made a verbal form or machine in which by using the inverse square law we make the step from order to order. (And this is an important point :- because the conventional kinetic theory is logically one such step, it is clear that that theory is nothing but a verbal form which definitely implies that inverse square in a negative fashion in its fundamental formula, ^otu 2 .) And we have also devised a concrete" machine by which definitely objectively to make the step:- a whirl, or any of the indefinite number of machines to which it is equivalent. The old Maxwell dualistic kinetic theory is not a machine at all, but a poetic adumbration of a machine. c. Therefore, we combine molar bodies into a next higher order, and get a solar system. The combination of solar systems into a higher order gives a stellar galaxy. And a combination of stellar galaxies gives a higher order for which there is no conventional name, but which becomes definitely identical with combinations of atoms into various molar bodies. Etc. According to such naming, molecules are molar bodies. The final truth is that those "orders" are not sharply distinct from each other (§§101j, 40) ; so I deliberately leave out molecules as an order, to emphasize that. A molecule is a transition stage from atomic order to molar order — sometimes a large atom and sometimes a small molar body. There is no such thing as a fixed ele- ment" or absolute atom. All other orders have 'transition' stages : the inverse square law never names actual bodies per- fectly. And proceeding in the other direction of orders from atoms, we get electrons, parts of electrons, etc., on down" to cells. (Between atoms and electrons are vari- ous transition stages which are directly experimentally per- ceptible in radioactive phenomena.) It has been seen in principle that there is no essential difference between these orders — only a quantitative, or L and T one. We are now ready to see, by directly observing the various orders, that they are essentially identical. By doing that we get some useful results. Those results are roughly anticipated in the remainder of this section, so that the reader may know what to be looking for. d. By observing the various orders of whirls, and seeing that they are qualitatively equal or identical, but truistically never quantitatively equal, we shall get a rigorous, intellig- ible proof and knowledge that men, as well as other things, are qualitatively identical and equal, but never quantitatively equal. I. e., it is absolutely impossible, and practically and theoretically irrational, to average men or anything else into fixed classes. All of classic logic, orthodox theology, social- ism, all the Maxwell kinetic pseudo-science try to assert the dualism that men are fixed in classes— that some are in- trinsically better than others. They all try to impose upon men hierarchies, autocracy, socialism, or some other sort of line" or bureaucratic rule like the German in 1914 or the papacy, in opposition to democracy (XIX). We shall see that all those conventional dualisms are irrational by seeing that in the whole universe there does not and can not exist any essential or qualitative distinction in order — no fixed classes — no exact science. On the other hand, quantitatively no two men, no two atoms, no two of any actual things are ever equal (i. e., in size, or measure, or amount, or practical or Many needs or worth. I stated above that orthodox theologies arranged men in classes. As the truth of that may not be immediately obvious, I state it explicity :- So far as I can find, all those theologies technically assert that their God, or each of their Gods, is a person who is superior to, or essentially better than, other persons or men. That truistically gives at least two fixed (or 'line" or military or bureaucratic or aristocratic) classes:- (l)men; (2) God. And that is irrational. This book demonstrates that man is God — that God or the universe is quantitatively different from any given man as conventionally specified (i. e., 'skin- bounded'), but that God is in no essentials different. e. We can see the solar system, comets, etc., in more detail than we can see atoms. A comet, e. g., as is shown, is an electron of the solar-system-considered-an-atom. So from several points of view we may learn more about atoms by observing the solar system, etc., than by observing atoms. f. Also, as we have a consistent mechanics, we may, by investigating such ' higher' order whirls that are easy to see directly, get a thorough base for human phenomena — life" becomes easily comprehensible (XVI). §106. a. Therefore, because it makes no essential dif- ference what order of whirls we use as a means of acquiring a full understanding of our immediate environment, we may without inconsistency employ such whirls as give us direct quantitative details. The so-called astronomical or celestial whirls seem to do that best to begin with. Those whirls ex- hibit all phenomena directly, as we shall see. But I arbi- trarily reserve light, electricity, etc., for other chapters. b. Many of the quantitative details which we observe have not yet been measured very definitely. So it is obvious that I shall have to make rough guesses at some we need. It is inevitable that there must be quantitative inaccuracy in my description ; but it is most probable that that inaccu- racy exists in such a degree that some important and useful phenomena are made vague. I can hope only to be logically consistent. §106c XII Two UNIVERSE 116 c. It may seem at first thought that there is no need to guess at anything — that such guessing is not science. The general reply to that is obviously that there can not be any exact science (§40). The practical reply to it is that we are forced, as a means of continuing to live at all, to guess at the characters or properties — measures — of the people and things about us. Every time we eat anything we in effect guess at the motives and properties and attributes of the per- sons who were perceptibly concerned in the production of it — e. g., as to whether they wished to poison us. The incom- plete physics or other sciences and theologies in textbooks furnish us with no definite or consistently expressed basis or criterion for making such guesses. We have been going through life without any consistent conscious basis of estimat- ing or judging or guessing at the majority of the important decisions which we actually do make. The universe or God takes care of us, by it as a whole causing us to make fairly correct guesses intuitively (i. e., with very vague conscious- ness — as we are a part of the universe) — which fact is more or less contrary to the hoary, conceited myth that man is a reasoning (i. e., conscious) animal: for only in small part is he conscious in the sense that he thinks or is intelligent. We see the proof of that in Part Three — and how man pays for such care by the loss of possible conscious life in some de- gree. At present it may be noted that we do some consist- ent guessing at astronomical quantities as a means of becoming conscious of a consistent basis of making everyday judgments. The more conscious we are of what we are do- ing the more life we are aware of having; e. g., if we are asleep we are unconscious and not aware of having any life. Hence, as real science can do nothing else but guess, it is honest to admit it, and then proceed consciously to guess. That does not mean that I am rashly abandoning observations and measures; actually, I am doing much less guessing than does an astronomer who doesn't know the principles. §107. a. Astronomers seem to agree rather generally that our stellar galaxy is a nebula; see Hink's "Astronomy," Arrhenius s Destiny of the Stars," etc. The Encyclo- paedia Brittanica" (xix, 832) gives eight arbitrary kinds of nebulas, depending on their general appearance:- (l) irregu- lar nebulas, (2) annular, (3) double, (4) planetary, (5) ellip- tical, (6) spiral, (7) nebulous stars, (8) diffused nebulosities. We shall see that nebulas may consistently be considered to be whirls. In that case those descriptive names correctly describe whirls seen from various points of view, and in vari- ous stages of growth or of wearing out. E. g. , an irregular nebula, of which the great nebula in Orion is a type ("Ency. Brit.," Art. ' Nebula," Plate I) looks very much like a newly formed whirl, with its visible field, in a rather dis- turbed condition; an annular whirl looks like a filament, seen normally ; a spiral nebula looks like a filament that has become comparatively stationary as regards traveling in the direction of its main axis, and has given off a number of sec- ondary whirls which hence traveled spirally roughly in the filiar plane (instead of revolving about the filiar axis as in Fig. 98w). We see more such details as we proceed. b. There is no definite agreement among astronomers as to what sort of nebula our stellar galaxy is. As we shall see, it probably is a rather flattened-out whirl, so that quite likely it has the spiral appearance if viewed from a neighboring nebula (§108b). However, our solar system is probably comparatively near the center of such a spiral, even though we are not (except in the direction of the Milky Way) per- ceptibly surrounded by nebulosity. I. e., our galaxy is probably shaped like a large double convex lens — or like a grindstone, to use another conventional simile. That is ex- perimentally shown chiefly by the observed distribution of stars, the appearance of the Milky Way surrounding us as a ring, and by other details mentioned later. In Fig. 107e, DA and BC are cross-sections of a conventionalized or smoothed-out Milky Way or filament. We are near the cen- ter, at S, and around us we see that filament. It probably is smashed somewhat flat by surrounding whirls or galaxy- nebulas of the same order, so that it (the filament or Milky Way) has but comparatively slight motion of translation along the main axis PP (say as a guess 100 miles per second, which is very slow for such a whirl), and hence has compara- tively more motion of rotation about that axis (resulting in a spiral motion in the field, not shown in the figure). Our solar system S is in the inner field of the whirl, a little above the filiar plane (for clearness, the figure probably much ex- aggerates its actual distance above), in a dynamic equilibrium with that field — which inclines the ecliptic somewhat to the filiar plane (the ecliptic is the rough plane in which the earth revolves about the sun and which the other planets more or less stay close to; that is not quite the strictly technical definition, Ency. Brit.," Ecliptic"; the inclined axis qf the ecliptic is roughly NS ), and which equilibrium also in- volves the revolution of the whole solar system about the stellar main axis PP , as we shall see. c. Our galaxy is equivalent to an atom in everything but size (and T), and that is unessential. It is obviously surrounded by other stellar galaxies. I do not know whether those galactic atoms constitute a celestial gas, or liquid, or solid (perhaps a solid ; see par. g). We probably can not see farther than a very few layers of such surrounding atoms : light itself is absorbed by those surroundings (§§131-2), so that comparatively speaking we are probably in the same kind of darkness that we would say existed in the center of a lump of coal (although there would be light there to the parts of coal atoms). Even if our galaxy were an atom of a celestial gas we would have comparatively short vision of surrounding atoms (XIII). d. In technical astronomy the usual unit measure of stellar distance is now a parsec, which is the distance at which the orbit of the earth subtends an angle of 1 second — i. e., gives a fixed" star a parallax of l". It is equal to about 206,000 "astronomical units." An astronomical unit is the average radius of the earth's orbit, which is about 93,000,000 miles. An older measure of stellar distance is the light year, or the distance which light at V\ travels in a year. It is equal to about \ parsec, or to about 6 trillion miles. I use light years, as that is more familiar. e. There are no agreed upon figures for the size of our galaxy. Eddington ("Stellar Movements," 225) roughly guesses that the distance apart of the inner surfaces of the Milky Way (the diameter of the hole in the 'doughnut' ; or the distance from A to B, Fig. 107e; see par. b for prelimi- nary description of this figure) is about 700 light years. Other men guess considerably higher and also lower. I shall to some extent use Eddington's guess as a base (although it probably is considerably too small), making other figures in proportion. The field of the galaxy in the figure has a dif- ference surface with much inaccuracy represented by the outer dotted line (to save space, etc., one end of figure is cut away). That field probably has a long diameter of something like 20,000 light years, and a short diameter of something like 2000 light years (the diameter along its main axis PP'). f. The Milky Way filament has an ether flow as indi- cated very roughly by the arrows. Hence, in so far as that flow is not balanced by a rotation of the whirl around PP' and a spiral reaction of the whole whirl with adjacent whirls (due to the spiral flow of the field ether, which is not indi- cated in the figure), there will be a motion of translation of 117 UNIVERSE Two XII §108c N Q~~D hence, our nebula possibly the galaxy as a whole down, in the direction PP', as was seen to occur in Fig. 98n (§101d). Although I do not show that spiral flow for the galaxy field in the figure, I show in rough perspective the general spiral translation of the solar system S (by the dotted line on which the various S's are) : the motion down of the galaxy in the direction PP would act- ___ — — ually be a similar corkscrew _ c _^--""*" motion among the surrounding _,-'"' galaxies. g. Astronomers observe motions of translation of neb- ulas which are apparently out- side our galaxy to be as high as 600 or 700 miles a second. Several thousands of spiral nebulas are observed around us. The average motion of such nebulas is observed to be perhaps 250 miles per second ; corkscrews down at about the same rate (but see par. a). There is not much reliability about such figures as yet; for nebulas are faint, and are difficult to measure even in photo- graphs. But it is already obvious in part, and will become more so as we note more details, that such motions are very slow compared with the size of the objects. I. e., very little change in our galaxy as a whole is produced by that, to us, rapid motion. Such motions of translation are comparatively speaking almost static conditions; i. e., the collection of galaxy whirls in which ours is one atom would be, if those velocities are fairly good guesses, about as fixed and steady as atoms in what we call a solid. And that possibility that we are in a celestial solid is further strengthened by the fact that observed distances of other galaxy nebulas are roughly of the same order as the size of ours; i. e., the galaxy whirls about us are packed in as steady as the bricks in a wall — always speaking comparatively, of course (and in spite of the fact that it is conventional to hear of the enormous waste spaces in astronomical structures). I shall keep on speaking comparatively, and omit repeating the obvious and unimportant and unessential quantitative fact that a short astronomical distance is a long terrestrial one. We are cus- tomarily expected to marvel at astronomical figures — espec- ially velocities. The truth is that to anyone with a fair judgment of proportion, astronomical velocities are compara- tively slow. From analogous points of view it is just as diffi- cult to detect the slow motion of the solar system as it is to detect the slow motion that is the growth of a plant. So it is to be hoped that the old-style popular writers on astrono- my will stop tacitly inviting that we stand like rustics, with our provincial mouths ajar in wonder, whenever they mention a comparatively negligible number and tell us that it is mar- velous and stupendous — for relatively it is nothing of the sort. The psychological effect on themselves is obvious. §108. a. The last section gives in rough outline the de- scription of our galaxy. All other astronomical structures, as well as atoms, etc., are of the same general nature at the youthful stage of their lives. Experimental evidence of the consistency of that description is given by the remainder of this chapter. There are such a number of things in the gal- axy, and the changes in it are usually so nearly imperceptible to us, so slow are its movements, that the experimental ob- servations and measures are rather unreliable. So we shall mostly use the solar system whirl instead of the galaxy. b. Many astronomers are inclined to consider our galaxy as being a well-developed spiral nebula, with the solar system at S, as in Fig. 108b (the figure is adapted from Arrhenius s "Destiny of the Stars"; cf. p. 45ff). So far as I know, the galaxy may be considerably broken up, as indicated in that figure; but I am inclined to think that the Milky Way IP I m- •F' K.y i .{ Fig. 108b. t' Fig. 107e. directly appears to be so well-formed as to indicate the better preserved whirl of Fig. 107e. However, as that is not reli- able proof, and as there are no other facts that I know of to decide the point, what I shall do is to describe our nebula (including details of the solar system) in a broad way — cov- ering all the probabilities, which are innumerable. Then, if the astronomers by further and more complete observations of stars as they actually are, find our galaxy to be of the character shown in Fig. 108b, that will be a special case of our description. My personal guess at the quan- titative character of our gal- axy and solar system is that the galaxy is a rather regu- lar spiral that tends towards being an annular nebula, with the solar system rather near the center, as shown in Fig. 107e, which I shall call a regular spiral or a whirl spiral. The spiral shown in Fig. 108b is more like a spiral that would result if two large bodies or clusters pulled each other apart by gravity, and I shall call that a gravity spiral. As we shall see in the next two paragraphs, there can not be essentially different sorts of spirals : the difference is quantitative, and each kind is partly the other kind. c. I may here briefly anticipate some conclusions, in or- der to state what are the two general kinds of nebulas into which I arbitrarily divide the eight sorts in §107a. If we had a nearly homogeneous fluid whirl, practically as our ex- perimental whirls may be considered to be when first formed, or as an ether whirl containing only cells would be, then as we have seen, it would wear out or grow old by giving birth to lower order whirls, and those whirls would tend to collect into spherical solids" like the earth. We shall see that in detail later. (l) During the process of wearing out, that fluid whirl, if rather closely surrounded by whirls of the same order, would be what was called a regular or whirl spi- ral. Or, some large secondary of the whirl, surrounded by other secondaries, would pass through the stages of such a rather regular whirl or spiral. Or, finally, if two rather fluid whirls combined (as in §102f), the resulting single whirl, if surrounded by others of the same order, would pass through the stages of a whirl spiral — as shown in one stage in Fig. 107e. But on the other hand, a whirl, which had §108c XII Two UNIVERSE 118 reversed or aged or degenerated" into a spherical solid like the earth (with usually one or more solid satellites like the moon), might approach fairly close to another similar whirl. (That would be possible because the field of that solid would be comparatively weak, as we shall see. I do not think that such approach is often probable, but I do not know the quantitative chances: cf. the remainder of this chapter.) In that case the two solid whirls (never perfectly solid' — always there would be some sort of 'atmosphere' of satellites, etc.) would combine by pulling each other to pieces. Some of the pieces would probably stay rather solid' ; most of the pieces, for reasons which we shall see, would evaporate into ethei — i. e., break up into pieces as small as electrons, etc. The resulting single whirl would be what I call a gravity spi- ral nebula (because ordinary gravity was the major force pro- ducing the result). That whirl would become, more or less quickly, practically identical with a fairly aged fluid whirl. At some age of each sort of whirl or nebula they can not be distinguished apart. The differences occur in their youths. So the differences in the nebulas are quantitative differences of past history. That history determines the kind of spiral. d. We could say that the rather fluid regular whirl is chiefly dynamic, and that the rather solid sphere is chiefly static, and we have the same quantitative distinction. As before, it obviously is not possible to have in any pluralism a perfect fluid, or a perfect solid. That is equivalent to what we saw in §80 concerning no perfect static or perfect dy- namic phenomena : we see here in general that there can be no essentially different kinds of nebulas. And we shall see that that is equivalent to saying that there can neither be any gravity alone, nor chemical affinity alone; both act to- gether in astronomical structures, sometimes one and some- times the other temporarily having the greater effect (IX). e. In a fluid or whirl spiral, in the stage pictured in Fig. 107e, chemical affinity has perhaps the greatest influence with respect to the whole whirl. Inside our solar system as it is now, gravity has the greater influence with reference to the larger bodies in it, or with respect to the whole whirl. As is now rather well known, the efficacy of gravity pull has in the past been considerably exaggerated. The orthodox nebular theory of Kant and Laplace ("Ency. Brit.," Art. Nebular Theory") substantially makes gravity the whole (i. e., infinite) cause — which obviously is correct as relig- ion, but is pure nonsense if claimed to be expression in plu- ralistic or scientific everyday language. Because gravity pull has been conventionally so much overemphasized I am here more or less forced to make a somewhat dispropor- tionate amount of remarks about its completing factor, chemi- cal affinity (or electric or magnetic forces, as they are more usually called in this connection). The reader will note that rhetorical result, needed temporarily now. §109. a. We may briefly consider the general origin of the galaxy, although it will merely be a concrete" repeti- tion of the previous proofs (X, XI) that any splitting of the universe into parts implies, by our Trinity language, a struct- ure. If we like, we may commence with a perfectly fluid ether universe — perfectly static or perfectly dynamic, — and existing as anything, or nothing, just as you please. If we consider it pluralistically split in any way, then by our usual language we introduce time and space as methods of naming the results, and the results are finally atoms, which by our human criterion have difference surfaces at V\. Some par- ticular order of those whirls in infinite regress would contain a particular whirl which is our galaxy. Its existence implies us, with our V\ criterion; and our existence with that cri- terion implies that whirl. Like the chicken and the egg, neither comes first," except by purely arbitrary agreement as to what is precisely quantitatively a chicken, and what an egg ; and that agreement can not be made exactly in a finite number of words. So ultimately the chicken and the egg are identically the same (and we and the galaxy are identi- cally the same), and are the universe. LikeTopsyin Uncle Tom's Cabin," the galaxy whirl 'just grew.' This paragraph consistently states what grew ultimately means (§S5f). b. Topsy was expected to state her immediate parents — to talk in finite, Many terms. So we too may drop that tacit infinite time of the last paragraph, and undertake to state the finite origin or parentage of our galaxy whirl. I am unable to find any observed data which will give that parentage. Or, the whirl may not have had parentage,' but may be the result of a marriage or joining of two large spherical solids' (those solids,' with their satellites, are us- ually called star clusters or systems) which had previously been born perhaps. I. e., our galaxy whirl (l) may be a secondary of some larger whirl (an electron of that larger atom) ; or it (2) may be that (A) two large suns, or (B) two clusters that were not so far condensed into mostly only two such suns, or (C) two more fluid whirls, united to make it. c. Both those general possibilities could produce our galaxy whirl. Obviously, our machine is in principle per- fectly reversible — going equally well down" or up" in order of whirls. All we need to note is that whatever the actual origin was, the primary whirl that gave off the new secondary, or the old whirls which united to form a new one, was or were partly fluid and partly solid, so that there was at all times no perfect characteristic or property (no egg' that was essentially and absolutely egg and nothing else), and no absolute homogeneity or heterogeneity of any sort. (We shall see that those same processes apply precisely to the birth of biological organisms; §146). It may be observed that this investigation of the origin of our galaxy is perfectly general in principle. Consequently, it will apply as the description of the origin of any structural part of the universe:- to a chicken and an egg, atoms, electrons, etc. ; it will apply to (say) chairs, provided that the man and his tools and materials which produce the chairs are considered as partly joined together during a given time — as they are. d. If we tentatively accept the guess in §107b that the galaxy and the solar system are both roughly whirl spirals, then a fairly reasonable guess as to the age of our galaxy would make it as a minimum a trillion of our years (l0 12 years; I use the American and French style of numeration) ; the solar system would as a reasonable minimum be a number of billion years old (say 50 billion), counting from its first rough splitting off from the Milky Way filament. However, both might be a million or more times older than that, as we see later. Possibly the astronomers may readily find data which will give more definite guesses at the ages. If the galaxy is a gravity spiral, then I am unable to find any rea- sonable basis for a guess, except that by geological observa- tions the solar system must be a number of billion years old ; as will implicitly appear, the galaxy must be older. §110. a. We shall begin to get more explicit proof of the last two sections by considering the birth and history of the (our) solar system. Suppose we have the galaxy filament (the Milky Way) somewhat as shown in section in Fig. 107e. The difference surface would be continually subjected to varying velocities (equivalent to pushes and pulls) from inside and outside the filament— every phenomenon that happened in the universe would in time be registered thus on the gal- axy difference surface. Any push and any pull would form a whirl in more or less completeness (§§101-2). Those whirls would form in harmonic sizes (or else be quickly destroyed or assimilated' by sizes which did have such proportionality) : 119 UNIVERSE Two XII §110e see Index, Harmonic periodicity." Consequently, the difference surface would continually form whirls of various sizes. The smallest made in considerable number would probably be the new-born forms of our atoms; those which were not in fairly good proportions would be destroyed, but in such disturbed conditions atomic weights would vary widely in several ways from our present weights. For rea- sons and facts We shall see, those atoms of a certain atomic weight or size there, would, if it were possible to transport them to our laboratories without changing them, be consid- erably different from our analogous atoms in every property. I. e., C atoms there would not quantitatively be much like C atoms here; yet the collection of mutual L and T relation- ships possessed by the carbon atoms would, relative to each appropriate location, be practically measurably identical (not exactly identical; if exact identity be required, then the names of elements ' promptly require to become an infinity — as may be readily seen from the fact that any change in conditions changes the spectrum of any element"; XIII). b. The small or atomic whirls would have difference surfaces of a velocity which of itself gives visibility, or nearly so (proof:- we see the Milky Way ; also, the rest of this book). That velocity would be of the same order as V\ (it differs somewhat, as those atoms are not in an environment like our neighborhood ; cf. XIII). The atoms would also in most circumstances be visible by diffusing, reflecting, etc., light that came from atoms in other places that had light- giving difference surfaces. The Milky Way atoms might locally be in sufficiently dense and extensive clouds of them- selves to become dark, if their difference surfaces were not at a visible velocity. But obviously, without going into the lengthy details which are implied in XIII on light, we may take a short cut to the conclusion, and see that the chances are that usually there will be enough visible atoms about the Milky Way surface (or the difference surface of any galaxy in our neighborhood, or any large whirl in those whirls) to make the outline of that surface visible to us. We see more of the details and proof of that under zodiacal light (§12l), and in §111 and XIII. What we particularly need to get at now is the meaning of the " temperature" of those whirls that are new-born at the galaxy difference surface. c. Those new atoms (and other whirls) would have plenty of room — they could not be rubbing each other hard, but would have well-formed (newly-formed or young) fila- ments, and comparatively extensive fields. If we could stick an ordinary thermometer among them, its expansive sub- stance would almost certainly freeze. For the temperature" of the "gas" which those atoms ordinarily form is almost "absolute zero" in spite of the fact that they are glowing — "glowing hot." The temperature of the ether which is the difference surface of the atoms is high" — for its velocity is near V\ (if we could get our whole thermometer in that sur- face zone of ether, it theoretically would indicate nearly an "infinite" temperature: any actual thermometer in the usu- al sense would explode into electrons and smaller pieces). But that ether is obviously very small in amount compared with the 'insulating' slower ether of the fields. Our ther- mometer would come into contact with the comparatively very slow difference surface of the fields, and there would be nothing in the rather free environment near the galaxy differ- ence surface to 'smash' that high-velocity ether close up to the atoms of our ordinary thermometer and hence the tem- perature" would register low. There would be some rad- iant heat; but radiant heat in quantities sufficient to affect the thermometer very perceptibly can come only from a col- lection of considerably smashed together atoms. In brief, to sum up what has been said, the entropy of those atoms is nearly zero (by our standards) and consequently one of our thermometers, which requires an average entropy of our environment before it will register an average tempera- ture, simply would register almost no temperature of the whole gas. (As a matter of fact, for reasons later implied, the or- dinary thermometer will itself most probably begin to break up radioactively in such an environment. And precisely the same low temperature will be registered when atoms are very strongly pressed together, with high entropy, as inside the earth ; it is the opposite aspect of the wide departure from the average conditions we use as a standard; cf. §§122, 120.) If we devise some method of forcing some of that dif- ference surface ether that is at a temperature" of nearly infinity" close up to the atoms of the expansive substance of our thermometer, those atoms will locally radioactively explode, as implied above — and the exploded atoms will then tend again to have a temperature, relative to the origi- nal thermometer, of nearly zero. d. We are so accustomed to judging heat anthropocen- trically that it is difficult at first even to understand the last paragraph, which (except for the 'old heat' inside the earth) describes young heat' instead of our everyday middle-aged heat.' But it can be seen at once that the paragraph is a concrete summary of the theory of heat in §§78-81. As we see additional details of heat below, the last paragraph will become more intelligible. All we need to grasp now is the general fact that temperature is an intensive factor (which means roughly that if we want high" temperature, we must get high-speed ether at the spot where there is to be such temperature), and entropy is the extensive factor of heat (which means roughly that there must be an amount of ether which will both build up a properly supporting struct- ure about that point and also maintain the flow to it). e. I have described atomic whirls as being secondaries of the galaxy whirl. There may be such a relationship of periodic sizes that the galaxy difference surface can not give off such comparatively minute whirls directly as secondaries, but must in the ordinary course of quantitative events give off large secondaries of (say) the order of the solar system, and then have them give off atoms as tertiaries of the galaxy. Or in the same way atoms may be an even lower order of whirl with reference to the galaxy as a primary. If so, it is merely a step by step quantitative process, which makes no essential difference in the brief description we need. For rhetorical simplicity I shall make the experimentally unguided guess that the galaxy difference surface gives off secondaries that range in size from electrons and atoms to solar system whirls: that is valid in principle (§101h-j). If it is not quantitative fact at a given time, then future closer observation of details and investigation of mechanical size-relationships will show what is so at a given time. But even then, atoms would be formed near (not in or of — as stated above) the Milky Way surface; and the actual phenomena and subsequent descrip- tion would be quantitatively about the same as that I give, and logically identical. The same general remarks as to the order of whirls will apply usually to my description of them. In short, I can not get enough data to make a reasonably accurate guess as to how many generations there are usually between galaxy and (say) electrons. It is pre- cisely the same as being unable to guess how many genera- tions there were between Darwin and a given one-celled ancestor of his ; the actual facts are that by following differ- ent lines of intermarrying ancestors there nearly surely would result different numbers of generations; and also there is no accepted arbitrary agreement as to what does constitute one generation of one-celled organisms. But obviously, with electrons and with Darwin, the essential thing is that there §110e XII Two are generations and changes of order or species, even though the numbers or measures vary with the point of view. So it is obvious that in the description of all phenomena I give, infinite variation of quantitative detail is possible, and does occur in varying conditions : there is no exact science. §111. a. Thus we have the galaxy difference surface outlined by atoms. That result happens only when that sur- face is in fairly stable equilibrium. If there were rapid changes in the galaxy whirl as a whole, that outlining would disappear. Our galaxy may move about 250 mi/sec (§107g) — and that, though slow, seems to be enough to cause the galaxy field difference surface to clear itself pretty much of secondaries of all sorts, so that the outer field surface is not appreciably outlined (cf. §112a). The same thing has hap- pened to most of the solar system; i. e., its difference sur- faces are nearly imperceptible, except what are now the main difference surfaces of it, such as the surfaces of the sun, planets, etc., as we shall see. Below we see enough details to make those galaxy phenomena clear. b. And thus the galaxy filament surface continually gave off secondaries into and out of the filament (it still is doing so). We may guess that about 50 billion years ago there was from some cause a knock, or addition of energy, given to the galaxy field, so that a whirl which was to form the solar system was pushed out of the filament at C, Fig. 107e. That unbalanced knock, which was almost negligible compared with the size or energy of the galaxy, reached its fair equilibrium, or was balanced, by the birth of that sec- ondary, the solar whirl, according to the mechanics given for Fig. 98w and in §101e. For several reasons which we shall see, the solar system virtually lived faster than the galaxy; also, we can observe it better. Hence, I shall discuss its general history, and thus imply the further detailed descrip- tion of the galaxy whirl. c. As a reasonable guess the solar whirl would be at least several centuries a-borning, and would, as a fairly sym- metrical whirl like our soapy water whirls, start traveling out from C to the right (more or less in or parallel to the galaxy filiar plane) into and through the outer field of the galaxy at a speed of say 300 to 400 miles per second — probably more. This solar whirl would contain in its field ether a lot of glow- ing atoms, and also quite probably a considerable number of what we may call condensations (§114) — or more explicitly, planetesimal condensations. Also, it would be born into a disturbed environment; its very birth was due to asymme- tries or lacks of equilibrium which locally were comparatively marked. Hence, the solar whirl at once began to form sec- ondaries and wear out (i. e., live") much more rapidly than the larger galaxy whirl had in general been doing, or does now. The galaxy whirl is apparently still virtually rather young, while the solar system is virtually middle-aged. In the periodic table (App. B) column (He, Ne, A, etc.) are virtually young atoms; column VIII (Fe, Co, Ni, etc.), virtually old; and column IV (C, Si, etc.), middle-aged, and fairly stable like our earth, which is typically middle- aged, tending to elderly. d. Before proceeding to follow the solar system from that guessed-at beginning, we may note the possible varia- tions in its birth. In the first place, observation seems to indicate a thicker collection of solar systems in the center galaxy field where we are now, than outside (there may be a thick collection in the plane of the Milky Way outside, as at M, N, Fig. 107e: as we shall see, theoretically there is a tendency for such a collection to form, and astronomers with recently improved methods for measuring star distances are rapidly collecting data that will settle this and similar mat- ters). If that apparently thicker collection in the center field UNIVERSE 12 ° is a fact, it then follows that the galaxy is moving rather steadily and is gaining in speed, so that usually the knocks are negative and the solar whirls are now mostly born into the filament, where by rapid travel they remain virtually of the same density and are hence retained. A whirl born into the filament would encounter a spiral fluid motion of rotation and hence would revolve chiefly about the filiar axis, and with the galaxy filament would also revolve about the galaxy main axis PP'. That secondary in the Milky Way would it- self revolve and rotate about its own axes, and proceed to condense into a solar system similar to our present one. Those solar systems would then interact, partly by affinity and partly by gravity. Those general interactions may be fol- lowed through in detail by analogy with what will be said of the solar system. We on earth are not yet appreciably af- fected by what happens inside the galaxy filament; we prob- ably shall be so affected some day, as what happens there is likely to be the prelude to the Many end of this astronomical speck, the earth — as will implicitly appear. e. And there could also be an indefinite number of vari- ations as to the relative locality on the filament surface where the solar system was born. Birth at a different place would give quantitatively a different subsequent history — consider- ably different if the birth had occurred at say B, Fig. 107e, instead of at C. Qualitatively, the histories would be the same; all history must repeat itself qualitatively, as all prin- ciples are identical ; but no history can repeat itself quanti- tatively exactly (all that being obvious truisms ; Part One). So the history given according to the quantitative guesses I have made will implicitly contain all those unending varia- tions (and those following from other possible origins of the solar system mentioned or implied later), and the interested reader may fairly easily work out as many of such variations as he likes from the following. The most probable place of birth of larger whirls would be on the outer side, as at C and D in the cross-section. That is so because obviously the field is least stable there : in all other places the field in greater degree supports itself more steadily. Consequently, any really large whirl would, as a mechanical truism, tend to be born on the outside. As we see in the next paragraph, the same mechanical principle will tend to produce spiral nebulas. However, the solar system is a comparatively small whirl; hence, there is no great probability that it was born at C unless it was born (as it may have been; cf. §112d) when the galaxy was quite young. §112. a. The young solar whirl starts out to the right from C, as seen, and encounters a fairly vigorous upward ether flow in the galaxy field. Consequently (as was seen in §§98w, lOle), it rather soon (say in fifty centuries after it more or less appreciably finishes being born) perceptibly be- gins to move downward along the dotted path as shown in Fig. 107e. Now, if the field had not been relatively vigor- ous (and usually with a somewhat old whirl, or with respect to a large secondary instead of our rather small solar whirl, it relatively is not), then there would not have been enough fairly steady reaction to push (pull) the new-born whirl down along that dotted path. It would have kept in the galaxy filiar plane, with more or less wabbling or oscillation up and down with respect to that plane, depending on the minor asymmetries it encountered. Consequently, it would have steadied into some sort of fairly stable equilibrium while re- maining more or less in the plane, as shown by the whirls M and N. Those whirls theoretically could be tilted in any direction, depending on local conditions, etc. There was in the difference surface from which they were born a component of rotation about the main axis PP'. The second- ary whirl itself would of its own internal energy continue to 121 UNIVERSE Two XII §112d propel itself in that revolution about PP' and for a consider- able time if it were a large whirl; for it would take some time for enough asymmetries to accumulate to stop its motion in that direction and "head" it some other way. Also, as the secondary traveled out more or less in that galaxy filiar plane it would keep on 'spilling' its field (like a comet; §120) until it got into some reasonably steady equilibrium (cf. §11 la). And all those results, with a field not relatively vigorous, would obviously produce the observed phenomena and appearances of a fluid spiral nebula — the large second- aries staying more or less in the filiar plane. The small secondaries would proceed as we shall see in the case of the solar whirl. (There would be whirls more or less on the dividing line between those small' and 'large' secondaries, which would produce a variety of intermediate phenomena.) Also, the large secondary whirls which produce the spirals would, in a considerable length of time (say some hundreds of billion years), condense, and they too would then fall out of that spiral (out of the orbit of revolution around PP ) and shoot around the galaxy filament as a comet (analogous to one of our comets; §120) on a path analogous to the one to be described for the solar system. So it will implicitly appear as we proceed that a spiral nebula, by whirl mechanics, will gradually turn into a star cluster. The star cluster, if let alone (if not too much knocked by an asym- metrical environment) until entropy piled up too high, would automatically break up (precisely a does a radioactive atom ; §§189, 14l) into a largely fluid whirl. Or, two clusters more or less colliding would produce a more or less fluid whirl of the gravity type. The whole process will work in either direction from any stage, and contains infinite possibili- ties. And, as perhaps is already obvious, there is in that process or life never any comparatively explosive or quick or violent action ; relatively speaking, everything always works smoothly and rhythmically and without violence — which means that there is always easily visible continuity, or efficient cause, or least action. If we speak very carefully, anything that may be properly said to be violent or explosive refers to a comparison between different orders of whirls; if in such comparisons we explicitly include the inverse square, verbally even then no violence or catastrophe is apparent. b. As the solar whirl traveled (Fig. 107e), the steadily changing direction of the galaxy field, as it flowed about the Milky Way, would force the solar whirl to change its direc- tion into a revolution about that filament (about the galaxy filiar axis), as shown by the dotted path. The solar filament and field, by their own rotation about the solar filiar axis, Would obviously keep the whirl moving ahead; i. e., at first the energy which makes the solar whirl travel as shown by the dotted line comes mostly from the solar whirl itself; the motion of the galaxy field at that time serves chiefly to direct its path (see par. g). Those fluid reactions are the same as those shown generally in §§98w, lOle, 107e. c. Now, some unusual combination of circumstances may have caused the solar whirl S to move along practically in the plane of the paper through S 2 and Si, as shown in the figure;— i. e., S might possibly have been given off with scarcely any revolution about the main axis PP ; only in one chance in infinity could there have been zero revolution (for a finite time, of course understood), which means not at all. But even if S did move so "simply," only by one chance in infinity could it keep on in such non-revolving motion. (Even if, as in par. a, a whirl wabbled back and forth in the plane of the galaxy filiar axis, without perceptibly revolving about that axis, it is but a temporary substantial non-revolu- tion; for after a time definite revolution resulted, as shown. We are seeing an analogous thing here.) Consequently, S would sooner or later begin definitely to revolve about PP . As a fact, S started out from C with a component of revolu- tion about PP , derived from the spiral in the galaxy filament surface. So as a necessary truism, (cf. §§98o, lOle, concerning spiral motion), S revolves about the main galaxy axis. In Fig. 107e the solar system's spiral path is roughly shown in perspective. That path is neither a perfect or geo- metrical spiral nor a similar helix, but is a combination of both which is forever varying as the galaxy field varies and as the internal processes of the solar system proceed, as may be readily deduced by Bernoulli's principle. Also, the rota- tion about PP might have been in either direction ; it depends upon circumstances — perhaps usually chiefly upon birth con- ditions, although analogously to man, astronomical nurture may under certain conditions take a chief role. [That revo- lution may be considered left-handed or counter-clockwise as viewed from above, and as drawn. Possibly that agrees, as it should, in relative direction with (l) the left-handed revo- lution of the planets, and (2) the arbitrarily drawn fluid mo- tions in the figure, and (s) the naming of the poles of the earth's magnetic field, and (4) the usual direction of twist in the fiber of trees, the fact that man is usually right-handed, has his heart on the left side, etc. But I do not know; see §99b.] All of that is in direct agreement with the fact that the galaxy field has a spiral motion. Consequently, and as a further reaction, the spiral in the galaxy field be- gins to tilt the plane of the solar filament (which is at the present day still roughly the plane of the ecliptic), so that the solar main field becomes or stays more definitely a spiral, and so that the whirl is tilted with respect to the direction of its path as shown at Si and S — the latter being the solar system's present location (exaggeratedly high; §107b). And that agrees with the observed facts about the motion of the solar system as a whole, now. Also, it analogously tru- istically requires that the axes of our planets be tilted just as they actually are. And it further truistically re- quires that the magnetic poles of the earth, etc., be displaced from the rotational poles somewhat; and it is observed that they are so. Those magnetic poles continually vary in loca- tion, which indicates that none of the fields is steady — which is in agreement with no exact science. Similarly, the tilt of the whole solar system would slowly change some, as it encountered varying strength and spiral of the galaxy field. That is a motion of the solar system which has not been di- rectly recognized yet, so far as I can find. d. There are no data known to me which will deter- mine whether or not the solar system in past ages has had time enough [also youthful vigor enough, and-or environ- mental non-interference] to go on spiraling upwards, turning over the top of the Milky Way, until it made one or more complete revolutions in a spiral path about the galaxy filiar axis. Fig. 107e shows just a little more than one-half of such a revolution — and I have guessed that so much of travel oc- curred in 50 billion years. But there may have been many previous revolutions of the solar system about the galaxy fila- ment, so that it may be nearly as old as the galaxy whirl — in fact, it is possible that by the calendar (by our arbitrary L and T verbal forms) the solar system may be older than the galaxy (but improbable) :- for it may have been picked up by the galaxy as a galaxy comet from another galaxy (cf. §120), where it could have been born (or not) as described above (the heat of the sun will indefinitely survive, depend- ing on galaxy conditions, as we shall see, so that it is possible that the solar system has been long wandering around as more or less a particular structure, or galaxy electron, from one galaxy to another). As a somewhat rash guess, based intuitively on the present smoothness of the solar system, §112d XII Two my personal opinion is that our system has not made a com- plete revolution about the galaxy filiar axis, but has had a path somewhat as in Fig. 107e, although directions may gen- erally be reversed from actual fact in that figure. e. I shall here complete the general description of the path of the solar system, although parts of the description anticipate the statement of the concrete evidence. Such evidence is implicitly given below in the description of inter- nal details or processes of the solar system. f. As the solar system moves around to the central gal- axy field in Fig. 107e, it obviously encounters a stronger and stronger spiral reaction from that field. Consequently, the path of S flattens out (the helix pitch becoming less, the path then expanding spirally). It is quite likely that now S is revolving around the galaxy axis PP' almost in a plane, without helixing or corkscrewing up very much. It is some- what probable (because S is so small) that S has, or nearly has, used up its energy of self-propulsion in an upward helix, so that the galaxy center field has made it spiral downward for a while. Then in such a case, S would wabble or oscil- late up and down with respect to the galaxy filiar plane in a more or less circular orbit around PP — which is mechanically identical with the possible wabbling of a large whirl in an orbit on the outer side (par. a). If the galaxy remains in a fairly steady environment, obviously such an oscillating orbit will finally be taken up by S, regardless of how many times it may have revolved around the Milky Way (unless S pre- viously gets assimilated by some other structure). Also, as seen in par. a, all other secondaries finally get inside the hole in the galaxy doughnut and take up such an orbit. Hence, it then becomes inevitable, assuming sufficiently steady en- vironment for the galaxy, that the systems in the central field will get crowded and will proceed to combine plan- etesimally into a central sun, as we shall see in the descrip- tion of the formation of our sun. It is most likely, however, that before that happens (before the galaxy turns itself into a system similar to our present solar system — which would re- quire perhaps some decillions of our years), the galaxy will collide" with (which usually means "side swipe") another galaxy — both having become somewhat elaborate star clust- ers in that process of condensing (so that their fields have become comparatively weak and give less protection from such collisions). So the "end" of the solar system will prob- ably be its combining with some other system, in that pro- cess of galaxy condensation. By the theory of chance (used in our ignorance of the actual pertinent facts), our system is likely to last more or less as it is now for some billions of years. The human race will nearly surely be wiped out by some comparatively minute changes in climate long before any such combining takes place, as is implicitly shown in the re- mainder of this section. g. We proceed now to consider broadly the climatic variations in the solar system and galaxy ; the minor varia- tions of climate — those on earth — are discussed in §122. As S comes around under the Milky Way (Fig. 107e), it is obvious that what chiefly determines its path is the re- action of its field with the galaxy field. I. e., S is controlled mostly by affinity there, and but little by ordinary gravity. It is further obvious that the energy variations or asymmetries of the galaxy field ether flow which S encounters furnish the general, comprehensive cause of the variations in the internal growth of S. In general it is obvious that at first S uses its own energy (more accurately :- potential) largely (being of new-born, high potential), to screw itself along its path, in the direction opposite the flow of the galaxy field. As a gen- eral rule, it is obvious that such a wearing out or aging of S continues until such time as S oscillates near the galaxy filiar 122 UNIVERSE plane (as in the last paragraph), although there could be temporary reversals of that process at any time. We ^see the details of that wearing out or condensation later. We may note now that in general the reactions of the fields may be considered as regulating the speed of the various difference surfaces inside the solar system. And those speeds or poten- tials determine what we know as temperature, and the gen- eral phenomena of those difference surfaces or temperatures are bunched together under the name climate. Obviously, any variation of interaction of solar and galaxy fields modifies all climates in the solar system in proper proportions. Ordi- narily of course we speak of the sun as controlling our earth climate (§122); we here merely go further back and see what controls the sun climate — in fact, makes the sun itself. We could go still further 'back r or up and show what con- trols and modifies the galaxy field (and so on in infinite re- gress), and say that that controls our climate; but the principle is always the same (§110cd). h. As S starts off on its dotted path we have seen that it begins to revolve about the galaxy axis PP . Now, as the galaxy is not a perfect or symmetrical structure it immedi- ately follows that the revolution of S around PP is eccentric. I. e., S will approach closer to the Milky Way on one side of PP' than it does on the opposite side. As a result of that rhythm or overrunning (analogous to the eccentric orbit of the earth, say) there will be a corresponding rhythmic varia- tion of energy of interaction of galaxy and solar fields (analo- gous to the oscillations mentioned in the last paragraph, but on a generally smaller scale), and hence of the climates of bodies in the solar system. One side of the rhythm would be a rather warm geologic age and the other side would be a cold (glacial) age. I shall here proceed to write on the quantitative guess that that rhythm has produced the observed glacial ages; but obviously, the oscillations with respect to the galaxy filiar plane would always be present in some de- gree and would be a second general cause of large climatic variations, in a rhythm superimposed on the rhythm due to eccentricity of orbit about PP'. Similarly, it is obvious that the fairly near approach of our system to another solar system (say as close as a light year) would cause an appreciable varia- ation in climate. And an irregular variation in climate could be caused by marked variations from smoothness of the Milky Way filament as S travels past them in its orbit; per- haps that is actually the most efficient cause of conventional glacial ages." A geologic time scale of the earth, prepared from orthodox sources by H. F. Osborn, is repro- duced from his "Origin of Life" as Appendix C (it is put in an appendix so as to be easy to find, it being a useful table). According to Sollas ("Age of the Earth," 285), there are observed to be at least three general glacial ages — "once at the beginning of the Cambrian ; again, and more evidently, during the Permian period ; and yet once again in times comparatively near our own," and observations show that three times there were intervening periods with climates con- siderably warmer than now. According to Osborn's chart the time intervals between those three general glacial ages are roughly 18 million years for one, and 16 for the other. i. If we make a guess that the diameter of the orbit of the solar system around PP' is something like 100 light years (that is probably too low a guess; cf. §107e), and that the system moves in that orbit at an average speed of 18mi/sec (that is probably too high), then we find that the length of a glacial year that is due to eccentricity of orbit would be about 3^ million years. That does not agree with the 18 and 16 millions of the last paragraph. However, there are traces in recent times of six glacial advances" in North America ( 'Ency. Brit.," xii, 59), and it is quite possible that each of 123 UNIVERSE Two XII §113b those is a mark of a glacial year or revolution about PP'. If that is a good quantitative guess, then orthodox guesses at geological time (those given in Osborn's table) have, with too much deference to Kelvin's bad guesses as to how long the sun could stay hot (he had no correct principle on which to base guesses), been entirely too small (cf. "Ency. Brit.," xi, 65 Iff). But we can get figures that seem discrep- ant in the other direction. According to Eddington ("Stel- lar Motions," 26l), Charlier finds the node of the "invari- able" plane of the solar system on the plane of the Milky Way to have a motion of 0.85 seconds of arc per century. If we assume that such invariable" conditions actually do give roughly that average motion through a revolution of S about PP , then a glacial year would be about 370 million years, giving the sun's orbit roughly a diameter of 10,000 light years, if we take the same speed in it as before. j-k. I have included those badly discrepant guesses to show how uncertain and unguided by consistent principles present geological and stellar measures sometimes are. The obvious facts are that the revolution of S about PP is rather irregular, but as it takes several million years to complete a revolution the irregularities are not yet perceptible to us ; and that there are other rhythms in its orbit which probably modify the glacial ages due to that revolution. Further, an oscillation of S with respect to the galaxy filiar plane would obviously make the orbit itself vary very considerably in size. And the Milky Way is itself observably irregular. And the orbit of S would have precession in the minor degree that "gravity" applied. Also, it is obvious that every time the solar system passed fairly close to another system, there would be a variation, as mentioned. Also, it is entirely pos- sible that the solar system in its orbit about PP is so distant from the Milky Way that whatever eccentricity there may be in the orbit makes no perceptible difference in the climate, but that some of the other causes are efficient in producing glacial ages. Out of those several possibilities of vari- ation, and some slight knowledge of geologic speeds, I intui- tively judge that the time durations given in Osborn's table ought to be at least three times longer in the cenozoic, at least ten times as great in the mesozoic, and twenty or more times as great for the remainder, with perhaps 40 or more billion years for ages before the archean. 1. The "existence" of the human race obviously de- pends primarily or truistically on climate — for climate is simply the general name that implies certain conditions of dynamic equilibrium. If conditions are too much out of equilibrium the race as we know it will of course perish (or change enormously) ; if conditions are sufficiently stable a man could live almost indefinitely (see §123 for that consist- ent, possible "fountain of youth" or millennium). Any "end" of the race implies the entry of the solar system into an environment somewhat different from the present. Such a change could occur by our running near another system; or by running into a considerably changed part of the galaxy field (or by some analogous internal change in the solar sys- tem with reference to our earth and its field). However, a little consideration will show that no such marked change can rapidly occur — we are 'protected' by affinity or fields, and are not naked with a lone gravity. We would obviously take on such a change almost imperceptibly, and die off slowly during several generations if it were going to become too great for the present sort of race, and intelligent astronomers could predict the approach of any such end for thousands of years. Obviously, the solar system is supported and main- tained chiefly by the galaxy field (mostly by affinity, and only slightly by gravity) in a fairly steady equilibrium that may last without perceptible disturbance for billions of years. So there is no need to worry about any end of the earth. As indicated, an actual end would probably be so slow as to be perceptibly painless. Also, any probable change of cli- mate for the next ten thousand years could be met, by an intelligent people, by building suitable shelter. The rain will continue for a while to descend upon the just and the unjust, and the unjust will continue to flourish except for the process of slow suicide by stupidity which they practice (as we see implicitly in XVIII, XIX). Finally, of course the solar system will combine with some other system; and the race will perish some time before that begins very percept- ibly to happen, provided we do not detach the earth from the system and sail off to a safer environment; theoretically that is easy enough to do (§123). m. It therefore follows that if the solar system has ever made a previous revolution about the Milky Way (around the galaxy filiar axis), it is likely that the climatic conditions re- sulting eliminated much life that may have previously flourished. Hence, it should be kept in mind that there is a possibility that this earth has previously been peopled by a human race far more conscious (i. e., intelligent and defin- itely religious) than we are. So when in this book I speak of human beings, unless otherwise indicated I mean the ones on this planet that are included in the present time sequence of history, and I neglect some possible previous race(s) on earth, and races on other planets. They are all essentially the same, of course; but historical (i. e., quantitative) facts that apply to us, obviously do not definitely apply to those others. But even if S has made only the part of a revolution about the Milky Way, as in Fig. 107e, it is most probable that on a number of occasions conditions became sufficiently stable to permit primitive life" to start spon- taneously" (§144) and continue for possibly a million or so years, and then be wiped out by some too great change. That is all the more probable when it is considered that this earth has never had a molten interior in the conventional sense (§119, etc.); quite likely the surface has been more or less molten on occasions even after it became rather large — it is now so, locally, as in volcanoes (and the seas and air are molten). I. e., geology' very probably began all over again, so to speak, several times. We could rather positively find out (by principles analogous to those shown with respect to meteors, §120), and get the previous history of the earth fairly well, by digging it completely up — examining all of it. I judge that it is not worth while to do that. But perhaps the astronomers will in a few years, by plotting the paths of stars, figure out our history fairly accurately for several hun- dred million years back. At any rate, it is obvious that ge- ology and astronomy have barely scratched the surface of history, and that geology can stop skimping its time . §113. a. We now begin to follow through the internal processes of our solar system. For some of the details of those processes I shall shift to a description of precisely analogous processes in Saturn, in comets, and in meteors, where the evidence is clearer. Such details will apply analo- gously to any whirl, depending on relative quantitative con- ditions. The chief new point to be considered is that in the virtually older solar system gravity is now of more importance than affinity, and we have reverse whirls, or solid or spheri- cal whirls, like our earth. b. As soon as gravity does begin to be a rather effective force the processes become something like those asserted by the old nebular theory. That theory in effect used only a force of attraction, or gravity, explicitly. So formally it tru- istically would not work : for any positive language requires at least two parts to a machine (Part One), and Kant's start- ing nebula was just a single condensing ball, and it was then §113b XII Two impossible, even as a truism of his own dualistic logic, for it ever to become anything else. As a matter of actual fact, he tacitly did use an opposing force which he called inertia or centrifugal force. But he failed to be explicit about it, and to show definitely that it must be handled, logically at least, as this book does it. There is nothing wrong with the old nebular theory if that centrifugal force be consistently used. If it be, we shall promptly get an infinite regress, or mass varies with velocity, or an ever-varying machine of two explicit parts like our whirl and filament. For instance, Bjerknes ("Fields of Force," p. 10) is explicit about the same thing the nebular theory is mystic about, thus:- Any body which participates in the translatory motion of a fluid mass is subject to a kinetic buoyancy equal to the product of the acceleration of the translatory motion multiplied by the mass of the water [fluid] displaced by the body." That is the same as saying that mass varies with velocity ; and it is concretely exemplified by the doings of a whirl. So we can say that the nebular theory is quite right as religious lang- uage ; the difficulty with it is lack of pluralistic positiveness. For details of nebular theory, see "Ency. Brit.," xix, 333ff. c. Several men have with rather explicit validity worked out the gravity condensation of the solar system, and showed the detailed errors of the nebular theory. Chamberlin in "The Origin of the Earth," has perhaps done it best. Chamberlin is such a first class all-'round man that I think his book is worth reading merely from the point of view of having the pleasure of looking at such a man closely. He uses an explicit machine, consisting of two or more celestial [spherical whirl] bodies — which of course is theoretically equivalent to Reeve's theory (§92) if it be reduced to the ultimate. Chamberlin does not perform that logical reduc- tion : on the contrary he tacitly takes it that the reacting bodies have fields which modify the formerly-orthodox gravity effect — and that is, in general form, equivalent to the whirl theory. The explicit astronomy in his book is definitely orthodox dualistic astronomy which he took over bodily from an astronomer who merely repeated Laplace s dualistic logic. But Chamberlin himself twice explicitly recognizes the effect of fields under the name of electric and magnetic action (ibid., 29, 148), as modifying (and strictly speaking, repudi- ating) that old Laplace astromical logic — or lack of it. d. Explicit points in which the old nebular theory fails to work, and additional details of how gravity collects small bodies (planetesimals, to use Chamberlin's felicitous name) together into spheres such as the earth, when gravity is the chief force acting (i. e., when the whirl field gets too weak to hold the bodies mostly by its strength — by 'affinity'), can be found in Chamberlin's book. Eugene Miller in "The Origin of Our Planetary System" has expressed in an easily readable form a somewhat similar, non-rigorous theory, in which he deduces the solar system from two meeting spheri- cal bodies, now the sun and Jupiter (without explaining the origin of those two). Jeans has worked out the same general idea mathematically — as have several astronomers. Miller makes his spheres rhythmic or elastic or overrunning; hence, his description, which may be considered as a brief but ex- tended application of the well known tide theory of G. H. Darwin is logically equivalent to the whirl theory. But he omits explicit statement of how (mechanically or-and logically) a body can be elastic. To include that, he must explicitly solve the One and Many, and hence become formally identi- cal with this whirl description (§10 If). e. The reader may get from those books detailed ac- counts of planetesimal action, if he wishes. So I shall con- dense to bare essentials the description of the planetesimal processes of the solar system. It is also to later internal 124 UNIVERSE §114. a. We have taken the solar system as a general case, having it a rather fluid whirl with a comparatively neg- ligible amount of condensation of atoms when it breaks out of the Milky Way. It is to be repeated that it might vary from that in an indefinite number of ways, be emphasized that endless variation of the processes is possible. I claim to do nothing more than show typical reactions. On account of the numerous possibilities —millions of perceptible ones,— for brevity I am forced to become rhetorically somewhat dogmatic. But it is requested that the reader remember vividly here that all quantitative assertions are just guesses and approximations, even though the inaccuracy may be of the order of only a second a cen- tury. A difference of that much in the period of the rotation of the sun may have made the difference between there being now an ultra-Neptune planet or not: the solar system is just that delicately poised quantitatively, as we shall implicitly see. We can't tell whether a leaf will fall this way or that in a wind unless we make elaborate measurements that usu- ally are impracticable in the time available. It is a quantita- tive problem : the intelligible qualitative answer is that it will move in some direction if not held. And the solar system is a living being (for proof, see XVI) that perceptibly has far more parts in intricate quantitative dynamic equilibrium than any plant with its leaves — truistically ; as a plant is only a small part of the solar system. b. As the system comes out at C along the path in Fig. 107e it encounters a comparatively rapidly changing environ- ment, and itself has a youthful high potential, as we saw. Consequently, the solar filament begins to break up rapidly — to give off secondary whirls. It probably in a million or so years began to take on the aspect of the whole galaxy whirl as shown in Fig. 107e. I. e., it probably by that time had man} 7 fairly large secondaries as outer spirals (the sec- ondaries would be the knots in the spiral arms of photo- graphed nebulas), and had numerous small whirls that had come around into its central field. The collection of whirls in the central field would obviously constantly increase, as we saw with reference to the galaxy ; for as soon as- a whirl field wears out some, losing some of its affinity factor, that secondary whirl is swept by the solar field into the central solar field. The secondary would there finally begin to os- cillate up and down as we saw may now be happening to the solar system with respect to the galaxy field. But if the secondary keeps on wearing out, then it in turn will finally break up into condensations (like an old, broken-up comet; §120). Or in short, in aging the density of the inner struct- ures of a whirl becomes too great, affinity can no longer sup- port them as a fluid whirl, and by the experiments we saw and obviously as a truism of Bernoulli's principle or of the dynamic buoyancy" of Bjerknes (§113b) they are swept out, the whirl condensing then mostly by gravity. c. Thus the fields of the secondaries in the central solar field themselves become weak, and the secondaries combine, in some of the ways we have seen. Those secondaries ob- viously become more numerous and crowded as time passes, and the crowding accelerates the uniting of them, and the formation of relatively harmonious sizes of condensations (§100j). And with weakened fields, gravity has a greater effect between whirls, pulling them together ("electricity" is markedly or quite perceptibly the quantitative opposite of that; XIV). That force of gravity ultimately in practice or with respect to actual measuring is by no theory or measures Newton's or Laplace's mystical mathematical limit, but is merely what we may express as being the field reactions of touching whirls of lower orders — finally of cells (§108 • Index Gravity"). And that is obviously merely truistic - for as 125 UNIVERSE Two XII §11 5a soon as the whirls show signs of disintegrating, then what we call gravity steps in (the measure of the gravity factor rises as and when the affinity factor falls; Fig. 104b), and makes them hang together in another, 'reverse' way. Therefore, the total universe is now seen, in the most definitely "concrete" aspect, to vibrate or oscillate or exhibit rhythm about a condition of mean equilibrium. And if we observed and expressed our- selves perfectly, then obviously by the principle of least action (§98m), the deviation of the ultimate parts of the universe is zero — which is the physics' or concrete form of the principle that man can not make an error (§25). Or, all things in the universe are ultimately balanced. Consequently, the ultimate ethical law, expressed in pluralistic terms, is that we should be balanced or temperate — consciously so, as we actually in ultimate fact are anyway, and are truistically partly dead, or part men, if we don't see it, don't "be" that way (XVIII). Thus we promptly revert to an inex- pressible One in a very obviously truistic fashion as soon as we put gravity and affinity explicitly together. The keen reader can note that in all this material" description I am constantly on the verge of the One and Many. To use the language of Cooke in his Introduction, only the austerity of the mechanics of our ether cell prevents our slumping into mysticism — which, while highly valuable in its place (index, Rebirth"), is truistically out of place when we are under- taking to talk a mutually intelligible language. d. It can be seen to be a reasonable quantitative guess (in the absence of the mathematical establishment of a gen- eral periodic table), that, inside any collection of atoms and small whirls which constitutes what we call a molar body, gravity and affinity are about equally effective. I. e., in an ordinary molar body there is obviously about average equi- librium, and hence that equilibrium is so hard to upset that there existed before the discovery of unbalanced radioactive substances the erroneous quantitative anthropocentric guess that only a molar body was matter," and that such matter was indestructible. On either side (Fig. 104b) of that equilib- rium which from our anthropocentric point of view is fairly stable there is a less stable condition of equilibrium :- (l) that in which the fields are directly more effective, which is the condition we have been viewing in the solar system so far, and which, e. g., occurs in electricity; and (2) that form of matter in which the fields become comparatively less effect- ive (never wholly ineffective or zero), and in which the parts are held together mostly by gravity, as, e. g. , the planets in the solar system, and radioactive bodies as compared with more stable ones {all atoms are somewhat radioactive, in that all field surfaces give off some secondaries; XI). e. Consequently, whether the worn out secondary whirls be broken up and the pieces swept out of the solar central field, or whether they unite (collide, mostly by side swiping) the result is finally identical :- the condensations or molar bodies are formed. In fact, those different ways of naming the processes are merely different points of view of the same process. E. g., if the whirls are broken up and swept out' of the central field, obviously the condensing is merely delayed, and takes place elsewhere, the condensations being finally swept back into what we may call the central conden- sation, as we shall see. I. e., the central condensations in the solar system produce our sun ; some of the secondaries which get into the central field (as now happens with comets; §120) would be swept out, and would not at once combine with the sun, but would combine with (say) Jupiter; but, if there is time enough, Jupiter itself will finally condense into the sun (if there is not 'time enough,' then the solar system will itself condense or coalesce with another system, so in effect and in principle Jupiter condenses into the sun). So, regardless of the details, the processes of condensation con- tinue — up to a point stated in the next two paragraphs. f. However, at once the opposite effect appears (it act- ually always accompanied the condensation), thus:- When the fields of the whirls get relatively weak, gravity becomes of greater importance and pulls the whirls closer together — two filaments may unite into one; two whirls may alternately thread through each other; or there may be slipping or roll- ing on each other: those indefinitely numerous quantitative ways of condensing give new elements, or chemical com- pounds, or solids, liquids, gases, and various combinations and modifications of those conventional things, ad infinitum. In coming together, the whirls overrun and hence make their field surfaces more energetic, and that produces in effect a single field which envelops the whole condensation (or, the fields may be said to coalesce into one; there being no ab- solutely distinct fields anyway, the two ways of expressing it are equivalent), the condensation and its unit field thus be- coming in principle identical with an ether cell. That ether cell is a 'reversal' of a whirl (§98); i. e., we simply take a new point of view of it (mathematically, we emphasize the other factor of the pair in Fig. 104b we happen to be using one of, so that a numerical increase of it indicates travel in the other or reverse direction on the curve); or we have verbally created that new, unit field, although actually it is nothing more than the summing up of the effects of two bod- ies which start going together and which truistically would verbally or logically keep on going or condensing until they became zero or monistic unless we thus changed points of view, or the trick of naming them (this being the dynamic concrete form of the inverse square law or the explicit going from one order to another). The definite mechanics of that are given in the chapters on light and electricity. There- fore, this summed up effect, or reversed field' of a condensa- tion, by the overrunning of the gravity effects is truistically made more energetic than the weakened fields it replaces, so that for the whole condensation the affinity potential immedi- ately rises and stops gravity s increase. E. g., the earth does not continue condensing' (by falling into the sun), but is supported by its and the sun s field so long as galaxy con- ditions stay fairly steady, revolving about the sun (§184j). g. That is a general statement of the fact that potential remains fairly steady or balanced (there being only a rhyth- mic variation about a mean, due directly to the fact that the original criterion V\ is not fixed or exact, and can not be). Or, it is a logical proof or self-consistent statement in terms of gravity and affinity, that each factor is mutually depend- ent and cannot become either zero or infinity with respect to actual bodies ; in terms of human life, no person (in the us- ual Many sense of person) can be absolutely born, or can ab- solutely die. And it is a little difficult to express and to understand in that general form, for the simple reason that we are in the habit of talking in terms of classical logic and the nebular theory, which explicitly tries to talk about only gravity, etc. So we may at once put the general form in terms of observed facts about the solar system. The sun and the earth are obviously existing condensations. Both are ob- served to have a unit field (it is called electrical or magnetic; cf. §§113c, 121; XIV). Obviously, those fields must modify the pull of gravity. Therefore, regardless of any relative values of those fields, it follows from immediately verifiable facts that our argument or description is self-consistent. As implied, the whole of XIV, on electricity, gives verifiable facts proving this perceptible variation of gravity and affinity about a mean, with a reversal of structure (it is a quantitative fact: not an essential change). §115. a . We therefore have molar bodies — planetesimals §115a XII Two — with weak fields being pulled together in the central solar field. They keep on collecting to form the sun. There ob- viously would be no conventional ' collisions" of those bod- ies, for all are protected somewhat by fields. When mostly gravity pulls two towards each other, obviously the fields as a result start speeding up the spherical difference surface that then forms for each ; and that truistically is an increase of the surface temperatures of the two bodies (that is merely the ultimate and consistent mechanics of the com- mon fact that compression of a substance usually makes it hotter). So it is obvious that the surfaces of the planetesi- mals will be comparatively hot, but their fields, and insides, will be colder. Consequently, the surface of the sun will always be kept relatively hot simply as the result of the re- actions of the solar whirl with the galaxy field. I. e. , so long as our solar system has a certain proportional amount of en- ergy (relative to the galaxy field), then that long will the main bulk of the solar system (which is the sun — the rest of it now amounting roughly to less than l/700 of the mass of the sun) have a surface hot enough to have a general V\. The sun simply is kept superficially hot by the whole gal- axy (and similarly the surfaces of the planets, etc., in their proper proportion). If the solar system tends to accumulate an excess of either affinity or gravity, so that the sun, with its certain relative size, cools or heats proportionally, then, just as in the last section, the solar system itself will con- dense or expand, and keep up the relative proportions and truistically restore and steady temperatures — up to a certain quantitatively critical point, at which the system will change order of structure. Obviously, that is merely another way of stating that the solar system is mostly supported in its spiral path by the galaxy field. So only as the galaxy field around the solar system varies considerably in energy can the temperature of the sun s surface vary much. In short, as the galaxy field as a whole is fairly balanced, espec- ially with reference to small whirls like the solar system, all the bodies in our galaxy, of a size perhaps slightly larger than Jupiter as a minimum, usually have a surface tempera- ture high enough to make their surface atoms visible — i. e., within V\. And that is the quantitative basis on which this description of the universe was started ; hence, the descrip- tion so far is in general self-consistent, as we have circularly come back to that fact. And a direct proof of this paragraph is Adams's observation (I quote from a letter in which he refers to an article in Astrophysical Journal," 45, 1917) that the smaller and less massive stars move more rap- idly than the larger and more massive ones, the comparison being made between stars having similar physical conditions. And that is merely one form of the law that mass varies with velocity, or the astronomical aspect of Bernoulli's principle; or, as Adams puts it, the fact exhibits the principle of equi- partition of energy. b. And all that is obviously merely a particular way of asserting our original observation that everything is interre- lated. We have seen that the sun's heat is thus sustained by the whole galaxy; so there is no fear of the sun's cooling off very soon. The conventional theories of the sun s heat ("Ency. Brit.," Art. Sun") obviously imply the foregoing explicit description ; but they get somewhat confused by lay- ing the explicit stress wholly on gravity — thus fancying that the inside of the sun is hot so that the sun itself is directly a reservoir of heat. We see additional detailed facts confirming this section as we proceed. §116. a. As the solar whirl S travels along its path in Fig. 107e the condensation of the sun continues. Obviously, the central field of the solar whirl is, dynamically, somewhat cylindrical, as the virtually younger Saturn is observed to be 19fi UNIVERSE now in perceptible measure ("Ency. Brit.," Art. Saturn ). That same modification of the figure of the sun, earth, etc., would still apply in slight degree. The exact figure of the earth or any other actual celestial body is not known, and is not exactly soluble. That figure approaches geomet- rical sphericity somewhat; so I roughly speak of spherical whirls. For the conventional mechanics of those figures, see "Ency. Brit.," Art. "Earth, Figure of." b. Obviously, that general mechanics of condensation agrees with the fact that observed spiral nebulas have conden- sations in the center. Also, in our galaxy the condensation has not proceeded so far as to form any perceptible central sun or visible beginning of one ; but most likely the center of our galaxy, on account of the comparatively numerous bod- ies there, looks, from other galaxies, as if there were the usual thick nebulous center — but possibly not; possibly our galaxy it too young yet. Our mechanics obviously not only consistently describe the formation of the sun, but they also agree explicitly with the observed distribution of stars with reference to the Milky Way :- they are thinly distributed at the galactic poles (P and P', Fig. 107e), becoming more thickly sprinkled towards the Milky Way, as observed from our position near the center ("Ency. Brit., "Star"). Also, our mechanics obviously furnish an explanation of the various observed star drifts (same Art. Star"). c. It is observed that the "surface" of the sun (which is fluid) rotates faster at the sun's equator and gradually goes slower as the poles are approached (the equatorial sur- face rotates once in about 25 days, and the polar surface in about 6 days longer). The same condition seems to have been observed on Saturn, and there is considerable evidence that our atmosphere acts in the same way (as we shall see, the sun [etc.] has a "solid" surface like the earth, as it is cold inside: but just as we do not see the floor of the ocean, we do not see that solid surface, except perhaps dimly in the middle of sun spots, and we do not know its rotation time). In the sun, the upper layers of the ' surface" we see (i. e. , hydrogen layers; Ency. Brit.," Sun"), rotate faster than the lower ones, and the extreme perceptible outer layer seems to retain its angular velocity as the poles are approached. Obviously, all those otherwise unexplained phenomena are directly consistent with our description of spherical whirls — or follow directly from Bernoulli's principle applied to ether cells. Also, that explanation is obviously equivalent to the discussion of temperature in the last section. §117. a. The sun when condensing as described would obviously not only acquire a rotation about its axis, of the nature just decribed, but the sun as a whole, by the principle of asymmetry, would form somewhat away from the center of the solar whirl field (i. e., the axis of the sun would not correspond with the solar main axis). Hence, the sun itself would revolve about the solar main axis (about NS' in Fig. 107e, although the center of the sun would be close to NS'), and the primary result of that would be that there would be an accumulated asymmetry which tended to make what was left of the solar filament finally split into practically two large secondary whirls (which process or stage of splitting would correspond to conventional "dumbbell" nebulas). Or, we can equally correctly say that the general unbalance of con- ditions due to the traveling of the solar whirl asymmetrically in the galaxy field (i. e., the start of the solar path in Fig. 107e obviously is asymmetrical with respect to the main axis PP ), would tend to give such a double splitting, while at the same time the same general asymmetry caused the sun to form with its center of gravity off to one side of the solar main axis. Both ways of stating the condition obviously give the same result, being merely different points of view. 127 UNIVERSE Two XII §117f And it can be observed in experimental soapy water whirls that the inevitable asymmetry even in a basin of water that is apparently still has a tendency to accumulate and produce such dumbbell or two-part splitting. b. Parenthetically it may be noted that the infant sun would revolve in an elliptical orbit about the solar main axis. Also, the very young sun would itself at first be composed of many small condensations revolving more or less about each other in orbits controlled largely by gravity ; the sun in that condition is a miniature star cluster. But that star cluster would be comparatively small, and hence would condense rapidly (say in a few million years) and form a structure with chondrules as in meteorites (§120). And the ellipticity of the orbit of the sun and also the ellipticity of the orbits of its parts before it was quite condensed into a more or less in- fant sun, would cause the condensations to sweep out consid- erable space; also, the oscillations of those orbits up and down near the solar filiar plane (roughly the ecliptic) would sweep out a further space; and all those reactions would ac- celerate the formation of the sun. For the details of that roughly described planetesimal condensation see Chamber- lin's "Origin of the Earth." The essential point of the process is that the reactions tend towards the same result. c. To take up again the probable dumbbell splitting, we can see that at about the time the sun begins to be a more or less dense cluster the solar whirl has a strong ten- dency to become a spiral nebula with two rather definite arms. Of course there could have been a number of smaller arms (secondaries and their debris, tertiaries, etc.) previously formed ; also, instead of two arms, the whirl could have completely split into a number of secondaries, forming as many arms. Spiral nebulas of those varying characteristics are actually observed in the skies. And when the solar filament is thus nearly all dissipated as secondaries, ob- viously the filament is also comparatively much weakened so that the secondary fields are weak, and the gravity factor be- comes locally more effective. That gravity factor then ac- celerates the condensing into spherical whirls, which whirls relatively have an effective strong difference surface (e. g. , the hot or high potential surface of the sun), and those re- versed whirls thus bring the affinity of the whole solar system up again, balancing the system with the galaxy whirl (§114c). Thus we again see the rhythm of structure about the One line of no resistance. d. With that increase of gravity action there would be rapidly formed in the central field of each secondary a nucleus similar to the infant sun. Those condensations would form more or less in the solar filiar plane (which is roughly the same plane still :- the ecliptic ; for that data, and for author- ity for other facts I use about the planets, etc., see Ency. Brit.," Arts. "Sun," "Planet," "Planets, Minor," "Jupi- ter," etc. ; for brevity I omit frequent citation of authority). However, a good many of those condensations, especially while they were in the rather sparse cluster stage, would ob- viously have their general outer field get comparatively so weak that the remains of the solar whirl field would sweep them out of the ecliptic, around the filiar axis, into the cen- tral solar field and likely into the sun (cf. §112a). In the past it is very probable that large planets (at least infant planets) have been thus swept into the sun; in the future when we get into the proper galaxy environment for it, other outer planets will be thus swept into the sun; comets now are obviously minor condensations which have had such a history (§120). It is most likely that novas or new stars which suddenly blaze up in a few days much brighter than they were before (and then more or less slowly grow dim) are stars which have thus been hit by one of their outer planets. The general disturbance caused by the reaction of the fields as the planet is falling could account for the minor preliminary increase of brightness sometimes observed in novas. One conventional explanation of new stars is that they are caused by ordinary stars' running into dark nebulas. The objection to that is that the various fields would prevent such a collision, and that the fields would in any partial col- lision be so strong that only very gradual results could occur. If Neptune swung around into the sun it obviously would make the sun blaze up quite a bit, and probably would burn up most of us humans ; but it would not smash the sun ap- preciably, but would be superficially spectacular, like novas. It is therefore obvious that it is possible that the former popu- lar fear of comets was a racial memory from the former days when some comets did do a lot of local damage. Neptune would make a rather large and dangerous comet. But no one need get frightened, as intelligent astronomers could predict such occurrences hundreds of years ahead. e. If the solar whirl started out as a fluid whirl, it is likely that the larger secondary whirl of that possible dumb- bell splitting was the beginning of what is now Jupiter, our giant planet. It is possible, of course, that the sun and Jupiter were two solar systems which approached each other and pulled each other into a gravity spiral nebula, as is tac- itly asserted possible by Chamberlin and others. It is im- probable, however. Certainly it is practically impossible that there were two lone stars, Sun and Jupiter, in the same neighborhood in the galaxy field ; and the combination of the more probable Sun cluster and Jupiter cluster except by extremely improbable chances would have produced a more complicated solar system than ours is observed to be. It is likely that the astronomers already have enough data to de- termine at once the probable actual history as regards that possibility. The actual fact is, of course, that the solar sys- tem was never (except by one chance in infinity) a whirl so perfectly fluid as to contain no structures higher in order than ether cells: always it would start with some condensations.' Analogously, neither could it be a whirl or nebula produced by just two sharp and distinct bodies or condensations. Al- ways there would be fields (affinity) to those bodies, and more or less of a cluster condition which would produce some- thing of a fluid whirl. Chamberlin in effect asserts that; so there is logical identity between Chamberlin s planetesimal processes, and these whirl mechanics in which for rhetorical needs I am deliberately emphasizing affinity. f. The solar system now, so far as has been observed, consists of the sun with four planets (respectively Mercury, Venus, Earth, Mars), then a gap in which there have been seen over a thousand small planets or asteroids (those asteroids often depart considerably from the ecliptic), then the four outer planets (respectively Jupiter, Saturn, Uranus, and Neptune), with various moons, comets, meteor trains, and gases. It is likely that the asteroids form most of what is left of the original solar filament (compare with the "dirt" in Northrup's filaments; §102d); there probably still re- mains a slight fluid motion of ether as a filament there, but its spiral has probably become nearly wholly a revolution about the main solar axis; some such motion might be de- tected by close observation of the orbits of asteroids. When the solar whirl became a rather well defined spiral it is obvious that most likely a number of comparatively small secondaries traveled around the solar filament into the cen- tral solar field. The sun by that time would have been at least a considerably condensed cluster, so that there would have been considerable space around the sun in which there was room for those whirls to survive, and to condense to- gether in a proportionate way, thus sweeping out all that §117f XII Two UNIVERSE 128 space pretty cleanly. That would produce the four inner planets ; it might have produced forty except that the quan- tities happened to be so related by the principles of harmonic periodicity (or here, by the principles of Bode's law; cf. next paragraph, §128, etc.) that there were four. Probably the other and smaller part of the original dumbbell splitting (if there was such a splitting) was Saturn. It would be pro- tected by Jupiter; i. e., Jupiter would sweep out its space pretty cleanly, and would more or less break up the original solar field, so that Saturn lived in a fairly steady and weak- ened solar field, and hence lived very slowly and is now virt- ually quite young — compared with the earth ; middle aged compared with the galaxy whirl. The two known planets now remaining still further out, Uranus and Neptune, are obviously condensations made up of other whirls left in the outer space. There may be a number of outer planets yet undiscovered; it is a quantitative problem not exactly soluble. There are surely some small condensations out there. g. Now, all of those planets (including the asteroids as the averaged equivalent of one planet) may obviously truis- tically be considered to have field surfaces substantially equal in potential — in energeticness. In short, the reason Newton got his form of illogical law is that the planet field surfaces are rather weak and about equal. It therefore theoretically follows directly that, as their orbits are approximately in the plane of the ecliptic (roughly, are 2 -dimensioned), then the proper harmonic periods for the space distribution of the planets would be with radii of orbits related approximately by the ratio 2 — which by the theory of areas of circles (Area= 471-r 2 ), dynamically balances the structure and verbally bal- ances the inverse square law. If we take the number 0.15 and form a geometrical series by multiplying it by 2, we have 0.15, 0.3, 0.6, etc. If we arbitrarily add 0.4 to each number, we have 0.55, 0.7, 1.0, 1.6, 2.8, 5.2, 10.0, 19.6, 38.8. The radii of the planets' orbits (the earth's being taken as 1.0; and roughly averaging the planetoids') are re- spectively:- 0.39, 0.7, 1.0, 1.5, (2.8), 5.2, 9.5, 19.2, 30.1. Obviously those radii are approximately equal to the modi- fied geometrical series. That coincidence or empirical rule is known as Bode's law ("Ency. Brit.," 'Bode"). Obviously, if Newton's law were accurate and logical we would not have those discrepancies, and would not have had to use the 0.4 (the use of which corresponds to the actual fact that the bodies are of finite size, and not zero or geomet- rical points as in Newton's law). But because there are fields, and bodies of finite size, the harmonic space distribu- tion of the planets (including their satellites) requires first a general modification of the series in more or less equal degree for each member — that being accomplished by the 0.4. Then, there are two considerable discrepancies :- in the dist- ance of Mercury, and the distance of Neptune. The spheri- cal field of the sun is comparatively strong; hence the field of Mercury would be considerably modified, compared with most fields in the solar system, and would have its gravity pull considerably modified ; and that principle properly ex- hibits itself in the discrepancy noted. (it is also definitely known from astronomical observations that Mercury percept- ibly departs from Newton's law.) Neptune is exposed to the solar whirl field and hence like Mercury is pulled in closer by gravity and thus speeded up, bringing its field to equilibrium. In short, Bode s law is a series of numbers which roughly exhibits relative values of W...y(.A... in the solar system. If Newton s law were correct, Bode's law would be a series using 2 as a precise ratio : a perfect gas, where all space sizes are formally or °°, is such a monism. Bode s law, logically interpreted, is equivalent to Moseley s law, if Moseley's law is made to agree with the general law that there is no exact science, so that , ;idered ultimately exact, any more than Bode s therefore Moseley's ratios any n or unites the total solar was thus forming the are not consi are exact (§128). That identifies system concretely with one wave or corpuscle oi flight, as is made implicitly obvious in the chapter on light (X1I1) §118. a. While the solar whirl sun, with planets revolving about it, each planet as a smaller or lower order whirl would obviously by the logic of identity and the mechanics of whirls be following precisely the same process, and we may observe in a rough way the various stages in the history of the solar system by observing the planets as they now are. Except for being of smaller size, and hence generally less energetic, Saturn is obviously now in the stage the solar system was, shortly after the sun had somewhat condensed from the central cluster of planetesi- mals — say 20 to 30 billion years ago. We may briefly ob- serve some of the numerous details that are seen in Saturn. b. Saturn has rings that are slightly tilted from the plane of its orbit (just as the ring of planets about the sun theoret- ically is tilted from the plane of the sun's orbit about PP'). Conventional theories are not definite as to the composition and mechanics of those rings ("Ency. Brit.," "Saturn"). It is mathematically established that Newtonian gravity alone would not support a fluid ring, and it is therefore ortbo- doxly assumed that gravity solely acts upon small bodies, keeping them in revolution and forming Saturn's rings. The obvious defects in that assumption are:- (l) only by one chance in infinity would the thin rings then be formed, or be capable of remaining in the same plane if once formed (i. e. , the sole-gravity idea — or rather absence of idea — gives no fields to support or control the rings in that plane: the ordi- nary sole-gravity hypothesis of the general ring or plane of planets suffers from the same defect) : (2) the rings are in some places practically opaque; they are clearly visible; and they cast a shadow on the body of Saturn; and those condi- tions obviously could not exist with rings of scattered par- ticles (and have them sum only to the actual small weight of the ring), unless the particles were rather close together and mostly of small size, and hence were, by the electron theory, in effect a fluid (and that contradicts the original orthodox premise) : (3) the whole ring has dark bands (or is split into concentric ' ring*") which apparently vary, and in effect the whole ring has six outer concentric rings that are six moons (there are four more known moons farther out, not quite in the ring plane); and the orthodox sole-gravity theory is helpless in stating why such conditions happened, or even why they persist, having started. c. Clearly, if we consider the ring to be the vestiges of the filament of the Saturn whirl every one of those outstand- ing characteristics of Saturn is directly consistently estab- lished as a mechanical truism, similar to the explanation of the solar system, and the conditions of the ring are direct evidences of the truth of the whirl theory. d. The ninth satellite or moon of Saturn has a retrograde motion. The pure-gravity or nebular theory can not account consistently for that retrograde revolution (which also applies to the two outer moons of Jupiter and to the moon of Nep- tune ; — incidentally, I am not certain as to numbers of vari- ous sets of moons, for new ones have been recently found and I am depending on casual memory for these comparatively trivial facts). Obviously, the whirl theory would require, as being quantitatively most probable, that most of the inner condensations should revolve about the center of their whirl in the same sense as the revolution component of the spiral in the original filament. But outer secondary whirls obviously could easily get capsized, being exposed to the environment, and would then revolve in a retrograde" direction- in fact 129 UNIVERSE Two XII §119a such capsizing obviously establishes more stable equilibrium in the weak outer field (Chamberlin's planetesimal theory, in using defective astronomy, omits showing definitely any simi- lar strengthening of equilibrium that amounts to a check on the gravity process; and the theory thus more or less fails to locate positively the probable place for retrograde motion), e. I shall be more explicit as to the "dark" bands, and the orbits of the six inner moons that are in the ring plane, and are hence in effect equivalent to six more bright rings — or, are equivalent to more or less definite electrons in an atom:- The combination of the two forces W...Y.A... would obviously, by our theory of harmonic periodicity, sort out or sift out condensations of the same spherical field sur- face intensity, arranging those of the same intensity at a properly or harmoniously proportioned radial distance from Saturn, thus arranging those of the same intensity in a ring concentric with the rings in which were those of other inten- sities — the least effective intensity being outward, and hence truistically becoming distinct moons, in which and in the for- mation of which obviously gravity is stronger than affinity (than field surface). When the field surfaces of the conden- sations become still weaker, they are obviously then not able to hold the moons in the plane ; and the stronger gravity dis- turbances among themselves and other bodies throw them somewhat out of the plane (enough out to strengthen their field surfaces, and establish harmonic equilibrium with other planets, etc.). So obviously, if we were observing the six inner moons from afar and had retinal persistence enough so that they remained perceptible streaks of light all around their orbits, they would appear as such streaks or rings located in harmonious proportions or as a spectrum (XIII) ; and the irregular outer moons (irregular in the sense that for them there is not a nearly complete balance of W and A relative to just the Saturn structure) would be bright bands of per- ceptible width — that might be bright enough over a wide enough radial distance to be a continuous" spectrum. In short, the Saturn rings, by exhibiting directly the varying proportions or effects of W and A exhibit what we might call a molar spectrum ; also, they show a sifting out or concrete periodic table.' Obviously, therefore, the dark rings would be due to the fact that at certain places in the varying bal- ancing of W and A, conditions lacking equilibrium arose, and the 'atoms' were pulled to one side or the other of the circle in the whole ring which would have been their lo- cation had they been stable there (being thus changed or 'condensed' into the more stable-sized bodies away from that circle): so in the neighborhood of the circle there would be few if any surviving condensations of the particular size that would balance there, and hence too few reflectors or givers of light; and therefore "darkness." That is identically what happens, with direct reference to harmonic proportions or 'periods' of comparative equilibrium, in the formation of the periodic table. Obviously, there could exist a band in the ring in which over a comparatively considerable radial dist- ance there is such a proportionality of W and A that there is practically continuous equilibrium, and hence no percept- ible trace of dark rings or gaps, but a thicker collection of condensations: and a precisely analogous condition occurs in the chemical periodic table, with respect to the so-called "break" containing the rare earths, which break corresponds to one of the brighter, wider bands in Saturn's ring (App. A, atoms 57 to 72), and in the solar system as the rather con- tinuous band of asteroids. It it not a "break," but the ab- sence of a break — the actual breaks (where we may say that the rhythms of various — several — properties get out of step) or dark rings occur between the ordinary "elements. And a secondary and hence more pronounced rhythm of such lack of breaks is evidenced by the groups in column VIII of the periodic table. There is in the table a considerable 'dark band' between H and He. It is obvious that in that space other elementary" atoms could exist temporarily, but not very stably ; and Thomson (in experiments on canal rays) made some of those atoms that existed for perhaps a short time. This paragraph could profitably to physicists be expanded to a volume. I haven't gone far into the sub- ject — which is why the paragraph is vague and ambiguous. §119. a. Further, depending mostly upon the ener- getic condition of the main solar field, it is obvious that ad- ditional outer moons of Saturn might be held in the plane of the ring. If the solar field were energetic, and the Saturn filament were young enough to take up some of that energy or were conditioned so as to balance with it, then the Saturn field would hold additional moons in its ring, and the ring would be wider. And in the same circumstances, the small- condensations part of the ring would extend farther out, be- fore those condensations would collect into moons of weaker affinity. So as a truism, in such circumstances Saturn would be heavier," or would have a higher atomic weight.' Therefore, if on earth we subject atoms to considerably heav- ier pressure for a long time (other conditions being fairly steady — as would reasonably be the case deep inside the earth), then that would be equivalent to giving them a wider ring and increasing their atomic weights. It therefore fol- lows that inside the earth there are most probably (in prin- ciple absolutely are, if the quantitative conditions are right) atoms of higher atomic weights than any we have yet ob- served — just as there seem to be, by the same principle ap- plied to opposite quantitative conditions, elements in nebulas (where the pressure is light: where there is plenty of room) that are lighter than any we have got hold of on earth. So if any of the heavier internal atoms got extruded by volcanoes (§122), they would begin to have their outer moons' grow more loose and unstable. And under proper quantitative conditions (especially is time enough needed for the results to accumulate) some of those outer moons would break loose from the atom, and we would have the phenomena of radio- activity — identical in principle with ordinary secondary whirl formation described in XI, but quantitatively probably in- volving considerable heavy condensations as just described. In the solar system comets represent radioactivity with respect to the internal parts of the system; i. e. , comets nowadays are a very mild degree of internal radioactivity which would cor- respond to internal electron formation with respect to atoms — a breaking up so mild in degree as usually not to be called "radioactivity." To get conventional radioactivity as ex- hibited externally by ordinary atoms, we would have to have the solar system as a whole react perceptibly with other sys- tems, and it happens that at present there seems to be no such perceptible reaction, in which pieces break out of our solar field and go as a comet to other systems — as a rather large secondary. But obviously, the principles are consist- ent and simple, as shown. Clearly, there could be a long series (really in infinite regress) of periodic rhythms' of new and heavier atoms under long-continued heavier pressures. Obviously, in steady conditions of pressure the atoms would not perceptibly change any more than the solar system as a whole is doing. Therefore, inside (say) the earth where the conditions are fairly steady there would be no perceptible breaking up of the atoms (no radioactivity"), and hence no appreciable heating from that cause : there may be a com- parative trifle of heating effect from radioactivity in the sur- face layers of the earth. So from that point of view also, the insides of the planets, etc., must be cold (see also §122i) ; only their surfaces have sufficient disturbances of equilibrium §119a XII Two to produce much heat. There would be breaks in the rhythm of those heavier elements, similar to those in our periodic table. And the atomic weights would keep on go- ing "up," or the periodic table keep on extending itself, to some variable limit in a given planet. The principle denning that limit is truistically this :- if a whirl happens to be en- ergetic enough to form an atom of a weight beyond the har- monious limit, it will be unstable and break up. b. Similarly in the other direction, towards the H end of the periodic table, there is a lower limit of atoms for our average conditions. At that limit there is a gap in our mo- lar spectrum' which is equivalent to the change in order of whirls from atoms to electrons. But that gap itself in differ- ent quantitative conditions is subject to variation (cf. the dis- cussion of spectrum in XIII). So obviously, this is merely a repetition of the infinite regress of harmonic periodicity given at length in a general way in §101. The way to get a defin- ite and applicable numerical and rigorous statement of the theory is to determine the structures of atoms in ways to be shown, then tabulate the rhythms of their properties as Richards does in his Faraday lecture, and combine the two. c. Furthermore, it is directly obvious that although the harmony or rhythm of proportion of all whirls or atoms (based on V\ — or on an}' other given criterion) would remain steady, so that relatively to its environment C always has the same properties roughly, yet an atom of C in one environ- ment by no means necessarily contains (and by only one chance in infinity could contain) the same quantity of ether cells, as a C atom in another environment. For it is obvious that all of the condensations in the Saturn rings which are of a fairly stable size and which as a sum form a ring of certain radius, and which condensations we may say are analogous to C atoms, would have to contain a different amount of "substance" (really, of a fixed verbal or logical space and time; cf. Part One) in order to occupy the same relative ring (of relative properties) in a system other than the Saturn sys- tem. Yet in both systems those condensations at similar relative locations would be C. For obviously, if the two then differently weighing C's (referred to a fixed standard quantity of ether cells) were not both the same consistently named C, then we would get a practically identical spectrum (with reference to its most perceptible portion) from different" elements. In brief, W is only one factor, and irrational alone, and there can be no constant atomic weights. Or in familiar language, circumstances alter cases — that quantita- tive truism implying that the relations or principles stay steady. Therefore, because of different past history two atoms may apparently be built the same with respect to easily perceptible properties of a certain sort (such as roughly having the same spectrum ; or roughly having apparently the same chemical ' reactions), and still have perceptible differences in weight. As a matter of truisms, of course those different past histories have made the two atoms some- what different in every characteristic or property. (And as it is truistic that no two things can occupy the same space sim- ultaneously, therefore each thing in the universe has had a history, and hence has properties, different from every other thing.) It merely happens that in the general theory of harmonic proportions the weight of the two varied appreci- ably more than some other properties : theoretically, there is no reason why the reverse should not occur (that the weight of two atoms should be practically the same while the two differed appreciably in other properties) ; and allotropic forms are actual examples. d. And obviously, any interaction of the Saturn whirl with any other whirl (planet) will make the orbits of the moons (and everything else in the whirl) get smaller or UNIVERSE 130 larger. Any sort of atoms are therefore directly compress- ible, in complete agreement with Richards's theory (§82). e. It would be easy to go on for volumes giving the general principles of atomic structures, as they are directly evidenced by the structure of Saturn. Those volumes are omitted for several reasons:- (l) The reader who is inter- ested can work them out readily, and will find it more profit- able and enjoyable to do it for himself. (2) The volumes are actually rather useless until they are expressed in ob- served measures with some fair numerical precision. And that is an enormous work I have scarcely touched, and of which I am mostly in ignorance. Quite probably I have con- sequently made silly quantitative errors in the foregoing, and it is better to stop before I make those errors worse. f. It is possible, by further using Saturn as evidence, or by using other facts about the solar system, to go on and show in considerable rough detail why the sun and various planets should have their actually observed densities, masses, tilts of axes, speeds of axial rotation, virtual ages, etc. Ob- viously, all those properties are completely related by W. .. X A..., and we can readily get rough verbal statements of the relationships out to a considerable number of dots, even in the absence of the more precise mathematical expression. (The chief reason we can so readily get consistent expression of those relationships here is because we are working in the actual three dimensions; that verbally compels a statement of real structure.) But probably most readers would find such a necessarily lengthy statement of technical astronomical detail both confusing (for this first general view of the uni- verse), and also tiresome. It is not actually needed by the intelligent reader, as it is merely a detailed application of principles already seen in general working. So I shall end this astronomical chapter by giving some odds and ends of details that are illuminating, and also perhaps interesting. §120. a. We briefly consider comets (for authority for observed facts used, see 'Ency. Brit.," Art. Comet"). b. We have seen that any whirl would have some con- densations. There would be numerous condensations in the older spiral nebulas such as the solar system, or even in the considerably younger Saturn. In the virtually very old spir- al nebulas such as the earth-moon system, those condensa- tions, especially the larger ones, seem to be rather cleanly swept out by the planetesimal process. However, even in the case of the earth-moon there is considerable evidence of the existence still of lighter condensed whirls (§121c). For verbal simplicity and brevity let us explicitly consider only the condensations which are scattered in the outer parts of the solar whirl field. The nearest star to us so far as known is nearly four light years distant (if I remember correctly : it was discovered two or three years ago). So it is probable that the field difference surface of the solar whirl is, in the plane of the planets, at least one light year distant from the sun — about- 60,000 times the distance of the earth from the sun or 2000 that of Neptune from the sun. Hence, com- paratively there would be considerable room for condensa- tions beyond Neptune. Possibly there are some fair sized planets out there — probably retrograde. But at any rate there would be some small whirls there that are more or less aged into clusters. Also, in that weak outer solar field there would be a tendency for the gravity of the scattered clusters to become relatively strong enough to pull them into larger clusters ; and the process of forming those clusters would create a sufficiently strong field (increase its A) so that there would be a stronger reaction of cluster field and solar field, and the cluster would get swept out of the ecliptic, around through the solar field into the central field where the sun is. Also, precisely the same thing would obviously tend to occur 131 UNIVERSE Two XII §120h as the result of any disturbance of the solar field if the whirl ran into a somewhat different environment — if our whirl came close to another system, say. Those are merely additional details showing again how outer fields are cleaned out. c. Those clusters (or virtually old secondaries, or what- ever else we name the possible variations) as they sweep around into the central solar field are comets. There is no very complete orthodox explanation of comets and their phe- nomena ; but as we shall see, this whirl description completes the orthodox explanations with obvious consistency, and shows in even more detail that the whirl theory is universally consistent. Of course, those comets could be born from practically any part of the solar system ; or a planetary whirl could give birth to a comet into the solar whirl field ; but only briefly in pars, gh shall we consider those variations. d. Those clusters would have such a comparatively weak field that the sun's gravity pull would act rather strongly on them to pull them towards the sun when they got started in their swings around. That increased speed would truistically give more intense reactions of solar field and comet field, and the comet field would therefore do two general things to the comet cluster:- (l) the cluster would form into a rather defi- nite whirl which comparatively very rapidly started condens- ing into a central nucleus (central sun') ; (2) the comet field rubbing energetically on the little fields inside would make them heat up the surfaces of the condensations. And both of those mechanical results give subsequent phenomena pre- cisely as are observed in comets. In general those phenom- ena are these:- (l) As the comet gets near the sun the nucleus could be either a cluster or an actual condensation into an infant sun (or of course any intermediate stage). Ob- servations of comets have not definitely determined whether the nucleus is an opaque condensation, or a cluster that we can see through pretty well ; clearly, our theory would give both possibilities, and that will make plain all the ques- tions as to the mass and densities of comets, and of their ob- served breaking up. (2) And the spherical surfaces could heat to incandescence without much affecting the parts inside of those fairly thin glowing surfaces (for direct proof, see par. k). (3) Those surfaces could vaporize into more or less fluid atoms or molecules, and all the visible phenomena of comets would follow, as is readily obvious, but as will be stated in slight detail below. e. As the comet came nearer the sun and its speed in- creased its spherical surfaces would gradually get hotter, and would finally vaporize some. (That vaporization is obviously itself a giving off of secondary whirls : a less degree of the same phenomenon gives sun-spots, volcanoes, storms, etc. ; §122.) That vapor or collection of atomic secondaries would fill the field of the comet with visible whirls, and so we see the whirl field in photographs of comets. Also, the rapid speed of the comet causes numerous births of secondaries from the outer field surface of the comet, so that the atoms get 'outside,' into the solar field. Then partly due to the pressure of light, and partly due to the fact that those field difference surface secondaries have reactions of their own which cause them to screw themselves rapidly through the solar field in a direction away from the sun, the tail would form. Obviously, the lighting-up of the comet and the for- mation of the tail would take place gradually as the sun is approached, and die away as the comet recedes (and both are clearly functions of the comet's mass, speed, etc. , or, in general, of the comet's balance of W and A). f. Also, certain sizes of those tail secondaries would ob- viously not be in the necessary harmony of proportion to sur- vive. So there would be a preponderance of certain elements in the tail. Also, there would be a 3-dimension balancing of elements in the tail, (l) in the direction of the axis of the tail; and (2) because of the swinging of the tail, markedly in the two dimensions at right angles or radially from that axis. In Saturn the balancing of the condensations in the ring was practically perceptible in two dimensions :- radially from Sat- urn in the plane of the ring, forming concentric rings. Be- cause Saturn moves in an orbit tilted with respect to its rings there would theoretically actually be a component of balanc- ing across the thickness of those rings. Such has not been noticed : there is a remote possibility that it might be per- ceptible if looked for. Consequently, we have the elements' of the tail being periodically separated or sifted out in 3-dimension fans" and knobs" and kinks, etc. And such phenomena are actually observed. A comet s tail is therefore obviously a 3-dimension molar' or chemical spectrum; or, the tail gives an automatic analysis of the whirls which can survive. So the description of comets tails requires volumes, omitted at this point and practically un- known to me. As a matter of rather obvious fact, the greater part of the volumes I mention omitting is unknown to me. g. Obviously, if the field of Saturn were in some way rudely disturbed in the proper direction, the field would give birth to a secondary that would be, with nearly certain prob- ability, a small comet. Also, it would partake of the com- ponents of motion of the Saturn whirl. Hence, usually it would not be in harmony, either in size or orbit, with comets formed in the outer solar field. So except in rare cases a Saturn comet would not survive long, but would most prob- ably be swallowed up by Saturn on the passing of the dis- turbance. That shows that the tendency in the solar system, so far as its internal processes are concerned (and if not in- terfered with' by outside systems), is to keep on in the one direction of condensing ; for a large whirl in it can reverse (as Saturn was there seen to do hypothetically), but does not do so except temporarily. Hence, most of the comets prob- ably come from beyond Neptune; possibly some are born in the vestiges of the solar filament, and a. few small weak ones may come from the Saturn or the Jupiter whirl. h. A comet may be born at the solar field difference surface, either into the solar system or out of it — am' asym- metry there obviously forming a comet or secondary (§98w). But when comets are born into the solar system, in precisely the same way as seen in the last paragraph (by the theory of periodicity) only comets of some certain sizes could survive very long — others being quickly assimilated. (And as an obvious incidental fact, the formation of comets of any ap- preciable size would mostly take place into the equatorial parts of the solar whirl field, because the flat polar parts of the field are more stable.) As those field surface comets are obviously directly analogous to electrons, it becomes obvious why electrons (i. e. , electrons in an explicitly conventional sense:- those given off by ' atoms") are roughly of a certain proportional size, and why any disturbance of atoms produces electrons. We see at once, again in complete agreement with the last paragraph, that a comet born into the solar sys- tem would have practically no chance of traveling very far into the solar system in its original form. It would be mak- ing a considerable disturbance of equilibrium along its path, and unless the solar system had received a severe jolt (which seems to be improbable in its present rather isolated loca- tion), the comet nearly surely would not be large enough to get far without being assimilated. And that agrees with the observed fact that no comet yet measured seems to have come from outside the solar system; it also agrees with num- erous facts about electrons. The comet from outside quite likely stirs up the solar system more or less to start a comet in the regular way ; and that is equivalent to saying that the §120h XII Two UNIVERSE 132 comet from outside does swing around the sun, but that it has changed its quantitative character and thereafter is a solar system comet — has been 'assimilated' in that way. And quite possibly such a comet, in being assimilated, starts a series of reactions which will in turn cause the solar system to give out a comet — so that an observer outside might think he saw a comet pass through the solar system, whereas the electron or comet that came out was composed of quite dif- ferent materials, and was variously different otherwise. We may observe that the way our own physiological cells assimi- late" food, or eat," is quite analogous to this comet or electron formation. The cell and its molecules will turn the food into its own substance," just as comets are finally to some extent assimilated by the sun; and part of the food will necessarily (it is necessary or truistic because ultimately there is no symmetry or commensurability in any part) start some series of reactions that will cause a comet' to be given off by (say) some molecule, which rejected part is not wanted" or a poison (XVI). It is obviously all a matter of quantitative variations in sizes, etc. ; the principles are the same : for when we consider that process of assimilation with respect to a biologic cell, molecules of various sorts are taken in, instead of electrons, and then molecules of different sorts from those taken in are observed to be rejected — show- ing in another way that the electron absorbed by an atom is different from the one given out. i. So it is obvious that perhaps most of the comets would come swinging in to the sun on orbits considerably elongated ; in fact, in practice it is difficult to distinguish some from parabolas. And because of the obvious theoreti- cal interference of fields, and to the gravity pulls of planets, numbers of comets are likely to be slowed into short orbits — and such is the orbserved fact (incidentally there is a per- ceptible harmonic periodicity to the sizes of comets' orbits). The comet with the shortest orbit yet observed is Encke's, with a period of about 3.29 years. And that comet percept- ibly fails to obey Newton's law. We have now seen why. Another fact of the same general sort about comets, which shows directly that we must consider fields as well as ordi- nary gravity is the observation that the long axes of their or- bits tend to trail out in the wake of the solar system as it moves in its own orbit about PP ; only the reactions of fields — of A — could produce that phenomena. j. Comets are of a comparative size that is unstable. Obviously by our theory, and by direct observation, they break" up, and the sun and planets begin to sweep up plan- etesimally the pieces which have thus been transported from the outer parts of the solar system, and from outside the sys- tem. The pieces are called meteors or meteorites (I shall not make the usual minor distinction; see Ency. Brit.," Meteor," Meteorites," for definitions and for details of the observed facts I use). The earth sweeps up many mete- ors, and we can observe them in flight as shooting stars and fireballs, and examine the occasional ones which survive until they reach the earth and are found. It has been estimated by astronomers that 400 million meteors telescopically visible fall on the earth each 24 hours. k. Some of those meteors fall as fireballs, which, accord- ing to the vague observations available, seem to be clusters of condensations (minature systems) that definitely form whirls in our atmosphere — seem to be definitely comets in our atmosphere. The meteors which reach the earth show only two definite molar structural formations:- (l) there is evidence of their surfaces having been heated ; and (2) often these are chondrules or spherules (roundish grains varying in size from microscopic to that of a walnut) imbedded in a rock matrix. The obvious explanation of those chondrules is that they are planetesimal condensations with hot surfaces and hence rounded forms that rain down upon a hot-surface nu- cleus in a comet, and are imbedded there — sometimes the nucleus afterwards being broken up by some large unbalance. A reference to the Art. "Meteorite" will show that no other explanation is probable. So we have here direct experi- mental evidence of the whirl theory or some equivalent one, and of the fact that heavenly bodies are relatively cold in- side. A comet exhibiting chondrules would probably be of average size, whatever that may be; for obviously, larger ones would melt the rain of planetesimals more or less homo- geneously into the remainder of the nuclear substance, and small ones would not be hot enough to imbed chondrules. §121. a. It has been repeatedly seen that there can be no perfectly fluid whirls, or on the other hand perfect spheri- cal condensations which would exhibit Newton s monistic gravity. Always by consistent mechanics there must be dif- ference surfaces giving off an infinite regress of secondaries — or any actual body must be in some intermediate stage of being a nebula of which the zero-infinity limits are (l) a unit fluid perfect whirl with no secondaries, and (2) a unit perfect solid sphere with no interacting body. That sentence sum- marizes this chapter in concrete terms of the One and Many. b. It therefore follows that the sun, earth, moon, Jupi- ter, comets, etc., would each severally, and all as a sum, have in some degree an accompanying nebulosity. Comets have that nebulosity in marked degree — being often accom- panied by its extension into a tail. Also, in full agreement with our verbal truisms of description, the sun, and earth, and probably the moon, have nebulosity which is visually perceptible to us. And we shall see implicitly in electricity (XIV) that any body has electrical fields, which are always experimentally perceptible if its relative motion is sufficiently great; and those fields are equivalent to nebulosity. The nebulosity of the other planets is too far off and tenuous to have been noticed yet, except for that of the young Saturn. c. That nebulosity which surrounds the sun is faintly visible to us as the zodiacal light. The similar nebulosity of the earth is named the Gegenschein (for description and more detailed observations, see "Ency. Brit.," '"Zodiacal Light"). The nebulosity of the moon has not with positive certainty been observed, and it has not been named; obviously its visibility would be interferred with by those other two nebu- losities. Such nebulosities would probably be somewhat self-luminous (agreeing with Angstrom's observations in the article cited : — and in spite of the fact that they are in space usually held to be at nearly absolute zero) ; also, they would be luminous by diffused and reflected light (as our atmos- phere is— they being obviously composed largely of thin gases that are known to exist in the "free" space about us). The nebulosities have probably been observed to vary in po- sition, and perhaps to exhibit some traces of tails : they seem to have a variable tilt, and seem to react mutually. All such observations obviously agree with whirl mechanics. §122. a. It has been seen (§1 12g-l) that the reaction of the solar whirl field and galaxy field gives our general clim- ate. We shall now see that the whirl theory consistently gives minor climatic variations by the same principles— see- ing it by considering the reactions of the sun's spherical field with the earth s spherical or magnetic field. Also it follows implicitly, but of course in far less quantitative de- gree that the reactions of the moon's field on ours modify our climate. The empirical farmer who plants by the moon's phases is not wholly superstitious, although it is likely that his rules of thumb are now excessively inaccurate, and are merely racial memories persisting from the ancient days when the earth and moon were in a younger whirl, and their 133 UNIVERSE Two XII §122h mutual field reactions were much stronger. Even the old astrology is not completely stupid ; for millions of years ago when (say) Jupiter swept near the earth spiral, it probably knocked off an earth satellite which plunged into the earth in a way somewhat disconcerting to live things in those days. Astrology was perhaps perceptibly justified in some measure. Of course the intellectual grafters exaggerated it and ritual- ized it until it became silly ; they will do the same for this book unless men take the trouble to observe for themselves. Those grafters were not deep-dyed villains; they merely de- sired to give their clients their money's worth, and hence "improved their yarns to give them sufficient violence — pep and punch and heart interest — to jolt even the weak brains of their stupid dupes, and thus give them a sensation to vary the monotony that is another name for an inactive mind. Also, the dupes wouldn't rely on themselves, but relied too much on experts" — with the usual result that both they and the experts (named astrologers then) came to grief. All too specialized specialists are dangerous. b. The chief cause of those minor disturbances of the sun's spherical field, and hence of the earth's field and hence climate, is obviously the eccentric revolution of various bodies around the sun. Possibly the most intense of those variations are the passages through perihelion of comets, or the remains of comets; obviously those comets then stir up the suns spherical field sharply. c. When one of those sharp knocks on the sun s field occurs, obviously there would shortly be secondary whirl for- mation at the sun s difference surface, which surface is con- ventionally divided into chromosphere (at the bottom), photosphere, corona, and zodiacal light ( Ency. Brit.," Art. Sun"). Similar knocks on the earth s field would also pro- duce secondary whirls here; those whirls are directly per- ceptible to us as cyclones and anti-cyclones in the atmosphere (which is part of the difference surface of the earth). A cy- clone is a whirl in which the central field travels up (is a Fig. 122c. whirl born into the earth's field), and which therefore is not much interferred with by the "solid" earth, and so produces or is comparatively rapid motion of the air, and is a hur- ricane," "storm," etc. Fig. 122c is a diagram in perspect- ive of the wind circulation of a cyclone, and it vividly outlines the filament difference surface of a whirl, even defi- nitely as to the spiral motion. I did not manufacture that picture and emphasize the whirl characteristics to prove my point: the picture is reproduced from Knight s Seaman- ship." An anti-cyclone is a whirl traveling in the opposite direction (out of the earth field) ; hence, the solid earth in- terferes with the air motion of it, and the wind slows down, and we have "pleasant" weather. All our "wind" is a re- sult of whirl formation. d. Those two kinds of whirls are observable in or on the sun, in greater degree because the sun's 'surface' is thicker and relatively more fluid and extensive. It may be possible that a sun spot is formed directly by an anti-cyclone ; it is a quantitative problem, and I guess that such is not the case (chiefly because an anti-cyclone on the sun would spread out widely, like one here, and a sun spot is rather sharply local). A cyclone on the sun would obviously consistently produce the observed high flare-ups of the corona, and the promi- nences of the denser photosphere. A very small cyclone here, over such fluid (e. g. , water) will produce a water- spout, or on land will lift dust, leaves, etc., high into the air as a o>Air/wind" ; any cyclone lifts up the surface of the earth some, but not very perceptibly with the solid earth : the barometer becomes "low," showing that comparatively there is some suction on the earth. The waterspout, on a certain harmonic proportional wearing-out of the whirl, slumps back into the water — one nearly slumped on me once. Similarly, anywhere on the sun a localized, considerable act- ual lift of material will take place as the result of a cyclone. (That material seems to streak out in the high-speed winds in the upper atmosphere of Jupiter, and make bands around that planet.) That material will then slump back into the sun, and by the usual principle of overrunning it will make quite a hole or sun spot in the photosphere. So a sun spot is most likely the dying out of a cyclone on the sun. Obviously the cyclone gave the material a rotation (that can actually be seen in an ordinary waterspout; also see Fig. 122c), and naturally the sides of the sun spot hole will have the compo- nents of that rotation. Also, the dropping of the prominence into the surface is equivalent to dropping soapy water into a basin; and a whirl will result, with other sorts of rotary mo- tion. So for all those reasons, the spot will endure for a time — perhaps as long as a month or two. Also, the spots, like the more violent of the storms on earth, will tend to be near the sun s equator, as it is there that both more field energy and more chances of getting a knock exist. The whirls from the knocks would obviously travel away from the equator as they move down, by compounding their motion with the sun s rotation. e. Every one of those whirl results is definitely in agree- ment with the observed facts about sun spots ( Ency. Brit.," "Sun"). Further, observations by Hale, and mechanical guesses and observations by Julius, show that there are such rotary motions. Turner gave a theory of sun spots to the Royal Astronomical Society ( Sc. Am.," April 4, 1914), which shows that known comet orbits agree with the periods of sun spots; the most marked one is about 11 years, but there are other superimposed periods [ad infinitum, according to valid logic]. It is also observed that electrical apparatus on earth shows variations ("electrical storms"), indicating such variations of electrical fields, occurring for a few days in advance of visible formation of sun spots. Further, a con- siderable body of observations now exists, and scientists are beginning to agree, that our minor climate in general varies coincidently with variations in the sun's surface (of course after "seasonal" changes). It therefore is obvious that all this evidence verifies our mechanical theory. f. Obviously, we have come to the beginning of writing a consistent science of climate — of general, and daily or sea- sonal, meteorology. That would require volumes — omitted. g. And a general consideration of the foregoing astro- nomical descriptions, combined with a more specific detailing of the variations of the earth's spherical field (including the history of the earth whirl), would constitute the base of ge- ology. Chamberlin gives that well in Origin of the Earth," although not explicitly about the earth field. I shall make brief remarks on geology, indicating that expansion :- h. Obviously, ultimately any asymmetry of equilibrium of the earth's surface would be referred to the earth's field, and so on to our galaxy whirl, and so on. Most likely, due to past stirring-ups of the solar whirl by its approaching other §122h XII Two UNIVERSE 13+ whirls, the earth's surface has several times been hot enough to be rather fluid. The earth's field would then perhaps have considerable effect in distributing the fluid matter (in prin- ciple, precisely as the matter in a comet's tail or Saturn's ring is sorted); in short, ultimately there is no "chance" about it: the earth itself is a chemical spectrum, probably several times repeated, or superimposed — of which the con- ventional geological strata would constitute one "layer" or order. And that gives a rigorous qualitative beginning for the geology of the shaping of the juvenile earth, which is of course in agreement with Chamberlin s balancing of various factors with gravity, in his chapter on the subject. I merely bunch all his various other factors into affinity — or into the concrete field, which primarily displays that affinity. i. There would then, as a truism of such surface asym- metries, be regions of less pressure in the earth's surface zone, so that the condensed, aged atoms there would move around more, and thus in some measure break up, and thus give off small, rapidly moving parts ( comets' or electrons, or other larger parts in radioactivity) which sum as heat. In the deep interior of the earth there would not be a high enough degree of variation in stress to permit that breaking- up to occur; that such breaking-up actually does occur when pressure is removed is observed directly as small surface ex- plosions in new walls of mines. And that heat would, under proper quantitative conditions, as a truism, accumulate, melt the more easily melted substances, and by keeping on in- creasing if pressure is decreased at a sufficient rate, eat its way upward, and out at the surface, as a volcano. So a vol- cano thus always tends to make a more stable equilibrium — to smooth out past asymmetries, — which is substantially how Chamberlin puts his more detailed description of volcanoes. Therefore, from both points of view it follows that the inter- ior of the earth can not be hot; for if it were, asymmetries or differences of potential would automatically increase as we approach the center of the earth, so that at the center the potential, having nothing ever to start it the other way, would truistically become infinite, and the earth would blow up — and it obviously does not. Or, if that general proof that the interior is cold is not readily intelligible, then a concrete proof is that it is an obvious truism of the whole theory of the shaping of the young earth (either as given here, or in the form given by most modem geologists), that a crust can not form on a liquid core which is asymmetrical or out of stable equilibrium (which would have been the case with the earth) unless the crust be nearly instantaneously formed with suf- ficient thickness to hold the liquid core (which is a silly hy- pothesis). Or in brief, as the little boy puts it, if the earth ■were hot melted stuff inside it would largely leak out through the holes. Of course, if we dig a large hole in the earth, it follows from the foregoing that it becomes a volcano — the walls would keep getting hotter as we went deeper. Obvi- ously, if we went deep enough, with a hole big enough not to be self-plugging, we would automatically get a flow of melted earth.' If we could keep that hole from plugging itself for a while, the flow of liquifying interior would soon leave unsupported places that would more or less break up the earth by earthquakes, and thus (probably before changes in center of gravity, etc., became effective) would indirectly plug the hole and stop the unbalance (the earth will "heal" a wound just as a human does — only on a larger scale). But none of that proves that the earth is hot inside; it merely proves that the earth is so constructed that we can make an artificial volcano — by the simple process of digging a large enough hole. The sides of the hole is a modification of the difference surface (an extension of it) ; and the principle is that that surface is comparatively hot, and obviously the con- siderable unbalance of the hole would make it locally hotter. j It therefore follows that any prolonged asymmetries or knockings-about to which the earth field are subjected would produce, as an accumulated result, an age of volca- noes. Any such series of asymmetries, given enough room (and there usually is ample space in the galaxy), would inev- itably be balanced by reverse ones, and there would be a severe glacial age before or after the volcanoes. And such rhythms are geologically inferred to have occurred. So the general basis of geology confirms the whirl theory, even if I do have to be a trifle unconventional and conclude that the earth is cold inside. It has been my actual experience that the same sort of people who were shocked by Columbus's heretical belief that the earth was round are greatly offended by the proof that the earth is cold inside. So in order to help those mentally rather run down people over their emotional disturbance, I have devoted an otherwise disproportionate amount of space to the point. The keen reader will also observe that I ostentatiously and em- phatically give such people an unconventional point of neglig- ible direct practical importance to be horrified over. That serves as a counter-irritant, permitting the painless introduc- tion of an important point or two. §123. a. As a general summary of this chapter we may consider, in terms of astronomy, the millennium, heaven, Nirvana, or Utopias in general. Obviously, because our as- tronomical terms are universal, and are also consistent me- chanics, we shall be able logically to consider the 'heaven of heavens,' or a sum of all Utopias (i. e., get an inclusive theo- ry of heaven); and at the same time get it in an engineering form capable of actual achievement, provided people want such a heaven enough to achieve it. The way to get it is to make the earth into a flying machine and move it to wherever we calculate we need it in order to achieve such equilibrium as we consider to be heaven — for, as we shall see, all Utopias are nothing more than quantitative perfection (at least as an aspired-to limit) and hence eternity of balance be- tween two or more bodies, which themselves therefore be- come eternal as such finite bodies. In brief, the con- ventional heavens and Utopias are quantitative: to be blunt about it, they are grossly materialistic in the ordinary dyslogistic sense — and in their aspired-to infinite limits are of course not achievable. But we can approach as near as we like to any Utopia or heaven by properly moving the earth out of its orbit. People who in general are more or less un- balanced, or intemperate, or radical or exaggerated in one way or another, are truistically pained by the condition (see XVIII) ; so they verbally invent a heaven where they think the balance is better. For the human reasons for that, see §155. Or, there is another sort of person who is callous or insensitive nervously, who fails to get enough stimuli from the environment that are violent enough to jar him into much consciousness. So he complains bitterly of too much monotony, and invents (or usually accepts from others) a verbal heaven that is violent or "peppy," and that would be painful to the radicals; the Great White Way and Greenwich Village in New York is somewhat such a heaven. If the radicals could get their sort of heaven it would be painfully monotonous to the callous people— would bore them worse than this world does. But obviously, the callous sort of heaven is the same essential sort of heaven as the radical one, being simply expressed negatively or in the opposite quantitative direction, so that the same principles apply. As a well known fact, the practical achievement of some of one heaven satiates, and causes the sufferer to strive for the other; e. g., the denizens of the New York heaven "long" for the simple life." I n general, orthodox heavens are 135 UNIVERSE Two XII §123d merely materialistic, quantitative, selfish daydreams. But we now start to examine them a little in detail, as they give considerable useful information. b. We have seen (§1 14c, etc.) that any given geometrical point in us or near us, or anywhere, is itself in eternal perfect balance with the rest of the universe — moves in the path of no resistance, as being or exhibiting either zero energy or infin- ite energy. Consequently, eliminating merely formal time and space we obviously have a perfect heaven, in all respects, right now, and right here, eternally and everywhere. Fur- ther, if we take any pluralistic (or time and space) part of our world, we have seen by astronomy that it is actually in perfect balance {so Jar as we can perceive) with reference even to a fairly small environment. E. g. , we and all our things are so perfectly in balance with just a few galaxy whirls that we can not perceive even with senses aided by our best tools more than a few of them — the remainder balancing into in- finity or nothingness, whichever way you want to say it. So with reference to any time-and-space thing — with reference to our persona], arbitrarily limited selves, say — there clearly is, inside a quite restricted environment, a perceptibly perfect balance (and then many people object to that heaven by wanting to make a stir" in the world; and having made one, they find that such unbalance is not what they want). It therefore follows that actually we are in a heaven or per- fect balance so far as we can perceive, if we take a wide view. c. However, men look around them and by taking a narrower view (by excluding or ignoring some of the things which they actually see) they observe that in that narrower world there are unbalances. E. g. , they see the lightning kill an apparently innocent baby ; or they see apparently unbalanced distribution of food, so that some people not di- rectly responsible for that distribution starve. So men start making quantitative computations intended to remove those more narrow unbalances, and the conclusion is called heaven. E. g. , the old Hebrews apparently judged that pain" was bad, and all unbalances of day and night and climate were bad (they having no electric lights and furnaces to remedy such), and that there was not enough of brilliancy in their surroundings (that judgment included the objection of the callous to monotony): so they devised the grossly material- istic heaven of Rev. 21, which sounds like a longshoreman s idea of "elegance," and which is substantially the orthodox ignorant "Christian's" heaven still, except that the usual Utopia of the ignorant person contains the additional proviso that there be no "work." The majority of the polygamous Arabs apparently failed to have their sexual appetites satis- fied, there not being enough women to go around; so they figured out a heaven with an abundance of such satisfaction — overlooking the needs and desires of women in it. Clearly all Utopias propose to achieve some more or less narrow bal- ance, and they ignore the perceptible unbalances that will be produced elsewhere as an inevitable result. E. g., all con- ventional heavens I know of propose to reject some people ; obviously, the concoctors of those heavens thus tacitly admit the existence of an unbalance in them, and so stultify them- selves. All the people who propose to reform or remould the world nearer to their heart's desire, propose usually in actuality to change a narrow unbalance which annoys them and they truistically produce perceptible unbalances else- where (although they usually overlook that fact or deny it). That is what is wrong with the reformer and radical: he in effect denies that he causes unbalances elsewhere, and is hence rather foolish, as he does (and sometimes for the good of the majority). Of course, everything we do is locally an unbalance. We take up the solution of all that in ethics (XVIII). We simply note now, from the typical evidence given, that Utopias are quantitative. Our conventional theological heavens are obviously grossly dualistic and aristo- cratic, with their more or less benevolent potentate, or perma- nent chief boss, who is reputed to require as much deference or kowtowing as that desired by any small man in official position or by a hysteric. A kaiser and Jehovah are obvi- ously alike in essentials. d. Therefore, as all Utopias and heavens are merely more perceptible balances within certain limits at the expense of increased unbalances elsewhere, then the obvious goal of intelligent Utopias is to get the unbalances located as much as possible so as to be imperceptible to all men. Clearly, the way to get a balance having the widest limit would be to get the whole earth into some place where there was the least variation in reactions received by its fields. Therefore, if we create an artificial field (like an artificial house over the whole earth), which will promptly react with most modifica- tions from foreign fields, we can make the climate fairly equable (probably we would have to take secondary steps to prevent other undue unbalances). By moving the earth out of the solar system, we could progressively achieve a more and more perceptible balance:- its rotation could be sub- stantially stopped, thus stopping most changes in light and . radiation ; its revolution about the galaxy axis could be so smoothed out as to be imperceptible (or we could move it out of the galaxy if we wanted less motion); and we could progressively level off its surface, etc. By proceeding in that way all perceptible change would be gradually elimi- nated. All processes could be equalized until the passage of time became practically imperceptible, there being nothing happening in particular by which to mark time — not even perceptible monotony. Hence, in that soothing, somnolent environment men would practically quit dying (or being born — for birth is a perceptible unbalance) ; death would be abolished to the degree in which closeness of balance was ob- tained (XVI). Also, all work and other perceptible activity would be similarly eliminated. Further, our brains would stop acting in the same degree, and we would have practi- cally no pains, no troubles, nor any perceptible consciousness of any kind. In short, concretely and literally we would be bored quite stiff," and for all practical purposes be dead. ■ In fact, the consistent expression of the condition is that we would be so completely bored that we could not even die in the usual manner, but would imperceptibly enter upon the equivalent of it without perceptibly physiologically dying — a state of affairs worse, nominally at least, than the mythi- cal fate of the Wandering Jew. Fact of course is always stranger than fiction. The human race is far too stupid to invent any quantitative complication that is nearly so surpris- ing as those actually about us. Obviously, therefore, the very perfection of that heaven is its condemnation, from the point of view of our personal tastes. We simply do not want any such millennium. The lion would lie down with the lamb all right — and stay that way. In fact, the able engineers who, it is tacitly assumed, would get the earth started off towards that Nirvana condition would also auto- matically lie down and stop work (unless they had built themselves a private dwelling in which they could have some manufactured unbalances) — and in the first case the earth would automatically return into some condition sufficiently asymmetrical to jar the sleepers into life. Incident- ally, it is obvious that in such a heaven, where there is no perceptible unbalance, there would be a practical and per- ceptible constancy of all physical quantities, and also a prac- tical exactness of all science. In conventional language, bodies or things in it would be practically dead, and practi- cally ' really material. §123e XII Two UNIVERSE 136 e. Obviously, no one but a mental defective or some man hopelessly worn out by this real everyday heaven we have now, would want that consistent astronomical Utopia or summed-up orthodox heaven. If any man truly does want it, he can easily get its substantial equivalent by buying a few cents worth of rat poison and eating it. For obviously, we have such a perceptible heaven when we are dead (i. e., we have no more personal consciousness — a condition equal to that heaven; for proof, cf. Index, "immortality"). And any scientist who thinks he really needs physical constants and an exact science can readily get them, so far as his per- ception is concerned, by the same judicious use of rat pois- on ; the only other direct way he can get them is by moving the earth (or a part of it, including himself) to such a condi- tion — and even then it is likely that perceptible exactness would be limited to quite a narrow locality on earth (perfect exactness of course already now exists, and would then, with reference to any zero point). It is a well known fact that many people who claim or fancy that they believe that the promised theological heavens exist after death, and who go about asserting in effect that heaven is their home, they being timid orphaned strangers in this present wicked world, still refrain from proving their sincerity with rat poison. In short, the people who claim to believe orthodox Utopias, in practice fail to act as if they did (for their psychology, see §155). They of course contrive some excusing argument" about the wrongness of suicide — thereby unescapably imply- ing that the God who inhabits their heaven keeps them away from it, and hence is either a dog in the manger or else pos- sesses that vicious, perhaps lowest Hun characteristic of teas- ing, tormenting, tantalizing. The obvious solution of the problem of suicide (as implied by the investigation later of immortality) is that it is a quantitative problem, and is right action when the suicide thinks more good than harm is pro- duced by his death (i. e., it is right from his point of view; others often agree with him, in which case the action is right so far as it is possible to judge; §17 Ik). f. Having shown that the orthodox heaven is as stupid as the already unfashionable orthodox hell, we may now ex- amine the mechanical details of making a flying machine of the earth. It is not likely that we shall ever want to fly away to a consistent heaven; but it is possible that at some time we may want to use the process to modify the climate a trifle. If we get too crowded on earth, we may possibly want to add the moon to the earth in the way of a real estate addition. It would be an exceedingly hazardous business, but it could perhaps be handled : the moon would bump rather hard when it coalesced, but we would have acquired quite an increase of potential, etc., if any of us survived such a get-rich-quick scheme. Also, it is well for us to know our widest quantitative capabilities (anything is possible quantita- tively) : then we shall have an explicit means of refuting the weak-sisters who insist on whining about impossibilities, when what they really mean is that they feel comparatively feeble — and want us to be like them. g. We shall see in §§140-1 the principles of how to get enough power to work the machines we are going to use to make the earth fly — fly differently from the present. We can apply that power, by using large electrical machines, to modify the earth s field — such modification being obviously the same in principle as creating a field in a motor (XIV). Truistically, that will move the earth relative to the sun ; the earth field difference surface is obviously the fulcrum Archimedes was looking for. By making the difference sur- face relatively stronger we make gravity relatively weaker, and we have in some humanly controlled degree harnessed the solar whirl field to the earth, and can work ourselves out of the present orbit. Very slowly at first would we move from that orbit; compared with any power we now develop on earth, the power to move us appreciably would be enorm- ous. But as we moved out, gravity would have less and less effect, and we could proceed faster. Theoretically, it is ex- ceedingly simple thus to harness up the total galaxy. Prac- tically, the quantitative difficulties are large. h. This chapter shows explicitly how the earth and each atom and electron in it is definitely and completely bound to the total galaxy environment. If we actually know the structure of such environment, then obviously we can, by guiding parts directly in our reach, control the earth. So a summary of this chapter, showing briefly its consistency, is a statement of how to move the earth. Unless such a statement can be given as a part of an explanation of the structure of matter, then obviously that explanation is either not intelli- gible, or is not complete and consistent (or both). So this section is proof of the consistency of the chapter. CHAPTER XIII. Light. §124. a. It is obvious that I have been describing phe- nomena as being ultimately the giving off of secondary whirls — as being the result of asymmetries which accumulated at difference surfaces in sufficient quantitative degree, compared with the ether cell size, to cause a number of ether cells to unite in some way to form a new whirl, or at least percept- ibly start forming a new whirl. It is equally obvious that because the ether cells are taken to be of some finite size, then there may be asymmetries of insufficient quantitive de- gree to form such secondary whirls: but nevertheless there still would not be a zero phenomenon (as the cells are finite, as just stated), but as a verbal truism there must be some phenomenon — and so on ad infinitum, as we arbitrarily take ether cells to be smaller and smaller (or larger and larger, to go the other way: — e. g., we have in §128 the description of the spectrum of the solar-system-considered-as-an-atom, in which atom the earth would tacitly be just a few ether cells). Such a comparatively nearly zero phenomenon is named light (that use of light is a relationship word). Obviously, just as we have what were called orders of whirls in harmonic periodicity of mutually fairly stable sizes, so we would have orders of light (there light is definitely a Many word, or light is just plain "matter," if we take it as cor- puscular, as we shall see we may ; but if we, also properly, take light as waves, then that use of light is the orthodox combination of a Many word and a relationship word — a double use which ordinarily is "ambiguous," but which we can use clearly as we know the logic of it; cf. §134a). Three orders of such a phenomenon are conventionally named, as noticed before:- electric waves, ordinary light, X-rays. Ordinary light is given off by ordinary atoms, electric waves by collections of atoms, and X-rays by structural parts of atoms. We saw that there were no sharp boundaries between those "orders" or species of light. There can of course be as many sub-orders of those orders as we care to distinguish— or super-orders. It is probable that physicists now lump together quite a number of rather distinguishable sorts of light as "X-rays," as we shall see. b. A logical or truistic proof of the general existence of all that variety of lights, and probably a more intelligible description of just what light is, may readily be obtained by considering different sorts of difference surfaces and all of the phenomena (in addition to secondary whirl formation) which take place all the time at or in them. We are going to see that in conventional language light is usually considered to 137 UNIVERSE Two XIII §124h be waves, or definitely a continuous fluid phenomenon. And that is verbally the reverse of our secondary whirl descrip- tions — for obviously, in all of the latter we had some degree of definite internal structures ; now, in wave light, we have none, that being truistic with continuous fluid. So we must at once redefine our various orders of difference surfaces, to agree with that new way of talking. And that is simply and obviously done by saying that the ether cells of a given whirl are large enough to be considered elastic and not to have definitely named internal parts ; i.e., we merely take elastic parts of the various orders of whirls large enough to permit us to leave unmentioned {but never absolutely ignored) previ- ously considered internal structures. Obviously, that is only a verbal change ; for we saw that an ether cell was merely a whirl considered to be continuous (§§97-8). Hence, we now have to notice all phenomena occurring when we do consider whirls continuous. Heretofore we have tacitly ignored all those of a size so small as not to form secondaries. But clearly, a secondary can be any size; so explicit whirls, or Newton s corpuscular light, can be used to explain all phe- nomena, including light. Similarly, by increasing sufficiently the arbitrary size of cells,' ordinary wave light can be used to explain all phenomena, the earth (say) becoming then a vibratory wave (see §128). Light and (say) astronomy are thus obviously identical ; the two conventional subjects are merely two verbally different ways of stating observed facts. Because we are familiar with the wave-light way for many phenomena it is easier to understand them when that way is used. So I describe light largely that way, especially as it furnishes a check on the way used for other phenomena. c. We therefore at once note that by our new or explicit fluid definition of 'cells,' any difference surface (regardless of its practical size) will be considered to be a layer of cells, which layer rubs the adjoining layer of cells in (l) outwardly the touching field and (2) inwardly its own structure. That adjacent layer (in either direction) is in actual or virtual mo- tion at some spiral angle between the monistic limits and 90° to the surface layer (§98o, etc.). Hence, as we shall implicitly see, light waves (not necessarily ocularly vis- ible ones) are generated everywhere always. But again basing ourselves on the measure V\ we consider usually only the generation of them at difference surfaces we have already es- tablished by that criterion. That amply covers the phe- nomena (includes positively all of them) : for all the light generated (say) inside a filament thus determined is summed up in its surface cells, as we shall see. d and e. It clearly follows that as those cells rub across each other, cohering or sticking to each other, then by the mechanical principles of elasticity already established, they will mutually distort each other, overrunning the equilibrium and then letting go of each other, so to speak. The cells will therefore vibrate or oscillate, truistically stirring up their neighbors progressively into similar vibrations (Huy- gen's principle ; §126) — the result of all that being light. Obviously, any asymmetry will result in continuously chang- ing or modifying those vibrations all over the difference sur- face of any whirl; consequently, there is always continuous light phenomena (perhaps not visible), because by our arbi- trary agreement as to cells, such motion of parts, to infinite smallness or in infinite regress, is truistic. Obviously, there- fore, conventional light phenomena all explicitly imply the infinite regress ; here, we are merely having it explicit. In definitely pluralistic language, such as the talk of secondaries in astronomy, only an asymmetry of a certain size compared with the size of the ether cells could produce a secondary; hence secondaries form only occasionally and at particular places on the difference surfaces. Here, we see that light is not thus localized, but is continuous (not necessarily visibly). f. It is possible in many ways to get a tangible concrete model of the mechanics broadly described in the last para- graph. Northrup's whirls (§102) show a hazy vibratory sur- face. Often smoke rings, or smoke sheets in still air, will exhibit a more or less definite surface vibration. Practically all of Bjerknes's experiments (§94) are definitely vibratory, and can be shown to be analogous to any light phenomena. Possibly the quickest way to see the mechanics of the last paragraph is to take an ordinary round bristle brush and flick the ends of the bristles. The ends will vibrate, often per- ceptibly for a while, analogously to a small place on one of our arbitrary cells, and by the same principles (although in a different degree, as the quantitative relations of the anchor- ing of the bristles are in considerably different proportion from those of the anchoring' of the parts of the cell: — if it be required to have a quantitatively proportional model, then a tore can be made having a surface' of mounted gyroscopes ; Erwin's model is substantially that; §94). The same sort of vibration can be seen when the wind blows over a field of high grass, wheat, etc. By revolving and sliding the bristle brush mentioned under the finger the ends of the bristles will temporarily perform oscillations analogus to cells. By properly moving the brush in and out of water visible experi- mental evidence of at least the general principles of any of the mechanics of light is obtainable; however, it is usually easier to prove those mechanics by reducing them to truisms equivalent to Bernoulli s principle. g. The mutual reactions of those vibrations give all the unending light phenomena. Because of those unending pos- sibilities of reaction, of the ad infinitum orders of light, and of the ad infinitum asymmetries which cause light, there can be no complete description of light. For that reason, and also because light is substantially a repetition of astronomy, and because we have already seen the general mathematical identity of light with other branches of physics, I shall con- dense this chapter to a brief outline of the subject — just enough to give a general understanding of it, and indicate the foundations. The only substantial variation I make from the orthodox descriptions is that I have light 3-dimensioned, and so describe it. Orthodox descriptions in actual effect of course do have light in three dimensions; but the orthodox mathematics are mostly of the 2-dimension, transverse-wave sort that lead to difficulties, and are of course totally mean- ingless when explicitly interpreted, because no such thing as a pure" transverse wave ever existed or ever can — it being merely a non-existent verbal abstraction of a mathematical character. Quite naturally that sort of mathematics used in the texts (which conceals the problem of the One and Many) orthodoxly winds up in the well known self-contradiction in light, which may be expressed in one way :- that Fizeau's experiments and-or astronomical aberration requires a still ether, and the Michelson-Morley experiment requires an ether dragged some at least by the earth (see Wood, Physi- cal Optics," 1st ed., XXII). An ether cell is 3-dimensioned, and by considering it as producing light we keep in 3 dimen- sions and readily see the cause of the orthodox difficulty with those experiments (§127). h. Incidentally, because light may equally well be rep- resented by whirls instead of waves, it follows that light is whirls from that point of view. And that of course is equivalent to saying that light is matter (cf. par. a) — or is ether. And that again is equivalent to the conclusion in the last paragraph that light is 3-dimensioned. We shall see how ordinary atoms grow, or decrease, according as light is added to them or given off. Of course that growth is minute — perhaps with no weight perceptible by present balances. §124i XIII Two 138 i. This section is a general summary of light. If the reader is not particularly interested in physics or mechanics he may skip this chapter and the next on electricity, or read them casually and inattentively, without losing anything es- sential. Easily perceptible experimental details are so numerous in light and electricity that I can on any line of ob- servation quickly so overburden my memory with them as to become almost hopelessly confused as to what are the next consistent details. If the reader finds that he has the same difficulty he need not feel alarmed : those details are merely some of the infinite dots of our formula which have become perceptible, and as they are infinite, everyone must neces- sarily fail to follow them at some stage. Because I must condense violently in this and the next chapter in order to include explicit unifications which will be required by the physicists and which must be known by the experts in any branch of knowledge, it results that the two chapters are hard to follow — especially if the reader has more or less for- gotten his physics. He already has all the essential ideas of the "material" universe which he needs in order to follow the last summarizing chapter of this Part (XV), and the de- scription of man in Part Three. Some of this chapter on light describes mechanical reactions so complicated (i. e., numer- ous in one "phenomenon") that I find it easier to think them through "originally" with "pictures" of them in my head than I do to follow my own condensed written description of them. There is no need for the general reader to worry himself with any such stuff"; but any good physicist must. §125. a. At a given cell on a filament surface we may conveniently name the three directions thus (and we need to remember these names, as they are frequently used in light and electricity):- (l) the direction roughly perpendicular to thefiliar axis (or when the filament cross-section is not some- what circular, then the direction roughly perpendicular to the surface at the locality being considered) is radial or nor- mal; (2) the direction roughly parallel to the filiar axis is the filiar direction ; (3) the direction roughly at right angles to those two, or (what is the same thing) the direction roughly parallel to the cross-section circumference at that cell, is the circumferential direction. The same names are obviously analogously applicable to similar directions at any difference surface (at a field surface, e. g.). The last two directions, filiar and circumferential, together will be called transverse directions. Obviously, any cell in the difference surface is asymmetrically supported or held by the surrounding cells ; that is a truism of any pluralistic language (or the principle of rhythm or incommensurability), as we have seen in the tru- istic proof that whirls themselves exist (XI). Or explicitly, under average conditions it is obvious that the cell is held more or less steady in the transverse directions and hence has a comparatively more free component of motion in the normal direction. Or, if the reader does not approve that assertion involving such quantitative directions, then the principles of pluralistic language or asymmetry require that (in agreement also with all observed facts) there be different energy of motion in the three directions, and he can assign that difference in any combination of directions he likes. If he changes from my (conventional) directions, he will need to change the wording of the description, but will obtain the same general result (cf. §99). b. Therefore, the given cell in the difference surface will by cohesion elasticly react with the field cell [or cells] touching it, and because of the opposite spirals and asym- metrical support produce in that field cell a minor elongation having unequal components in the filiar direction and the circumferential direction. But most of the elongation will take place in the comparatively unsupported radial direction, UNIVERSE and will be similarly propagated by that cell to the next cells, and soon (Huygen's principle; §124d). ihe whole reaction is a ray of light. Obviously, in the first two directions— the directions transverse to the ray the ether cells are structurally supported so that the resistance to deforma- tion is comparatively enormous, whereas the cells in the nor- mal direction, or direction of propagation or travel of the ray, are structurally held only by the comparatively weak field difference surface, etc., so that the resistance to deformation is slight, and the light wave would 'form itself' or travel" in that direction very rapidly. Further, it is obvious that always the ray would be encountering — would be composed of— cells which were in varying structural relations, and hence the three components would always be varying; or, in short, never on a path composed of as few as three ether cells could the ray travel either straight or at a constant speed. Equally obviously, the various components, being produced by friction and hence subject to friction would -wear out (i. e., become diffused among many cells) in a length of time depending on the character of the motions (or structural re- lations) of the cells they become composed of, and would in- evitably in time become visually imperceptible. (The whole of those variations is the general statement of the bending ' of light rays, of which Einstein's predicted instance is merely a special case; §66. Obviously, I have described them in terms emphasizing affinity.) As an example of that wearing out of light, if the ray hit some C atoms in the form of soot the ray would rapidly become imperceptible; if it traveled through the comparatively tenuous, but structurally analogous, galaxies, it would travel far enough to permit us to see a few layers of galaxy whirls. That theory agrees with what we do see. Reynolds calculates that a light wave is reduced to ^ its primary energy after traveling 56 million years. So it is a reasonable guess that ordinary light would remain rather definitely visible for a travel of a million years through galaxy structures such as ours, and that might make as many as 50 layers of galaxies visible to us. c. The last paragraph is the mechanical summary of light. It is obvious that it is in effect directly equivalent to the orthodox theory of light, but is logically rather different. I. e., the orthodox theory substantially says that light is the vibration of a geometrical point in the transverse directions — a point of ether perhaps, having no mass, but thus vibrating against enormous (effectually infinite) resistance of a solid, elastic ether; — and that comparatively the longitudinal or normal resistance to travel is so small that there is none, so that the wave theoretically orthodoxly travels on forever, al- though the orthodox theory does not call that longitudinal component a component of the wave. Further, in that ortho- dox theory, it is obvious that if that point thus vibrates, it can propagate itself only by acting on the next point ; but evidently, if it moves up to the next point it must occupy identically the same space as that point; or, if vice versa it makes the next point move by moving away from it, then there is left an absolute vacuum, not even filled with ether, and there is no way of getting the asserted reaction across it. It is therefore obvious that the orthodox theory of light is continually confused by its unsolved One and Many ; and by its efforts to talk in or of absolutely separate dimensions (i. e., to say that a wave is absolutely only transverse vibra- tions or, even worse, an orthodox plane polarized wave is only 1-dimensioned), destroys itself and its classic logic con- tinually, and gets numerous purely religious conclusions that we notice from time to time. Now, all that I have done is to sum all those orthodox verbal difficulties, get the logical method which obviates them, and then consistently describe a cell (§§97-8) which will vibrate without again 139 UNIVERSE Two XIII §126d introducing the verbal conflicts. That cell obviously gives the 8-dimensioned components properly and self-consistently combined, and we always have 8-dimensioned light and none of the orthodox confusion. But obviously, I do not substan- tially change any of the orthodox theory. I merely use a consistent verbal trick and make that theory intelligible, in the sense that it is no longer continually self-contradictory. d. However, it appears at once that because we do act- ually use a finite body as the basis of light (and thus always omit explicit expression of a part of the infinite regress of dots), we are not actually talking an absolutely continuous language (which the orthodox theory pretends to do), or using an absolutely continuous theory. Of course not; it is not possible to do so in a finite time. So we have adopted a practical method of using a so-called continuous theory: i. e., we take a continuously moving (i. e., elastic) body of a cer- tain size, and verbally ignore the inner structural details of it (the orthodox theory actually ignores the inner structure of the whole ether). So it then clearly follows (and it can be seen to follow from par. b) that we shall be forced to reject from such a positive, pluralistic science or theory all the re- ligious or mystic expressions. I. e. , in dealing with any finitely perceptible light, there is no such thing as (l) a con- stant speed of light anywhere, or (2) a simple or compound harmonic wave motion in a geometrical sense, or (g) normal dispersion, or (4) plane polarization, or (5) any other "per- fect phenomenon. All actual or experimental light phe- nomena are the inseparably connected 8-dimension vibrations of par. b, and in no case can any of the three components become zero or infinity — although any or all may at times become imperceptible. e. Our elongation or vibration of cells is formally or logically contradictory to secondary whirl formation, of course. It is deliberately so; for in order to agree with con- ventional talk, we have agreed to change our form of talk, and instead of saying secondary whirl formation' (which pro- duces at least one definite structure or dot in addition to the original structure), we say elongation' (which continuously retains the original structure, which now however becomes explicitly variable in itself, or implies dots in infinite regress). Obviously, a long continued or repeated process of secondary whirl formation produces an elongated spiral nebula (i. e., one stretched out or elongated in the transverse" directions, and correspondingly flattened in the direction of its travel — in the direction PP', Fig. 107e); then, a longer continuation of the same processes turns that spiral nebula into a cluster in which those long transverse directions short- en, and the other dimension increases. Hence, the sum of the processes of secondary whirl formation maybe expressed, in a contrary form of language, as a vibration ; for the sum actually is vibrations:- i. e. , the nebula stretches out sideways and then shrinks in that filiar plane and stretches out in the third dimension. We thus violate every explicit rule of the classic logic, but actually keep consistent by using our solu- tion of the One and Many. The orthodox assertion of a vibration also violates the classical logic — and then makes matters worse by denying that it has done so (cf. description of 3rd quadrant curve, Fig. 104b). So to sum up, when we have whirls small enough (an unessential matter of space) we see them go through all the nebular stages with corresponding smallness of time, and call the observation "light." Therefore, to a larger being, to whom our galaxy is an ether cell, the history of our galaxy in the last chapter, from its arbitrarily assigned beginning to its present stage, is the history of one-fourth wave length of light from it. f. The remainder of light consists of stating the relative proportions of those three components of light in collections of cells or bodies under varying conditions. Obviously, if we made a statement of such proportions for all the bodies in the universe, then we would have described the universe as light. §126. a. The general principle of asymmetry of cells may be put in modified terms of Huygen's principle (§§124d, 125b), as one way of expressing Bernoulli's principle:- that any cell has asymmetry of motion in the three directions of elongation (by the theory of commensurability, §50), and so truistically becomes the center of elongation of the surround- in g cells. We are going to apply that principle to cells : doing so will actually be equivalent to the application of larger asymmetries to secondary formation, which was done as the whole of the last chapter. b. We may for convenience adopt a more explicit sym- bolism for light velocities. We write V\ for the average velocity of light in our neighborhood (about 187,000 miles per second, or 8X 10 10 cm/sec). The lowest speed visible light is red, and we may write its veloicity Vxb,; the highest speed, violet, or V\\, etc. We may write a speed anywhere between red and violet as Firv, etc. c. I have been saying that an ordinary visible atom would have a filament difference surface (or some important difference surface or surface) at the approximate speed of light. As will appear, a more explicit and precise statement would have been that the difference surface had a speed such that it produced the radial elongation which had an effective speed of light. It is convenient to continue to say briefly that surfaces of visible atoms in our neighborhood have a velocity V\ ; I do not know what the varying three component cell speeds are in various circumstances, as it is a mathematical problem I have not tried — a part of the general theory of harmonic periodicity. See Reynolds's and Erwin's book for useful hints as to the methods of working it. d. Since the vibration of a cell on that atomic difference surface consists of the nebular processes or stages of a galaxy whirl (§125e), it is apparent at once that the component elongations in the three general directions are never a simple harmonic motion in any one of them, as is substantially held by orthodox light (see Wood's ' Optics," 5-8, for a short statement of the orthodox theory, and of the nature of sim- ple harmonic motion: briefly, it is oscillatory motion (l) in a straight line (2) with perfect rhythm — two perfections that are absolutely impossible in any actual phenomenon). We can see that the speed of elongation considered separately (resolved) in each of the three directions rather rapidly reaches a fairly steady value which it maintains until the re- versal of nebular form (until the spiral begins breaking into a cluster, usually by rubbing cohesion or collision with another whirl — which completes half a wave) ; then, the speed of elongation becomes again comparatively rapid ('reversing' or changing algebraic sign or direction), and takes up a rather steady value of the other sign. In short, the speeds of vibration never are represented by the orthodox perfect sine curve, or any finite compounding of such curves; always actual light, as seen by the direct analogy of that cell to our galaxy, is represented by an infinitely compounded sine curve which, as just seen, would ordinarily be a rather flat-topped sinuous wave. The one ray which comes of this cell we are discussing has not so far as I know ever been perceptibly ob- served to be of more than one longitudinal or normal speed during a time sufficient for the passage of one wave length — i. e. , to be of more than one color. That fact (that one wave of the ray appears to be of one color, whereas obviously theoretically it is not) of course tends to show that it is rep- resented by a somewhat flat-topped curve. But, as just im- plied, it is clear that every actual ray of light contains in itself the complete gamut in infinite regress of different light §126d XIII Two UNIVERSE light of varying intensity in different L and T parts of the ray, with limits of longitudinal speed ("color") from to°°, and limits of transverse speed ("intensity," which depends upon amplitude:- the length of such transverse elongation) also from to °° . So a single ray — a single cell — has or is or gives all possible light phenomena. But our perception of light simply sums light from numbers of cells into an average condition ; and in experiments our perceptions are hence too coarse to perceive that complete phenomenon just described. But it is obvious that, although as usual the poets first ob- served and stated that general truth (the truth expressed here in the form that everything is exhibited by anything, even by an ether cell ; the poets expressed it by saying that the see-er could construct a universe from a grain of sand, or by the remark about the flower in the crannied wall, etc.), still they were crude, vague, and coarse (except rhetorically), about it, and only a careful scientific investigation and rigor- ously precise statement gets at all the truth in its full One beauty. No doubt a first class poet would improve the weird rhetoric of this fearfully condensed paragraph , and the whirl stream 140 lines as the rather perpendicularly across tne w ts w j]i vary rather wave travels, then the transverse comP ° n ttention to them but regularly, and we need not pay much a changes in di- substantially describe light by describing u ^ ^ ^ ^ rection of the normal component, the pa So the last chief exception to that is polarization; 3 13 ' . transve rse paragraph is almost all we need to note a ortho- components. In the equation Intensity is of cours( \ n doxly steady ; it needs the dots that were explicitly w But our chief emphasis is on This...— on L..., the ever va y ing path of the ray. Now, curiously, but in ^c° ra with the psychological principles of verbal balancing (§155J, orthodox theory asserts that light is only the transverse com- ponents, and that the path of the ray is not light at all. But the theory then, in order to describe light, does practi- cally what I propose to do here:- describes the path which it says is not light. We have, by the foregoing, de- cided that it is more convenient to decribe light by having move the reader's emotions more. e. It truistically being hopeless to try to talk accurately of those three components of elongation of a cell (as one cell exhibits the infinite regress, and for accuracy would require an infinity of words), we shall at once proceed by mentioning only the characteristic or more effective parts of the compo- nents and implying the rest. A given cell on vibrating with three components would obviously tend to set all the cells around it vibrating in turn in the same way, following the general principles of harmonic motion (modified by the fact that such motion can not be perfect). f. The amplitudes of the elongations in the transverse directions are held in check by the structure, as seen. Or, what is the same, when those components travel out (by the law of action and reaction) in all directions from the first cell as a center, the structure makes the ether substantially a solid, so that as the ultimate limit, the amplitude of vibration of a single given cell has decreased as the square of the dist- ance from the central cell— that being the same as saying that the total transverse elongation of all the spherical shell of cells remains the same (that assumes the medium to be practically homogeneous). Or, the intensity of light, as a One limit decreases as the square of the distance from the source, assuming that it travels in dynamically homogeneous cells, and that the cells have negligible size — both of which conditions are never actually met with. It is usually ortho- doxly stated that the amplitude of a wave decreases directly as the distance increases ; but that amounts in practice to what I have just said above, because I am not talking of the orthodox abstract (really mystic) waves which actually never exist, but am talking of changes in particular cells, which changes are various units of Energy. Then, as a sum of this paragraph, we have our equation That... X This... = Energy turned into the form Intensity... Y^L...=Energy, where the structural unit is a cell, and Intensity is elongation in two di- rections, or really Z.XL, so that the equation amounts to Unit M{L... XL. .. X.L...)=Energy. And as those L's imply T, the light equation is obviously truistic with the various forms of the measuring member, and with Energy (IX). g. In the last paragraph it is obvious that in order that there may be such » solid structure, so that truistically the transverse components as they travel out may vary inversely rather accurately as the distance, we must consider the origi- nal normal direction as continually changing so as to keep normal to the whirl flows as those flows vary in direction. Or to put it perhaps more intelligibly, if we tilt the transverse directions as may be necessary to keep them always cutting the radial direction continually shift so as to be actually the main axis of the light-whirl (i. e., the whirl that would be corpuscular light), which we have seen points in the varying direction in which the whirl moves except for the spiral modification (cf. the path of S, Fig. 107e). It then follows that the radial component of motion of the ray travels by vi- bration in the ever-varying direction at ever-varying speed. We begin the examination of the details of that. h. An identically equivalent* way of reaching the above conclusions as to the path of a ray is to consider that as the three components travel out from the central generating cell, they dynamically combine with analogous components in other cells by the third law of m-H, n. That way is the orthodox way : but it involves a painful amount of direct contacts with the verbal difficulties of the One and Many— as may be readily seen from the textbooks. i. As constituting the typical light phenomenon, we may consider the radial component to have arrived at the next outward difference surface beyond the one at which we may arbitrarily take it to have started, and note the results. If we are considering a simple fluid whirl, ignoring possible condensations, the cells in that next surface will have a slower speed of elongation, and also will have their axes of radial elongation at some finite angle to the arriving elongation. The result will in general be that the ray will travel through, but will then travel at a slower speed and in a different direction. I have expressed that as if the ray suddenly changed. But obviously that change took place gradually throughout the ray's path, and the difference surface is merely a zone in which gradually (i. e., not instan- taneously, and not in zero space) a different gradual change, due to the next field which the ray is then entering, can be considered to begin. So for brevity we may speak of the difference surface as the place where the summed change oc- curs — as otherwise we would attempt to express an infinite regress ; and as there another sort of summation starts. j. That general phenomenon is inclusive of all specially named light phenomena except polarizations. In those last, it is further perceptible and expressed that at the difference surface (as the end of the summing) the transverse compo- nents are also in some degree rotated (also, they are changed in energy or amplitude, producing rotary dispersion). We consider transverse changes in §130; that dispersion in §129. k. Obviously, it is not possible (except by the impos- sible one chance in infinity) for any ray at such a difference surface to have any component entirely destroyed (or made infinite), or revolved exactly 90 or 180° (or some integral multiple) thus exactly changing places with another arbitrary component. It therefore follows directly that any difference 141 UNIVERSE Two XIII §127e surface roughly bounds' a process which has gradually taken place and is there consummated,' which process involves in some degree all the phenomena of light. (That is merely the truistic reverse form of our general statements in Part One that the convenient practical method we use for split- ting the universe into parts is to do it at the places — surfaces — where our light phenomena start"; we are now seeing that in a direct and experimental way.) That is true even though we neglect all but the average values for the components that started out to travel through the structure to the next surface. So when below any given light phe- nomenon is named, that implies that all others are happening with it. There is nothing strange about that (it applies to any sort of phenomena we can name) :- an ether cell is a stellar galaxy, and obviously every possible kind of phenom- enon is happening in the galaxy, and hence when the galaxy is thus summed up as light, and stated in terms of light, tru- istically all those kinds of phenomena are included. 1. Also, even though we start from one cell which is giving practically one color light, adjacent cells will unite in forming with that cell a sum giving slightly varying compo- nents in the ray — in any given cell in the outer difference surface. Hence, that cell in the surface will exhibit a con- tinuous spectrum — perhaps perceptibly so, as we shall see. §127. a. The last section gives a broadly detailed me- chanics of light in conventional terms, making no more vari- ation from those terms than logical consistency imperatively requires. However, even if they are conventional, they are hard to understand. So I now give an equivalent unconven- tional expression of the same thing, which although rough, is intelligible. b. Let us consider two adjacent solar systems in the galaxy. They would then be in fair equilibrium with each other, and would have a fairly balanced solar field difference surface between them (more explicitly, a field surface for each, with a little of the galaxy field between them, the sum Fig. 127b. of the three amounting practically to saying that there is a common, somewhat balanced single surface between). Let Fig. 127b roughly represent those conditions. S and S are parts of two whirls or solar systems in cross-section. A is a cell on the filament surface of S, and B a cell on the filament surface of S'. As S and S' are taken to be approximately in balance, it follows that the spiral motion in their differeace surfaces (FC and GD) are 'reversed' or 'opposite,' and about equal, as is roughly indicated by the two arrows. So for ar- bitrary clearness we may draw them as in the figure, with some of the galaxy field between — although as a matter of fact that part between the surfaces is merely an additional thickness of the field difference surface that is common to the two whirls. (That surface has some thickness; hence it is de- sirable to show in the figure an appreciable thickness, and the method used is equivalent to doing so.) Now, as light travels out from A towards a point C on the field difference surface of S it constantly encounters a weaker field, compared with its radial component: hence, by Bernoulli's principle, Huygen's principle, Newton's third law, etc. (all are equiva- lent), the ray travels in the curve AC'C, which continually increases its angle with pipi (the perpendicular or normal to FC at C) — thus arriving at the surface FC headed in such a direction that its transverse components are in about the same plane as the similar components of the cell at C; that thus makes it at least nominally the same ray of light that started (i. e., it is its dynamic result). The ray would pass through the thickness CD which was arbitrary, in the therefore tru- istically necessary arbitrary straight line CD to D — that line CD being tangent to AC C at C (i. e., it is simply a continua- tion of AC C — a geometrical verbal counter; see par. d). Then, at D, the conditions being reversed, the ray would travel in the curve DD B (the dynamical reverse of AC'C) to B on the filament surface of S , the beginning of its curve being tangent at D to CD. That is the identical summed re- sult of the path of a ray by orthodox light, when it passes from one medium to another (assuming that "all" of the ray passes the boundary, as of course is not the case; i. e., the cell at C is 8-dimensioned, and obviously some of the energy or components of the ray is absorbed, some reflected, etc. — including all of light phenomena). As a sum, to agree with orthodox summations into monism, we have the fields on an average dynamically denser than their field difference surface. Then we could, by such summations, take it that A was a point inside the dense, practically homogeneous prism PQR, which prism is as shown tangent at C to the surface FC; and B is inside the similar prism PQR tangent at D to GD. As the fields were dynamically (roughly) equal, the prisms (as- sumed of equal refractive power) would have their sides PQ and P Q parallel, so that the summed ray would be the broken line ACDB, made up of the three straight parts shown. As indicated by the figure, that ray is the orthodox ray (see Wood's "Optics," chapter on refraction). c. I shall not go into the geometry of the amount of that refraction — deviation — of the ray. It is simple : all that needs to be noted in going into this thoroughly is that when I put a space between FC and GD it was thus tacitly assumed that the two fields were made denser dynamically than that symbolic space, so that AC C leaves A dynamically bent from its average direction — and so on, similar!} 7 . The general reader needs simply to observe that all rays traveling in the universe, in any way, are continually being curved, and that we seem to see things as if they were in the direction of the tangent to that curve where it enters the eye. Ortho- dox theory of light roughly asserts that light travels in brok- en straight lines ; but even that theory admits, in order to agree with observed facts and actually in contradiction to it- self, that no reflection (e. g.) does take place exactly at a geometrical surface: — that admission is obviously identical with the general principle of no straight lines which I have just asserted, and which is proved by this whole book. d. Hence, at A, B appears to be in the direction AC' (or accurately, in the direction of the tangent to AC C at A), and the angle of that deviation from its true direction in the straight line AC is in astronomy called its aberration. But this sort of aberration (as shown by this figure) is not defin- itely recognized conventionally, as we shall see. (The true direction of B from A is AC : for if I had not arbitrarily put in that separating space, C and D would of course coincide, and ACDB would then be a straight line; but the space had to be put in to show the theory well, as we shall further see.) e. It follows that everything in the universe appears slightly displaced to us — i. e., it follows, except in the one chance in infinity that our finite eyes are in exact dynamic §127e XIII Two balance with the observed body. But that displacement is essential if we are to see it visually clearly, and not with more or less colored spectrums for boundaries. For obvi- ously, all colors actually travel from A to B or from B to A. Hence, instead of there being one path AC C, as shown, each of the infinite number of colors, because it has a speed of its own, would travel to the field surface in a path of its own, and there (as a truism of such paths) spread out into a spectrum : then, the equivalent to the reversed prism {prac- tically precisely reversed, as the whirls were taken to be in fair equilibrium) would recombine that spectrum, so that it reaches B practically all together, and it therefore seems that all colors travel at about the same speed, in free space. Obviously they do not, anywhere; but are always dispersed fan-like into a spectrum and then, because all objects are us- ually fairly in balance, are ordinarily perceptibly brought together again at the object to which they travel. Each col- or thus travels at a different speed all the time, but has trav- eled over a path that is proportionally longer as its speed is greater, so that the colors arrive practically together ordi- narily. Numbers of men have elaborately observed that col- ors ordinarily arrive practically together, regardless of their origin in free" space; hence, some have irrelevantly con- cluded that the colors must travel together at the same speed, as it seems not to have occurred to them to consider whether all colors traveled over the same path. They tacitly took it for granted that all light travels in straight lines, whereas the absolute principle is that none ever does, finitely speaking. f. S and S can not be in exact equilibrium, because as a truism of their existence, in the language we are speaking they are in mutual motion. Therefore, it is impossible for all the colors of B to arrive exactly simultaneously at A. Or to state it otherwise, there is some degree of asymmetry at C or D, and hence the spectrum which is spread upon the field surface at that place can not be perfectly united at A. It is obvious that ordinarily, in conditions of fairly steady balance, there would not be much variation of color at A from its con- dition at B; and as the colors kept on coming continually from B, any slight retardation of one color would merely re- sult in giving an apparent different color to B from what it would have been if the balance had been more exact (i. e., the actual spectrum of B at A is so slightly spread that we do not notice it as a spectrum, but merely as a slight change in color; see below). But obviously, if we now consider B to be a rather large astronomical body and hence giving off light made up of a mixture of very perceptibly different col- ors ; and if it were in close orbital motion with a companion which would eclipse it, then we could see the colors start to come. And B's orbital motion would also obviously cause quite considerable local asymmetry of B compared with the steady whirl S, and hence would tend to give perhaps a per- ceptible separation of the colors if we were at A observing B come into view after an eclipse. The whole tendency would be for us to perceive some of the colors catching up, or be- coming stronger after a time. Such phenomena have been actually observed :- Tikhoff and Nordmann independently observed a mutual variation in the speeds of different colors in so-called free space from such a source in that way. That is obviously crucial proof of the consistency of the foregoing. g. It at once follows that all that is a description of the principles of a complete sort of aberration, and that it is not possible to measure complete aberration (it is an infinite re- gress : that is another point of view of no exact science, and I shall not explicitly expand it into truisms). The actual aberration which we do note is only a part of the total aber- ration described above. What is conventionally known as aberration is the angular displacement of a heavenly body UNIVERSE 142 from the line of vision in which it appears to be, and is due, if we interpret conventional descriptions explicitly, only to the earth's spherical field. Aberration in the complete sense in which we shall use it is due to all structural variations. Such general aberration as a matter of obvious fact is practi- cally negligible for us for all fairly balanced things in our en- vironment here (where the unbalances are great — e. g., as between lenses and air — the phenomena are given different special names) ; but aberration for celestial bodies is percept- ible. The earth's spherical field is in fairly good balance with all other fields (but not in exact balance), and so gives an aberration of any star, as in Fig. 127b, at any given time. Then about six months later we are on the opposite side of our orbit about the sun, in reverse balance, and hence the aberration of the star is practically reversed (or the star ap- pears to be twice the angle of the spherical field aberration from its former position — neglecting the modification of its aberration due to the ether structure in the distance across the orbit of the earth when that distance more or less iner- venes ; that neglected part includes much of the aberration in the infinite regress of it, as is implied in the next para- graph; e. g., the "bending" of light near the sun predicted by Einstein's relativity theory is a special part of aberration due to the sun's spherical field — when thus put in terms of affinity; see §125b and the next paragraph). In brief, the transverse motion of the earth relative to the star, by Bernoulli's principle, makes its spherical field the equiva- lent of a prism. The radial motion of the earth relative to the star is provided for by Doppler's principle ("Ency. Brit.," ii, 818). It is obvious that we could take aberration and Doppler's principle as two factors giving the One or En- ergy, and completely express — explain — the universe with them. All that is omitted here. Obviously, this descrip- tion of aberration is merely the description of light from the point of view of its being received at a body ; that is simply the reverse or vice versa of its description in the last two sections from the point of view of its formation at a body or ether cell. Also, it can be seen that by following ordinary language we get bent light by ordinary principles as to structures in ordinary steady space. h. Clearly then, what is usually named aberration is simply the refraction of a celestial body's light that is due to or accomplished by the earth spherical field. The complete aberration of a given body in another galaxy would have that refraction by our spherical field as the first [or last] part of itself. The next part of that body's aberration is due to our solar whirl field — and could be measured by us if we ob- served the body's direction from opposite sides of the solar system's orbit about the galaxy axis, taking into account other changes. Also, there would be another part of its com- plete aberration if we had to view it through the sun's spher- ical field : obviously the light from the body could not come through that field perfectly symmetrically, and hence there would necessarily be some degree of deviation of that light due to that field (that being another statement of Einstein's bending"). And in the same way there is a part of the total aberration added by every difference surface encount- ered (more precisely :- by every field and filament passed through). It is obvious of course that if we look at such a body one part of that total aberration is usually in a sense op- posite to the next, so that the path of the light from it is actually a sort of wavy, corkscrew line (we saw that a whirl corkscrews itself along; we now consistently see that light, regardless of whether described as waves or whirls, does the same); and the aberration due to our spherical field is practi- cally all there remains of the body's aberration over that al- gebraic nearly zero — but possibly the aberration caused by 143 UNIVERSE Two XIII §128a the sun s orbit about the galaxy axis does not perceptibly cancel out. Of course, the One absolute sum total of the complete aberration of every body is obviously (or arith- metically, °°), so that qualitatively aberration, as a rigorous truism, does not keep us in ignorance of anything but unes- sential temporary quantities. Clearly, however, it theoreti- cally would require infinite time to measure the complete aberration of any star accurately. i. It thus obviously follows that the consistent way of describing aberration is to have the ether around the earth form a structure that accompanies the earth. It could be verbally described with valid logic in the opposite way ; but that would give all the enormous verbal difficulty that would accompany Ptolemaic astronomy (§100c; has given the rela- tivity theory as one such method). Hence, as we have been seeing, in ordinary language the ether accompanies the earth. j. In effect the Michelson-Morley experiments compared the velocity of light under practically identical conditions, except that (l) in one case light moved in the direction of the motion of the earth from a point A to a point B and back (those points being places on a large stone disk), both A and B being considered as moving with the earth, and (2) in the other case the light moved across that earth-motion in that same path. If the ether does not move with the earth (or the apparatus), then it can be shown by simple geometry that it would take more time for the light to make the trip across the earth's motion; if the ether moved with the appa- ratus it would make no difference how the line from A to B is oriented (assuming, as is practically the fact, that the earth field structure is practically homogeneous in that small por- tion of it). The experiment showed that it made no percept- ible difference — that within certain measured limits the ether was dragged by the earth. See Wood's Optics" (XXII) for the details and for other details of orthodox light men- tioned in this paragraph. We have just seen that a consistent description of aberration agrees (if we use ordinary language) with that. As stated in §124g, it is orthodoxly considered that aberration requires a still ether; it is ortho- doxly held that all experimental evidence except this Michelson-Morley experiment requires a still ether — one not dragged by atoms (which orthodox view about atoms shows clearly that orthodox light makes a dualism between matter and ether^that the fundamental difficulty it has is that it makes no explicit solution of the One and the Many). It is now obvious that what orthodox theory requires is an explic- itly expressed difference surface: for we saw in pars, b-d that the so-called still or free ether which was required was merely a formal counter of actual — not zero — space between prisms (which prisms the orthodox theory assumed with logi- cal inconsistency to be perfectly homogeneous or isotropic). (Obviously, those two orthodox absurdities — absurdities from a finite point of view: religiously or mystically they are all right — do cancel each other, and give a theory that is logic- ally consistent, but is so only in one zero point.) In implicit proof and agreement with all that, Lorentz under- takes to show that the Michelson-Morley experiment can be explained by asserting that there is a still ether (as is orthodoxly supposed to be required by all other light experi- mental results), and that the stone disc which fixes or gives the length AB is shortened somewhat by passing through that still ether, so that the actual path of the light is shorter— that then being [superficially] verbally consistent with observations. That dire.ct assertion is obviously equivalent to saying that matter which measures space varies as such a standard, so that space varies: and those ideas of Lorentz's are the base of Einstein's work on relativity. Well; obviously, if the stone is shortened by rubbing against the ether, then the reaction asserts that parts of the stone move some, and that of course requires that the ether must also move; for it would obviously be an absolute miracle, using our language, (a flat self-contradiction) if the atoms and ether thus reacted without causing the ether to move — to re- act, to be dragged, (if the language be changed to the rela- tivity theory, then in that new language Newton s third law is not so — for if space thus changes in order to avoid that re- action asserted by that law, then that third law does not hold in the new language.) Hence, to shorten the path (even by the relativity theory itself) is identically the same as saying that the ether moves. And obviously, by our method of putting the ether into a structure we show the character of the narrow or more or less nominal problem of whether the ether 'moves"; for it is then at once evident that the structural relations consistently describe all light experiments, and it is entirely immaterial (from the point of view of the total truth) whether we use the verbal form ether moves, 'or the formula ether does not move." The everyday custom of speech is that the ether moves. The orthodox theory means precisely the same thing, but puts it mystically — not scientifically, or finitely. k. U. A. Boyden a number of years ago entrusted $1000, now known as the Boyden premium, to the Franklin Institute, to be awarded to any resident of North America who shall determine by experiment whether all rays of light, and other physical rays, are or are not transmitted with the same velocity. ' In 1907 part of the accumulation was awarded to a man who was believed to have shown that cer- tain different colored light rays were transmitted at the same velocity in free space, because he showed that they ar- rived here practically together after starting out practically together. We have seen (par. e) that that solution is wrong in that it is quantitatively inaccurate and qualitatively totally irrelevant. So far as I know the premium is still offered, so apparently the problem is still unsolved, apart from this book. Here we have the complete solution (cf. §§124-6). 1. The solution of those recognized outstanding prob- lems of light is comparatively incidental. The important application of this roughly stated section (the section is so condensed that precision, and some intelligibility, had to be sacrificed) consists of showing how the spectrum is formed. Knowing that, then we can readily find the details of struct- ures of different sorts of atoms, and be in a position to find out qualitatively (and quantitatively, in so far as actual meas- ures have been made) why certain atoms have certain prop- erties, and how to use those properties — in short, we have a rational basis for all engineering problems, chiefly in terms of chemistry." So we start investigating that spectrum ; it will have to be done briefly, and hence roughly. §128. a. We shall go at the formation of the spectrum backwards, so to speak. I. e., we start with the different vibrating structures and see how they add together their ef- fects as a final spectrum, expressing the mechanics in terms of light. So that we may have no difficulty in forming a clear conception of a spectrum — no difficulty in verifying the mechanics by observation, — I shall show how our galaxy as one atom will form a spectrum for a larger being, for whom the cells in the surface of our galaxy filament have a velocity of radial component that gives him visible light. To him, therefore, our galaxy would not be large enough to be per- ceptible if it is alone ; so in order to avoid verbal complica- tions let us assume that it is in a collection of similar 'atoms,' so that the same sort of light will come from each, and add together by Huygen's principle to form an ordinary so-called flat wave-front. That simply means that if we take it that light is corpuscular, then two of those whirl §128a XIII Two corpuscles can not occupy the same space simultaneously — a truism. In terms of the origin of vibrations it is the same principle shown in §126:- that the radial component changes direction. Or it means substantially the same as the ortho- dox theory which shows that each newly vibrating cell becomes the center of light vibrations, and that by interfer- ence" light is propagated rectilinearly," and hence in "wave-fronts." That orthodox theory is well known (Wood, Optics," II), and I omit further details of it. I shall call the results of Huygen's principle the composition of light, composition of components, or results of interference. b. Then, omitting all other details of structural insides of our galaxy, it is obvious that its filament will tend to form in the galaxy field surface a continuous light spectrum — i. e., the infinite number of colors will tend to spread out as a con- tinuous spectrum on that field surface, as we shall see in more detail. But obviously, we must consider interference of light from various parts of the filament surface. If the filament were perfectly symmetrical and the field surface perfectly symmetrical, obviously there would be total inter- ference, and we would get no light: or, we could equally well say that each ray would then be totally reinforced, so that there would be infinite light — both being One state- ments. So it follows that in our galaxy, which is not sym- metrical (and remembering that we are ignoring all structures but the filament and field), at any place on the field surface there will be, as a result of what has been described as aber- ration or what is usually called refraction, a continuous spec- trum, some bands or portions of which are 'brighter' than other parts (that spectrum' is not what we see and conven- ventionally name a spectrum; the latter is the reflection of the spectrum' of light waves from a screen, body, surface of our ordinary atoms ; as we are interested here in the dynam- ics of the light wave we may use spectrum, etc., to name the condition of the waves). The darker parts of that spectrum at the field surface are due to interference of rays from other parts of the filament surface which have been "passed" through that part of the filament surface which is forming the bright bands (or vice versa, depending on relative con- ditions). The field surface is obviously fully 'over- laid,' everywhere and in every direction, with those complete spectrums ; the place on the field surface at which we would say a particular spectrum is located would depend upon the relative location of the viewing point (analogous to the loca- tion of a rainbow; this is a rainbow I am describing except there are self-luminous' and refracting continuous ether cells instead of drops of water). Hence, as each of us (or each of those greater beings) has his own point of view in seeing or describing that spectrum, each of us would have his particular spectrum on that surface, specially oriented, and differing somewhat from all others' spectrums. Our descrip- tion has here merely run into the infinite regress ; we shall get out of it with but negligible difficulty shortly. c. We therefore see that a complete or continuous spec- trum, having more or less perceptible darker bands, is the spectrum of the newest, youngest, or most fluid whirl — a whirl which has negligible secondaries and condensations. It is called a band spectrum, and is orthodoxly considered as being made of bright bands separated by dark bands; obvi- ously, there must be some light in the "dark" bands, or else we have a zero-infinity error. It is further obvious that every finite band in the spectrum, however narrow it may be, is itself a complete spectrum of the same sort overlaid on the wider spectrum, coming from a structure of different order. Or, we may briefly call it a different order spectrum. Obviously, such different order spectrums, truistically with different order whirls, will extend in infinite regress. 144 UNIVERSE d. It therefore follows, that because the cell from which any given band (regardless of how nearly zero in width, or how nearly infinite in width, the band is) comes, is taken to be of finite size (when we are using scientific language), then there must always be a certain fixed ratio between the sizes of those bands, or between their spacial separation (which is the same in principle), depending upon the finite size of cell which we originally take as a criterion (we ordinarily take a cell with vibration at V\ as standard). Therefore, the pro- portional periodicity of structure is seen to inhere in the peri- odicity of spectrum bands (or spectrum lines : a comparatively narrow perceptible spectrum band is customarily called a line). That ratio would obviously be somewhat approxi- mately proportional to the inverse square, on the same prin- ciple as Bode's law (§117). And that ratio is observed to exist, the assertion of it being known as Balmer s formula :- Wave lengtk=h[R 2 l{R 2 — 4,)]XlCT 8 cm, where for observed H lines, h is a number, 8645, and R is given successive values 3, 4, 5, 6... . That formula rationally asserts that the ratio of wave length to the other two dimensions of space (to I?, or radius-squared) is rather accurately, but admittedly ap- proximately, proportional to the numerical ratio l/E? — to the inverse square, — but that because of the finite size of the structures jR 2 has to be reduced a little, just as was done in Bode's law, and for the same reasons as were seen there, or just as Newcomb and others have empirically tried to correct Newton's law by making the inverse 2 a little greater number ("Ency. Brit.," xii, 384). (Also, Balmer's formula is sup- plemented by Biot's law; §130f. In principle the two are the same.) Of course, a completely rational Bal- mer's formula and a completely rational Bode s law would state just how much that little' is, and the general mathe- matical theory of its variations — in short, would be the ex- plicit theory of harmonic periodicity, the theory of the numerical coefficients in IX. Erwin, in discussing Balmer's formula, gives some first steps in the statement of that fully complete mathematical measuring theory of science. e. And Moseley's law (Millikan, "The Electron," 194, 201, 213, etc.) is in principle the same as Balmer's formula. Moseley observed that "arranged in the order of increasing frequency of their characteristic X-ray spectra, all the known elements which have been examined constitute a simple arithmetical series each number of which is [approximately] obtained by adding always the same quantity" — i. e., by adding the same spacial distance on the similar spectrums. Now, X-rays are roughly a different order of vibrations from ordinary light, and hence a complete X-ray spectrum more or less adds itself directly on to and beyond the violet end of the ordinary visible light spectrum, with lines representing the higher order, very rapid structures in the atom. It is difficult to refract those high-frequency waves into percept- ible spectra; so in the spectrums of X-rays it follows that only the principal higher order internal structures manage to give lines energetic enough to remain perceptible and con- stitute those simple experimental spectrums. In ordinary light spectrums numerous atomic secondaries give complicated visible spectrums. And because our atoms are energetically harmonically periodic, it follows that their higher order structures are periodic. Hence, as the method of getting X-ray spectra automatically analyzes the atoms for us by showing only the chief energetic higher order structure, it truistically follows that such periodicity would appear as Moseley's series. That is merely a repetition in concrete terms of the last paragraph ; see also par. k. If it be desired to put Moseley's law in the form of the inverse square law, we have h\lv=E?\E£, where the l's are wave lengths, and the E's are respective nuclear charges of atoms 145 (Millikan, "Electron," 20l). As a matter of fact, Moseley's law is no more exact than Balmer's formula or Bode's law (being of the same nature, as just seen). Moseley's law runs somewhat out of step in the middle of the periodic table, in complete agreement with the fact that there the rare earths get out of step. Also, and obviously consistently, the atomic weights of elements (App. B) do not always agree with Moseley's order, which is given by what is called the "atom- ic number" (e. g. , elements 52 and 53). For the Moseley number seems to depend upon the size of the chief or "char- acteristic" higher order structure in the atom, and truistically some variation in another property (say density) of the whole atom is likely to be enough occasionally to throw the atomic weight out of order, precisely as every other simple property of atoms gets out of step with any other given property. That necessarily follows as a truism of the meaning of property: for property means a particular way of considering an atom divided into parts, and so if an}' two properties maintained a regular step (stayed in step) they would be essentially iden- tical and not too properties. f. The last two paragraphs are brief statements of the ultimate nature of structure and property in terms of light, compared with all other terms. Because they comprise such numerous details they are hard to understand. g. In order that the spectrums at our galaxy field may become perceptible, visible, to the larger man we have as- sumed, they unite with others of adjacent galaxies, and build up by interference more intense spectrums, that travel on until they come to, and form spectrums at, the larger differ- ence surface that in turn incloses these galaxy-atoms (making those atoms into a solid, liquid, or gas to that man, which is self-luminous). Now, if he looks directly at that larger difference surface, his eyes, being another solid in what we will consider to be a fairly steady environment analogous to our own, are in fair dynamic balance with that collection of galaxy-atoms; consequently, those spectra spread out at that difference surface have their colors recombined at his eye and he sees the spectrums as a bright body of a certain color just as we see an ordinary self-luminous body. His particular space location will determine what spectrum on that surface is combined at his eye; hence, the color he sees is never ex- actly the same as the color seen by any other observer, if we use ordinary language. Therefore, obviously we can assert and agree that we arbitrarily (i. e., for convenience — see that important point made by Dewey in his Introduction) propose to have verbally an exact science and also a verbally steady space and time, and manage rigorously to achieve that by- being exact in naming all colors (everything would have a differently named color for each observer, and for the same observer at each different instant of time). And as the prop- erties of bodies are not in step, such an exact science would formally determine the exact relative names or measures for all other properties in infinite regress of variability. That would be a relativity theory (of color, I suppose you would call it), essentially identical with Einstein's (as well as being essentially the same in meaning as our ordinary language), but in which space and time would formally be our ordinary steady Euclidian variety. But all color would be curved (i. e., would vary in measure continually, and after an infini- ty of varying would naturally or truistically return to the same value, or "close on itself" like Einstein's curved space), and would have time as a "fourth dimension" i. e., must always be dated, as it varies with time, as a verbal truism. And obviously, any property may similarly be made the base of a relativity theory — and as we may truistically designate an infinity of properties, there are an infinity of another sort of relativity theories to choose from if our ordinary language UNIVERSE Two XIII §128j is not liked. If that observer introduces any appreci- able asymmetry between his eye and the difference surface, the spectra will truistically be appreciably spread out, and from his space location he sees some particular, now visible spectrum. Obviously that spectrum which he sees is differ- ently dispersed both in relative and in total degree from its dispersion on the difference surface (because by only one chance in infinity could the prism be exactly the effectual dynamic reverse of the various structures the light had been corkscrewing through up to the time it spread on the large difference surface). So it truistically follows in the same way that the actual spectrums we see contain in them the com- plete traces of the dynamic conditions of all the materials that make them — of every structure through which the light has passed (cf. §158c). And the other general rule which we have seen is that all asymmetries in any part of the path of a ray are represented in the final ray by varia- tions in the composition of its components, and will be indi- cated in some degree by lines or bands in its spectrum. h. We shall now see the results produced in the spec- trum by condensations in the galaxy whirl. Let us take our solar system as being a secondary whirl, and the earth a ter- tiary. Also, suppose that the observer is stationed some- where near the north galactic pole. One of the cells that we have been considering to be on the galaxy difference sur- face and to be the vibratory, arbitrary beginning of one ray, is by our definitions a lower order whirl of the galaxy whirl, just as the solar whirl is a lower order whirl. The only dif- ference in the resulting light phenomena of those cells and of the solar whirl is that we have considered the cell phenomena as being practically continuous (ignoring inner structures) : — that is consistent in principle; quantitatively, there is prob- ably such a great difference in the order of solar whirl and of cell that the light from one would be practically totally im- perceptible by any means that makes the light' from the other perceptible; the reader should bear in mind that I am making such vast quantitative discrepancies in this discussion of light — deliberately, as a temporarily useful counterbalance to the narrowness of the texts. Now that we consider the solar whirl explicitly we shall see some detail of its inner structural results in the complete spectrum made by the solar whirl — which is a band or line in the galaxy spectrum. i. A complete revolution of the solar whirl or system about the galaxy main axis is obviously one vibration of the galaxy lower order structure which the solar system consti- tutes. Clearly that vibration is a small asymmetry compared with the total galaxy; but it is always at a given time an asymmetry. And obviously, that continual asymmetry, fairly steady in all its temporary values, will steadily refract or aberrate the ray which goes from the solar whirl to the final spectrum. In each revolution the asymmetry obviously reverses direction, and hence the aberration would swing back and forth across a mean value and make a narrow line or band in the spectrum (that vibration' lasts probably some millions of our years, and would not persist in our retinas as a "band": but I am using the time and space scale of the larger man). j. Inside the solar system there are bodies which will again repeat that process (and bodies inside those bod- ies, in infinite regress). The sun has a small revolution about the solar whirl main axis. And in the same way as before, that revolution of the sun will make a still narrower band on the narrow band that is the spectrum of the system itself (I am not at all sure of the correctness of that quanti- tative assertion ; it sounds neat, but it is a problem in perio- dicity I haven't worked). But the earth would obviously be vibrating asymmetrically in the solar whirl field in a way that §128j XIII Two UNIVERSE 146 is dynamically different from the asymmetry that is the sun s revolution. So the earth also would give a line, less intense, and separated from the sun line; i. e., no two internal bod- ies or structures can ever give two coincident lines. That is equivalent to the truism that no two bodies can simultane- ously occupy the same space. So we have proved generally that every structure in the universe is represented by a line in every spectrum. Of course, quantitatively most of those lines in a given spectrum are very close to zero in every re- spect, and hence are imperceptible; and the fact that there is directly observed to be no fixed, sharp, constant line in any spectrum, especially when the conditions of the body pro- ducing the spectrum are considerably changed, is hence now direct crucial proof that there is no exact science — that mass varies with velocity — of the general argument of this book, k. Whether or not the solar system makes a line inside the limits of that large observer's visible spectrum obviously depends upon quantitative periodic relationships. As a rath- er rash guess I should say that the solar system moved rela- tively to his own general large size so fast that it would be an X-ray band, above his direct visual perception, and that the larger and longer-enduring structures of the galaxy fur- nished lines in his visible spectrum. It is obvious however that the solar system is in a certain periodic harmony with those visible lines, and that the same system of ad infinitum relationships must exist in any whirl. So summing to the One, it is truistic that each arbitrarily particular line corres- ponding to each structure is itself a spectrum which has a set of relationships infinite in number" (i. e., continuous), and hence identical with the spectrum that is each other line. There is then the final applicable truism that the spectrums of all things or structures are ultimately identical, but that the perceptibly visible part of its spectrum is for each thing different in some degree from that of every other thing, and that the intensities of the bands similarly vary. It therefore follows concretely that if a series of lines occurs perceptibly in one part of the spectrum of any given sort of whirl, then the same series can be found in the spectrum of any other sort of whirl if that other sort is stimulated in a way suffic- ient to make the differently located series intense enough to be perceptible. And that is merely a general statement of the principles underlying Moseley s observations and law (par. e) — or the fact that there are no absolute atoms." 1. This section has therefore summed, as being identical in meaning with the last section — a proof of its consistency. We have seen a very rough statement of how a spectrum is formed, and of what that spectrum indicates about structure. The reader has perhaps noted already that there are details and modifications without end, which we could start on. So far I have not been very explicit about any of the ordinarily named phenomena of light except refraction (aberration) and the consequent dispersion. But the reader may now see for himself that it would take hundreds of pages to be fairly ex- plicit about the things already mentioned. I dislike leaving the descriptions in the above rough and glaringly unfinished state; but the general reader has no special need for further mechanical details, and the professional expert can get them from the given method better than I can give them, and nearly everybody will demand that I be brief. Brevity in these days is coming to mean a jazz syncopation demanded by shallow persons ; but it is reasonable to require that I condense the rest of this chapter even more severely. §129. a. In describing dispersion above I did not give explicit proof that there was no such thing as the so-called normal dispersion, in which (to use conventional terms) it is asserted that the refractive index increases as the wave-length decreases. Conventional experiments superficially seem to show that such dispersion does exist. I shall condense the proof that there is never such dispersion. b. The light from the filament surface in the last section (or from a vibrating cell, if it be noted that in any azimuth the cross-section of a cell is a closed line) will obviously be sent up to form the spectrum on the field surface from a line of cells which, taken in any plane, is curved and finally closes on itself. It therefore follows at once, by geometry which would take hundreds of words to write with reasonable pre- ciseness but which is readily seen if you make a diagram of these conditions and happen to remember a little geometry, that no dispersion line (band, color) in the spectrum is a straight line — or what amounts to the same thing, is exactly the same color (lying in a straight line perpendicular to the length of the spectrum — perpendicular to the average direc- tion of dispersion). So any spectrum, however formed, if permitted to have lines of sufficient length, will have the ends of those lines perceptibly curved, the curves fading out of visibility (there would be in each band, before it starts curving in the opposite sense with reversed direction of dis- persion, a geometrical line of infinite — or zero — refrangibil- ity, which accounts for the perceptible fading out of visibility and completely agrees geometrically with the fact that the light started from a closed curve structure). Those curves at the ends of the lines in a spectrum are perceptible in many experimental spectrums, and are called wings. And the de- gree of curvature of each wing will truistically vary with the variation, in color. It is recognized by orthodox light theory that so-called normal dispersion is merely a special case of anomalous dispersion (Wood's Optics," 95): as a fact, the details of which I omit, normal" dispersion is a One state- ment of dispersion, or the - °° limit. §180. a. As we have seen, as a truism of the principle of asymmetry there can be no ray with equal transverse com- ponents (nor can either of those two components ever become zero). So it is obvious that always, as a ray travels along, it is encountering asymmetries which continually change the relative length or energy of the two transverse components. That is the same in effect of course as these:- (l) one com- ponent may be made so small as to become imperceptible ; (2) they both may be made so; (3) a given ratio of the two may be fairly steadily maintained, but the continual actual change of the two is equivalent to the rotation of the two about the path of travel as an axis ; (4) or those relative changes may be combined in any degree. And such phe- nomenon of change in the transverse components of a ray is named polarisation. It truistically always occurs everywhere in every ray (it is merely the same thing as the 'spiral' flow of ether in a whirl). But it is not usually a perceptible change; for ordinary light travels through whirls which are not arranged in any very steady system (a crystal is obviously a fairly steady system of atoms ; but the fluid air is not), and hence the two components are changed usually in alter- nately more or less opposite ways so that no accumulation of effect takes place; and hence there is said to be "no" pol- arization, and all the rays in such a beam of light have approximately equal transverse components oriented in practi- cally the same proportions in all directions in the transverse plane. From that average condition (in which there is merely imperceptible polarization, although it is convention- ally ' unpolarized light") practically all sorts of departures into perceptible polarizations have been observed and given numerous names (see a modern treatise on optics). Obvi- ously, there is an infinite regress of such polarization phe- nomena; we may name such quantitative variation forever. b. Orthodoxly, there is asserted to be a plane polariza- tion , in which one transverse component becomes 0. There 147 UNIVERSE Two XIII §130e can not be any such phenomenon, of course; but we may consider that in plane polarized light one transverse compo- nent ordinarily is imperceptible. Then, orthodoxly, the plane of polarization is defined as the particular plane of incidence in which the polarized light is most copiously reflected" (Wood's "Optics," 233). Then a question arises as to direction :- whether that vibration which is greater takes place in that arbitrarily named plane, or in the trans- verse direction perpendicular to it. Wood (ibid., 233, 242: possibly he changes in later editions; I haven't looked) as- serts flatly that the light vibrations take place in that per- pendicular direction. Drude ("Theory of Optics," trans. 1902, 253) says that either direction is possible, and that the perpendicular one gives simpler language; and the "En- cyclopaedia Brittanica" (xxi, 933) substantially agrees with Drude. It is a question that has long been debated ; ortho- dox science agrees that the electric vector (in the modern electrodynamic theory ; XIV) is the perpendicular one, and the magnetic the other; but as I am taking the electric vec- tor to be the filiar direction (and to be that direction only when a place on the difference surface is considered) it is ob- vious that this direction of light vibration" depends entirely upon what arbitrary point of view we take (for evidently, if we take a given point of view, the filiar direction relative to that point of view takes every direction when the whole filament is considered, as it closes on itself), and that therefore Drude is correct when he asserts in effect that the directions are ar- bitrary and that he does not know which is the finally con- sistent one. We thus see explicitly that conventional science is not in agreement as to a complete set of consistent direc- tions; and that explicitly supports §99, in which I showed that we need not dispute about directions in this book. c. It is obvious that precisely as shown in §129b, be- cause light is sent to a spectrum from curved chains of cells, then necessarily the transverse components must be both ro- tated and changed in relative value (both those changes are actually the same reaction, but it is convenient to consider the reaction from those two nominal aspects). And further :- as one monistic limit, a ray may be considered to approach being perfectly normal to that curved chain of cells, and it would then approach having a normal polarization and hence dispersion; and as the other One limit, a ray may be consid- ered to approach being tangent to that closed chain of cells, and would approach having either zero or infinite polarization in its various aspects, and hence similar dispersions. And each effect when within the One limits would truistically be of different quantitative degree for each color. The actual phenomena are between those limits, so that all light (when it is considered with respect to its transverse components, as is being explicitly done in this section) always and everywhere actually has 'anomalous' or "elliptical" polarization, and "anomalous" rotary polarization, and anomalous rotary dispersion (i. e., each color is differently rotated, so that its wings curve differently, indicating again [§129] that it is not possible actually to separate the three components of light). Combinations of such phenomena are obviously indefinitely numerous, and many are named in textbooks. Volumes of mechanical details would be needed to describe them. d. It can be seen, as consistent truisms, that those curved spectrums described in the last paragraph and in §129b are essentially in three dimensions, and that the spec- trums themselves are vibrations of cells in what can be called the reverse direction from the vibrations of the cells which sent out the light that made the spectrums. Therefore, the spectrums (i. e., any spectrum, considering it itself in ulti- mate detail) are definitely the mechanical equivalent of a whirl — they are whirls, which by definition (as we are using continuous vibrations) are not verbally allowed to go further and become verbally distinct or fully-formed' whirls. That is to say, when we start to considering a whirl in terms of continuous vibrations, then each whirl itself is, as absolutely continuous matter, transferred, as a spectrum which is that whirl, to all other whirls in the universe. Or, in short, if we start using continuous language of light waves, and keep at it consistently as we have done, then the universe becomes verbally absolutely continuous and all definite whirls become definitely all other whirls — becoming so by transferring them- selves to all others as spectrums, which spectrums turn out mechanically to be whirls. That sounds mystic and unintelligible, of course. And it is both — except from a One point of view. Even though I have been verbally ostenta- tiously declining to let go our definite, pluralistic whirl from which we started the wave" or continuous description, we see that the waves themselves, as spectra, have become the whirl, and have made that whirl universal, or indefinite, or monistic. So by being logical or self-consistent, it resulted that the whirl disappeared as a pluralistic entity anyway (ex- cept in so far as we definitely consider those cells of which the spectrums are composed as being finite in size). So it truistically follows that for any definite language or science, we must use a corpuscular theory of light. Otherwise, the mysticism, or the ineffable total continuous universe, as mon- istically expressed (i. e., not expressed at all, in any positive sense) in this paragraph, is the inevitable result. However, the foregoing verbal trick of hanging on to a definite whirl (or cell) until we are ready to sum the whole description makes that form of waves" scientific — for the final reason that they are formally explicitly 3-dimensioned. For obvi- ously, all of science, before it has any meaning, must be summed into ineffable religion. e. It is obvious further that all actual whirls or atoms are in some degree asymmetrical with respect to their chief main axial diameter and to the two diameters in their filiar plane; i. e., all atoms are spheroids with the three diame- ters unequal in some degree. So it is clear that if atoms are oriented in fairly regular simularity, as in a crystal, there will be a tendency for a ray of light to be cumulatively ro- tated so long as it keeps traveling through more atoms. Also a considerable relative difference in lengths of atomic axes would make the ray tend to have two perceptible dispersions, corresponding to those two comparatively large cumulative causes. Such phenomena and many more similar in principle have been observed. If a ray of light be sent through a transparent non-crystalline collection of whirls that are in a magnetic field, in the magnetic direction (XI V) it would obviously be rotated some with cumulative effect, and also in decreasing proportion it would be rotated some if passed in any other direction (up to the theoretical limiting direc- tion exactly perpendicular to the magnetic direction). Then, the ray, if sent back over approximately the same path, is observed to have its rotation doubled (which phenomenon is called the Faraday effect). Clearly, in the case of the ray passing through a crystal each ray is subjected to the total effect of the atomic fields (i. e. , those fields are small, and each ray is as a sum subjected to the effect of all por- tions of the whole field), and the rotation is the algebraic sum of the general, systematized asymmetry of those fields; so, as is experimentally observed, any rotation of a ray is ap- proximately cancelled if the ray is sent back along the same path through the crystal. But in the magnetic field only one direction of asymmetry is introduced (the direction of the magnetic force); hence, if the ray be sent in one direction it is rotated in one way, and if sent in the opposite direction it is obviously rotated in the opposite way, which algebraically §130e XIII Two UNIVERSE 148 doubles the numerical value of its rotation and gives the Fara- day effect. It therefore directly follows that a magnetic field is a large field around an electrical apparatus or collection of atoms, that is equivalent to the field of an atom. As the Faraday effect is obviously merely a special case, we also see that there can be indefinite variations of that effect, de- pending on how we complicate electrical fields ; many such variations in the phenomenon have been observed. Perhaps the most discussed variation is the Zeeman effect (for details of it and of other phenomena mentioned in this paragraph, see Wood's 'Optics," XVI, XVII):- briefly, it is observed that the speed or color of a given ray is changed by subject- ing its source to a magnetic field; e. g., the heavy yellow line or band of sodium will be broadened in the spectrum, and then be split in various ways (i. e. , new bands percept- ibly appear where before was perceptibly a continuous band). It is obvious, from all our foregoing descriptions, how that would occur. I might mention explicitly another point defi- nitely involved in the Zeeman effect:- the filament (or any structural part, such as a spherical condensation — remember- ing it moves in an orbit) obviously has two dynamically opposite halves. Now, in all cases any line produced in a spectrum by such a structural part must necessarily consist of at least two parts more or less perceptibly continuous; obviously, if the structure were perfectly symmetrical there would be only two parts, but asymmetries cause the number of parts to be in infinite regress. Therefore, it is obvious that if the source of light is subjected to magnetic force it has superimposed upon it a heavy outer field which makes all the whirls more energetic, and will orient all their chief structures more or less systematically, and hence will spread out their bands in unending modification, with all variety of polarizations of the newly perceptible lines. f. Biot's law is to the effect that rotary dispersion is nearly proportional to the inverse square of the wave length (Wood's "Optics," 379). That is obviously equivalent to saying that given the effect of certain transverse components (of 2 components or dimensions of space), the longitudinal component varies approximately as the inverse square. And that law is clearly the rational completion of Balmer's formula and Moseley's law (§128de). All three laws together obvi- ously agree with our general equation in §126fg, and show by direct experiment that the argument of this book is sound. §131. a. I have mostly been describing the phenomena of light from the point of view of following the ray out from its source and observing how it changed with respect to its longitudinal component (§§127-9) and with respect to its transverse components (§130) — it being noted that the com- ponents are not actually separable. Now, obviously, the whole of light may be described from the opposite point of view:- considering rays as coming in from all directions upon a cell which is to become a source, and observing how those rays combine — what sort of source they make, or how they modify the cell. Obviously, always the rays must first be built into the structure of the cell as part of the cell, and in the end sent away modified (that being a truism of what a ray is); and conventionally that phenomenon is divided usu- ally into two parts:- (l) some of the ray is sent away {re- flected) almost at once; and (2) the remainder of the ray is more extensively built into the structure of the cell {absorbed) and later on sent away seemingly as new" light. (The orthodox descriptions talk of total absorptions, reflections, etc. ; but obviously, all of that zero and infinity talk about total means merely perceptible," relates to nothing which actually happens if it be explicitly interpreted, and so is not scientific and may be ignored). Briefly, all those numerous possible phenomena may be described from this other point of view by reversing the descriptions already given, and picking out conventional names for the result, so far as there are such names. The point to be emphatically kept in mind in doing that is that the cell is itself bound by a closed line in any cross-section, so that always anoma- lous" and rotary" phenomena will necessarily occur. b. Those various details of reflection, absorption, diffrac- tion, scattering, color (all color is in some degree body" color and not in any absolute sense surface color, as ob- viously no light can be reflected by or at a geometrical sur- face), calorescence, fluorescence, etc., will have to be mostly omitted here. I shall imply a few of those phenomena in the next section (the last on light), by showing the principles of so-called cold light. §132. a. It was implicitly shown that a self-luminous source of ordinary visible light is a collection of atoms which has some of its principal difference surfaces at V\ as a result of its own internal energy. And that at once implies that those atoms are considerably out of balance, or generally high in potential with respect to most other bodies in our environment; for obviously, most bodies in our immediate environment are not quite self-luminous a — the general po- tential of our earth-surface is slower than that of the luminous sun-surface which is our chief source of visible light. Visible rays come from a source and fall upon the difference surfaces of our usual bodies. First, a little of the light energy is ab- sorbed by those slow atoms, and usually speeds up the whole atomic structure a little, and that gradually and smoothly and without much unbalancing brings some of the surfaces to ^irv. (if all the perceptible surfaces are too far below Vya. to be brought up in speed that way, obviously the body or collection of atoms will be transparent.) It clearly would take a little time thus to speed up the surfaces ; there is a. time lag in all finite phenomena (§§101, 136, 149, etc.); in light that lag is usually too short to be perceptible. [Ex- plicit recognition and use of that lag in light would give for light in the M{varying with)L 2 T~^ member, two coefficients corresponding to the electrical K and U, etc. ; see the dis- cussion of Ohm's law, §136. So it is obvious that the ortho- dox mathematical theory of light will have to be substantially wholly rewritten, if a reasonably consistent mathematical theory of light is desired. This parenthesis suggests several volumes of mathematics, omitted here.] Second, after that absorption during a little time lag, the cells usu- ally begin to give out rays (to "reflect" the light that falls on them), at a rate and in a form of structure in nearly exact balance with the rays still arriving (so that the angle of inci- dence is approximately equal to that of reflection, except when perceptibly modified by the curved difference surfaces, when various well known modifications of such reflection 182a xhat is implicitly shown by Le Bon, in "The Evolution of Matter" (Legge's translation, 1911), by giving numerous experi- ments on what he calls "dark light"; i. c ., our usual atoms are just below the limit of visibility with our eyes. Also, invisible atoms continually give out various other invisible rays : quite possibly some of those rays have a velocity V m v , but with intensities below per- ceptibility; but there are probably rays of different orders (X-rays, results of secondary whirl formation, etc.), which naturally are invis- ible, although when given time enough they will register on a photo- graphic plate. Those facts and guesses imply quantitative problems, concerning which Le Bon's book bristles with suggestions. He an- ticipates many important general conclusions of science:- e. g., he gives experimental proof of no constant atomic weights (in several places), and definitely asserts that principle (ibid., 160). But he de- nies the principle with reference to matter (121); or he vaguely as- serts the need of a dualistic Creator, and in definite effect asserts dualism of ether and matter (74). Le Bon is a sort of bad boy of science; he keeps bringing out the family skeletons and advising that they be thrown away— giving first class experiments to prove his point. But he never actually throws them away. 1+9 UNIVERSE occur). Those given-out rays are roughly what is conven- tionally known, in other context than this talk of "reflec- tion," as cold light — the name implying that a high percent of the energy received is given out as visible rays; of course, all energy received may be considered to be given out as some sort of rays (calling secondary whirls of any order rays, as is possible: such whirls may be said to be light that has a very large time lag). Sometimes, however, that light is not so nearly exactly balanced as in the phenomenon called re- flection, but makes the difference surface luminous by adding energy that is then given off as rays of perhaps different col- ors and not necessarily in definite relative directions : then the "cold light" is probably a little less cold (a little less efficient ), and the phenomenon is called fluorescence. When there is a perceptible time lag (as there usually is with 'fluorescing' solids) the phenomenon is called phosphorescence; the lag may be for hours. Obviously, in principle cell reflec- tion and absorption must be accompanied by some phos- phorescence, and there can be no such thing as an exact fluorescence with a zero time lag. b. Obviously, the most efficient cold light is thus re- flected light (or phosphorescence, in somewhat less degree), and it is such because there does not have to be any general raising of the potential of the reflecting atom. Only the chief difference surfaces are smoothly raised to a higher po- tential, without so many unbalances being produced that (truistically) considerable secondary whirl formation percept- ibly occurs (as heat or unsystematic formation, usually; as chemical reactions when continued long enough to be more systematic; as radioactivity, if continued longer still — for perhaps centuries — so as to systematically perceptibly change even elements; or as electricity, when collections of atoms are perceptibly systematized). That sort of reflected light or cold light with no practically perceptible time lag is used by us all the time when the sun is available. When we speak of cold light however, we usually mean that we want a cold" source of light when the sun or other natural source is not available. Obviously, the best such source would be to construct atoms which have an absorbing lag of about twelve hours, and then a phosphorescing lag of about the same time. It can be done of course ; it is a quantita- tive problem and the principles are simple ; such a collection of atoms would be a light storage battery. It is perhaps a difficult quantitative problem, however, and possibly imprac- tical. So we consider other less efficient cold lights. c. As the reverse of a fact seen in the last paragraph, all chemical reactions are in some degree phosphorescent — often perceptibly so. Actually, all our sources of artificial light in which we use what we call combustion (as in oil lamps) apply that fact — are reactions in which the phosphor- escence is intense. Because that combustion reaction is so intense, usually there is much secondary formation, using much energy in invisible rays. So if we make the chemical reactions slower, as in a fire-fly or in some decaying woods, there would result more efficient light. Also, it is obvious that if we have more or less a ball of atoms, of great size relative to the size of one atom, there will be many visible rays formed which can not get out, and will build up larger structures than visible waves. So, other things being equal, it would give more light to have thin layers of atoms as a source. Also, if the atoms may readily slip on each other (have weak fields, as in a gas or liquid), they will use consid- erable energy by such motions — with resulting secondary whirl formation. So again, other things being equal, it is preferable to have dense, strong atoms that are crystalized. d. I omit the easily seen principles of how to get effic- ient light from radioactivity and heat, except to show how the Two XIV §133c artificial lights we ordinarily use apply some of the heat prin- ciples. Burning gases are fluids and not very efficient in producing visible light; so they are used to heat mantles that are comparatively thin layers of probably crystallized atoms, and hence by the last paragraph give a larger proportion of visible light. And the general principle of phosphorescence (that the atoms should be raised in potential smoothly; par. b) ought to be used. And that principle perhaps has been used in those mantles (by trial and error — certain rare earths be- ing best so far as is known). Also, the same principles are applied when tungsten is used for lamp filaments. Tungsten except by one chance in infinity is not the best material. e. Apparently the simplest form of the quantitative problem of cold light is the electrical. We can in a short interval of time give a strong electrical jolt to a thin crystal- line material and remove that boost in potential before there is time for much secondary formation. Such a voltage jolt- ing is obviously analogous to light vibrations themselves — the jolts are vibrations of large, enveloping magnetic fields. And fairly good cold lights have been made on the electrical principles just stated, by Dussaud ( Harper's Magazine," July, 1903); but Dussaud's seem to me practically to cost more to construct and maintain than is economical. f. It appears again, in this summarized practical view of light, that the chief importance of light in our future use of the environment lies in applying it to get the definite struct- ures of atoms. Obviously, if we know the structure of par- ticular kinds of atoms and molecules we can find what structures give particular properties, and what properties are quantitatively consistent (i. e. , are in harmonious periodicity); and subject to such natural quantitative relationships, we ob- viously can design and construct atoms and molecules to meet any given need. That applies, by the total of valid logic, to molecules of our nervous systems also : given enough knowledge, we obviously could make or construct first class brains by giving proper food and environment. This book proves in principle that such civilization is possible. I have extensive ignorance of the quantitative measures. CHAPTER XIV. Electricity. §133. a. In astronomy we discussed formally or log- ically separate whirls one by one; and in light we re- versed that to a certain extent and had collections of whirls which were considered continuous. In each case we were simply following our usual way of observing identical phe- nomena, which have been named differently because we do take those two points of view with them. Now, electricity is the same phenomenon (ultimately, that of reaction by co- hesion, force, love, etc.); but we take another point of view and so the description is in new or different L and T terms. b. And this new, but obviously entirely arbitrary point of view of That's and This's consists of taking perceptible or larger whirls (even molar bodies) as unit collections (as elec- trical "circuits," etc.); viewing them sometimes one by one and sometimes as if continuous, and with this additional changeableness of point of view:- (l) sometimes we consider ourselves in a static part of the universe looking at one of those collections that is moving or dynamic (giving us mag- netic electricity or magnetism) ; (2) and sometimes we con- sider ourselves in that moving part looking at a collection of whirls which directly displays no magnetism because we tac- itly or logically move with it (giving static electricity). c. That new point of view, in which we see matter or moving ether in a certain aspect, is called electricity (or more precisely, the point of view is called the science of electricity : §133c XIV Two UNIVERSE 150 electricity itself is matter) : and it obviously is logically in- clusive of astronomy and light. We merely have new con- ventional names (many of which are used in everyday life) for collections of whirls which I have heretofore usually de- scribed without mentioning their electrical" names. The novelty of the new point of view is chiefly that we take two points of view of the phenomena without conventionally be- ing very explicit about what we are doing — and hence are orthodoxly surprised when there bobs up at the end a K-Xzj-X that is equal to V^ (§77). d. Let us, in order fully to understand that convention- ally omitted condition in electricity (it does pop up finally, as just stated), consider an astronomical analogy. Suppose we fancy ourselves established at some convenient place in the galaxy field, so that we can view the galaxy filament and the solar system. If we are in that field, then we move with the field let us say; but by ordinary conventions we omit saying anything about our motion, taking the field as static. There is nothing abstruse or difficult about that:- if we wish to state how we go from Boston to Chicago, we say that we go west, thus verbally or by language agreement taking a static earth — while with reference to (say) the sun we would travel in a complicated path, which was at one time or another pointing in every direction. e. In the next two sections we see those two sorts of electricity more in detail. We need to note further here that theoretically we can obtain from each of the two points of view all the phenomena heretofore described. And we obviously can not obtain any new kind of phenomena as elec- trical ones — for all of electricity is merely reactions of two or more parts of a machine (that being a truism of par. c), or additional ways of naming the dots in That... ~KThis... . So former descriptions, with the names or L and T changed, will apply to electricity, necessarily an essential repetition. Therefore, except for brief indication as to how to start any explicit electrical description, I shall omit the possible vol- umes of electrical phenomena. The fact is that electricity is the easiest phenomenon to decribe mechanically ; the reader who has grasped the general idea of mechanics can readily do it for himself if interested. §134. a. If any whirl be moved relatively to another whirl, truistically the fields will react (by direct friction if the two are adjacent; by indirect reaction of whatever chain of whirls intervenes, if the two are not adjacent) ; and the reaction or result is conventional!}' called electricity (actually it is conventional electricity if the resulting series of phe- nomena is perceptible; but we take it that any phenome- non is perceptible if we observe closely enough). We might of course say that an electrical phenomenon could and does occur as the reaction or relationship of field and filament of one whirl which is either the whole or a standard universe ; but so far as I can make out, conventionally electricity is the reaction of at least two explicit whirls or collections of whirls. That conventional definition makes electricity a rela- tionship, or a force, or God the Holy Ghost — which shows (cf. Part One) why the conventional electricity" is so in- tangible or ghost-like. But, as we saw in Part One, we can not have a force alone; the force is a verbal device which implies whatever concrete parts there are which are thus re- lated—and those implied parts are matter. And orthodox science, which holds that an electron is a unit of electricity, obviously holds that a small whirl (a part of an atom) is elec- tricity — which is the same as saying that electricity is mat- ter. And it is quite orthodox to say that electricity is energy. So conventionally, electricity is used as all three of the Trinity. So I shall use it as any of the three (§124<). b. As all whirls are, by our verbal agreements, moving relatively to each other, it follows that electricity is a uni- versal phenomenon (see par. c for experimental proof) ; elec- tricity, in that One extensiveness, is clearly a new name for asymmetry, incommensurability, or rhythm. It will be ob- vious after a little thought that when two bodies have, in our environment, been in fairly good balance with each other for some time, their fields are mutually balanced pretty well and have no perceptible rhythm, so that we say that the two have zero potential of electricity — are not electrified. Then (l) an unbalance occurring on one side of such equilibrium is called negative electricity (negative potential or direction is what is explicitly meant); and (2) the other, opposite direction of unbalance is called positive electricity. As a fact, we do not even know, with reference to any body of considerable size (say the sun), just what potential our arbitrary zero" elec- tricity is; i. e., it may by such a standard change consider- ably from year to year (truistically, it does change some). c. If any two collections of atoms be more or less ener- getically rubbed together (i. e., moved relatively to each other'), and the two collections be made of atoms the axes of whose fields are not readily or quickly changed indirection (i. e. , if the collections are not good conductors, or are insulators"), then there will obviously result a consider- able surface unbalance of equilibrium if the rubbings always take place in the same direction (i. e. , do not neutralize each other) ; or, what amounts to the same thing, if the two collections are made of somewhat different sorts of atoms such as a piece of glass and a fur skin (so that the two sorts of atoms are not oriented the same on the molar surfaces, and hence the rubbings, whatever their mutual relative directions, accumulate an unbalance). Such a considerable amount of unbalance is perceptible, and is static electricity. Obvi- ously, such a condition of unbalance would result from any relative motion of two atoms, however small ; but only in special conditions such as described does the unbalance ac- cumulate locally into directly perceptible "static electricity." Thousands of experiments prove that general statement. d. Obviously, in the creation of that static electricity the filaments of the atoms are either speeded up or slowed down: are changed in energy. And that changed condition of the filaments tends to persist (except in so far as the fields are of such nature that they distribute the energy unbalance conduct it, — as is always the case in some degree: i. e., there are no perfect conductors or non-conductors). So it is evident that in so far as that "charge" of electricity is actually static (in so far as the fields do not readily orient themselves, be conductors, and move the electricity as a "current" elsewhere), then the motion (or lack or decrease of motion) has been taken up by the filaments, and the fila- ments are what we might call the dynamic part of that static electricity. The 'dynamic' electricity, which is thus 'in- side' the "static charge," then consists of a "current" that is the filament of each atom (or, more explicitly, is a part of the energy of that filament if we imply the usual arbitrary zero electrical potential). That "current" is the filiar com- ponent (§125a), and is probably the orthodox "electric force" ; the other transverse component (the circumferential component) is the orthodox "magnetic" direction; and the radial component (the direction in which light travels) is the direction of electric pressure (or attraction — to name it from the opposite point of view), and is perhaps the orthodox di- rection which Maxwell calls "electrical displacement" (see also §135c). I have not carefully checked orthodox electrical directions, in comparison with those I have just named and the point of view in §135c. The difficulty is that in actual phenomena— as contrasted with the conventional mathematical theory — one direction rather promptly closes 151 UNIVERSE on itself (§135c), as do the others with less celerity, so that and the other a Two XIV §134j like our filiar or current direction just mentioned it has really a continually changing direction, instead of a mathematically abstract fixed one. So it is difficult to judge what directions orthodox mathematics, such as Maxwell's, are referring to. I personally cut the Gordian knot by not bothering to observe when dealing with such theory, but we must know directions in practical application. Clearly that current is in all directions, and so that component internally approxi- mately balances itself; the magnetic component similarly balances itself; and the static charge therefore exhibits no perceptible magnetism (because dynamic electricity does ex- hibit magnetism it is called magnetic). So the only some- what unbalanced and hence perceptible component is the pressure or attraction, which is the accumulated sum in some given direction resulting from the rubbing. That component obviously corresponds to the direction of propagation of light and truistically is directly analogous to light pressure. So from this point of view electricity can obviously be put in terms identical with light, with unessential L and T differ- ences. And that single perceptible component would evi- dently be very -weak compared with the other components, which become perceptible in dynamic electricity. e. To see definitely the ways in which that unbalanced component of force makes the charged body move, we must add other facts about the charge. Clearly, the charged atoms must be just a thin surface layer of the atoms of the charged body. That is a truism of the foregoing definitions, and is directly proved by Faraday's icepail experiment" (Watson, Physics," 641-2). It can be seen explicitly by the follow- ing considerations:- A charge can be generated on a body which is a conductor, provided the body is insulated. If in the generation there is exerted enough energy to do more than charge the surface atoms (which on their sides towards the air, are not well supported' or balanced by the mobile air atoms), then the resulting phenomena are called by other names:- obviously, there can be perceptible heat, light, eddy currents, etc. And evidently, for a body which is not a conductor, the resistance to any perceptible charging of inner atoms is greater. Truistically of course all the atoms in any charged body are to some extent modified, or are charged imperceptibly. The simple point is that the sur- face atoms are supported by the surrounding non-conductors (air, etc.) in a degree different from their inner support by field friction with other atoms of their sort, and the rubbed unbalance perceptibly accumulates as a static charge. f. The charged atoms truistically are in unbalance with surrounding ones. We may take it that the spirals in their outer field surfaces are in effect screw threads, so that the atoms tend to screw themselves along in some direction (be- cause unbalanced, and as a means of getting balanced — just as the solar system is balanced by its revolution about the galaxy main axis). Or, that same tendency to move can be expressed by Bernoulli's principle, or by the principle of any machine, as seen in analogous cases. Clearly, if there is an unbalance 'sideways' (i. e., in any direction in the geomet- rical surface of the charged body) the charged atoms move in that direction, until there is fair sideways balance: that implies all the remaining details of the icepail experiment, of the accumulation of charges on points and more rapid dis- sipation from them, the variation in the appearance of posi- tive and negative "brushes" of light during such dissipation, etc. Thus, rather rapidly all the charged atoms become ori- ented so that their tendency is to move in the (effectual) normal or radial direction to the surface zone they are in — they tend to screw themselves into or away from the body they are on (one direction characterizing a "positive" charge negative"). If the charge is on a fairly good conductor, which ends in a point, those reactions cause the charge to accumulate thickly there, and a percept- ible brush discharge may take place, which probably is a translatory motion of some of the atoms, and certainly of atoms of the air (for an "electric wind" can be felt). And that phenomenon may accumulate until a spark discharge oc- curs that is still more probably a translation of some charged atoms (for the sparks will make holes in paper, etc.). The problem of just what it is that moves is a quantitative one that can not be definitely decided except by actual measur- ing. I remember reading somewhere that those sparks have been experimentally formed into balls," that move rather slowly; in such cases it is likely that the discharge can be experimentally shown to be a whirl. Obviously, it is theo- retically possible experimentally to make the charged body's surface' give off a collection of atoms, which will form into such a ball, or secondary whirl — of the molar body. That is an electron of huge size — of a molar body. g. Ordinarily, the charge is more or less rapidly distrib- uted over the whole surface of the charged body (unless that body is a poor conductor), and truistically, then the electric pressure is the same all over a sphere, and analogously on other bodies, balancing itself without motion of the body. h. But if two bodies, with centers A and B, charged with the same kind of electricity, be brought rather near together, obviously the atoms will screw themselves through the air in the same direction with respect to their respective centers (i. e., the atoms of say the first bod}* screw them- selves towards its center A, and those of the other towards B). Those directions are opposite to each other; so charges of the same sign or kind repel" each other, and of opposite signs attract." As charges of opposite sign are always cre- ated by any mutual motion of separation of two bodies, then obviously the attraction" of opposite signs is nothing more than a statement, emphasing affinity,' that is the reverse in form to "inertia" (§88) — absolutely proving these mechanics as it reduces the expression of electricity to truisms (§35). i. In the last paragraph the actual perceptible motion of the charged bodies themselves is obviously always preceded by the motion of the atoms on their surfaces in the appropri- ate directions, causing unequal piling up of the charges on those surfaces. That is merely the reverse way of stating the previous distribution of the charge, in par. g. That in- dicates the principles of electrical capacity, etc. j. It is obvious that that screwing action actually has components in three dimensions. Or, expressing the ten- dency of the two bodies to move apart or together by Ber- noulli's theorem, their flow relative to each other as a truism gives components of pressure in the two transverse dimensions. Obviously, in no finite, actual, positive science can we absolutely separate those three components, or reduce their number. So we truistically get these important general conclusions :- The zero of potential is arbitrary — is merely the average electrification' of our present environment. So we may take an almost absolute zero of potential as being one which is very near to the body's not existing finitely. And as no two finite bodies can be perfectly balanced, it follows that every two bodies have different potentials; hence, with respect to a fully absolute zero potential every body is of a different potential from every other body, and, as a truism of its existence, attracts every other body with a force having three components. And it is obvious that the component on the straight line between the centers of the two bodies is orthodox gravity, and the other two components are orthodoxly un- named, except implicitly as the square of the distance in Newton's law. That separate component can not exist alone §134j XIV Two UNIVERSE 152 with finite bodies ; always it is inseparably bound up with two other components — which in electricity I have named the current or electric component, and the magnetic component; or in light, the transverse components ; or are combined in molar mechanics and named chemical affinity (thus when Einstein talks of light being bent, he introduces at least one of those two; when I talk of light corkscrewing, I introduce both explicitly, and talk of 'affinity'; §127). (Thus molar mechanics can be made absolutely identical with electricity, etc., by considering those transverse components as being verbally separate.) So it is obviously truistic that if any two .bodies get into an equilibrium so steady as to have the two transverse or affinity components very smoothly balanced by the bodies' mutual revolutions, then the longitudinal attrac- tion and repulsion is so smoothly balanced that we say there is no "electrical" attraction, and the comparatively minor attraction or reaction remaining externally perceptible is named gravity; and as there is practically no change in it (none was perceptible to Newton), then gravity is said just to exist {implying, when we have knowledge that there are two other components, that gravity travels at infinite speed — which truistically drops T out of molar science"). This paragraph expresses the ultimate truisms of the nature of gravity, in all three of its Trinity forms. And this section therefore expresses the mechanics of gravity in complete gen- erality — in explicitly implied terms of any variety of machine and in explicitly implied terms of any sort of phenomenon. No further mechanics of gravity can exist. But obviously, many volumes of the explicit mechanics which are only out- lined here could be written if needed. k. The verbal trick in getting a consistent descrip- tion or mechanics of gravity obviously is to use finite bodies — 3 dimensions, — and thus not drop time. Newton's law implies, and asserts in so far as it is explicit, two masses at or as geometrical points ; and obviously a consistent me- chanics of gravity is forever impossible for such points. After we have the simple trick of three dimensions, all that is re- quired is a. little intelligence in recognizing the various con- ventional names already given to the reactions of the other two components, and to refuse to ever take them as really splittable — dualistic. In this section I have been explicit about those other two components. But Reynolds's and Erwin's mechanics of gravity use ^-dimension space, includ- ing T. Descartes, with his 8-dimensioned vortices perhaps may be said to have correctly implied the mechanics of gravi- ty. Bjerknes probably has a correct gravity (§94a). Cre- hore with some indefiniteness gives the correct mechanics of gravity in terms of the mathematical theory of electrons ("Sc. Am. Supp.," April 13, 1912). Gautier briefly and generally gives a correct gravity (Le Bon, "Evo. of Matter," 98, quoting from "Revue Scien.," Jan. 13, 1904). That makes seven men I know of who have apparently independ- ently stated the mechanics of gravity with fundamental con- sistency. Probably others have escaped my notice. §135. a. If the rubbing of the two collections of atoms be continued, obviously the static charge will accumulate, and there will be a greater and greater tendency for the charged atoms either (l) to move bodily in the appropriate direction, or (2) to give off secondaries in that direction (to give off electrons, which will travel in the negative" direction and by the third law of motion kick the remaining part of the atom from which each comes, a little distance in the "posi- tive" direction), or (3) to change the shape, speed, spirals, or ' pressure" of their fields in such a way as to restore equi- librium. Those same tendencies obviously existed with the charge; as soon as they somewhat perceptibly act, then there is an electric current" and we have explicitly recognized the existence of those fields (as expressly distinct from their fila- ments or condensations) which previously we neglected ; and we have dynamic electricity. Clearly there is no sharp dis- tinction between static and dynamic electricity — merely the quantitative one of when it is that we care to say that the field reaction ( magnetism") is perceptible. And that is cru- cially proved by the Rowland experiment, which shows that a charge moving fast enough is perceptibly a dynamic current (we saw in the last section that all charges move some). b. In the last paragraph we saw that a current may be motion of nominally three sorts. Those three are ulti- mately identical:- i.e., a change of shape or spiral of the field will move the atom somewhat (and will keep on moving it as an "ion," if it is fairly free to move); and that change of the field may accumulate an unbalance which splits a mol- ecule into parts called ions, or splits small secondaries off of atoms as electrons, or with more difficulty splits an atom into different "elements" (as has been done experimentally in vacuum tubes). Truistically, some of that actual motion and actual splitting will happen in any current: but probably the chief part of the current consists of the changed pressure of the fields which exists throughout the circuit. And those various aspects of the same final principle of temporary unbalancing of whirls obviously give unlimited scope for various phenome- na of currents — mention of most of which I omit. The chief point to be noted is that consistently described currents do not need to have a flow of any fixed or proportionate number of electrons" per unit of current (although taking electron in the complete One sense of any size secondary, truistically the current is all electrons). D'Albe ("The Electron Theo- ry") gives as an outstanding defect of the orthodox electron theory that such a fixed flow is required, but does not experi- mentally occur (more modern versions of the theory attempt to avoid the difficulty by tending to revert to the One mysti- cism just mentioned, where an electron may be anything). Electron flow — of scientific, finite electrons — occurs only if the current is somewhat unsteady at the place where the flow is perceptible. Truistically there can be no perfectly steady current; therefore, the size of the jerks in the flow (or the jerks or knocks in the vibration or spirality of the fields) de- termine whether (l) electrons of a given size, or (2) ions, or (3) new elements, or (4) new chemical compounds, etc., 'flow' as the current. In short, theoretically the current may be used to give, or is, a 8-dimensioned spectrum. Such spect- rums are actually exhibited in vacuum tubes (as striations, bands, canal rays, etc.). This description is obviously applic- able to the numerous novel experiments so ably made by Thomson. And the good physicist can readily see from these general mechanics just how the various quantum theories give quantitatively consistent results. They are harmonic periodicity, applied to electrical phenomena. c. When the atoms thus form a dynamic current, that collection of atoms which forms the closed circuit of the cur- rent is effectually (i. e. , dynamically) a filament of a larger whir] or 'atom' (and the filiar axis is the electric or filiar di- rection or current direction), of which the field is the magne- tism. And the magnetic direction is the direction of the well known "lines of force" that go around that filament, as the field flows around the filament in Fig. 98n. And the direction qf (static) electrical pressure or displacement (cf. §134d) is the direction of the vector sum of the normals to those magnetic directions — i. e., it is the direction of the main axis of the large whirl of which the current structure is the filament. Thus, in dynamic electricity, we move ourselves into the atom, so to speak — into this big whirl. So the first two compo- nents or directions become perceptible (they are strong com- pared with "static" quantities), and Maxwell's displacement 153 UNIVERSE Two XIV §136a or the static pressure component, which in static electricity is the only perceptible component from our point of view outside the circuit- whirl, becomes imperceptible in most cases, for precisely the same reasons that the analogous component of motion of the solar system (its motion more or less in the direction of its main axis NS , Fig. 107e) is practically im- perceptible to us. But obviously, the whole current circuit, with its magnetic field, constitutes one "statically" charged whirl (§134 J' "^r 113 ' 7 S "° unba,an « Perceptible in Landolt s w.der conditions (it is the principle seen in §25c 155 UNIVERSE Two XV §138c that the late Kaiser was right and beautiful if we take in enough of his environment). I. e., the total universe is ab- solutely in balance : and if we observe enough of it at one time we can not perceive any unbalance of that with the rest. So Landolt's measures are probably right in both cases ; but in the case of correcting," where he perceived no change of weight, he proved, not that no change of weight occurred in the chemical reaction, but that none happened perceptibly in the phenomenon of the reaction plus enough of the L and T environment to make a perceptibly standard One. In short, he became technically such a good and careful and exact ex- perimenter that he lost sight of his real point. It is possible to be just as intemperate and frenzied in exactness in experimenting as it is to be intemperate in the use of alcohol or in a refusal to make any "material" experiments (to verify dogma). Materialism is the result of taking experiments too seriously; scholasticism or sentimentalism or the Wilson pseudo-idealism is the result of taking principles (or in prac- tice, dogmatic authority) too seriously. Both sorts of intem- perance lead to equal error and human pain. E. g., excessive experiments led to materialism and the Prussian militarism ; excessive dogmatic, dictatorial, unverified dogma or principles led to the Inquisition, etc. Valid science is a temperate balance of experiment and of principle — is rigorously simul- taneously inductive and deductive (as proved in §163j). e. And the same thing happened in the antiquated ef- forts to get exact atomic weights. When atomic weights of a given element are found in several ways by means of different chemical reactions, often they perceptibly vary con- siderably (Ostwald, Outlines of General Chemistry," trans. 3rd ed., 1912, 126-50). The effort substantially was to sub- ject the given atoms to a severe and lengthy bombarding, and shaking, and smashing (by means of chemical reactions mostly). They thus got nicely worn out and smoothed off to a sort of aged average condition, and if the averaging were sufficiently enthusiastic, obviously any element would give an apparently exact atomic weight. But the conclusion to be derived from that is not that atomic weights are constant : the relevant conclusion is that we can by sufficiently widen- ing conditions of given atoms get an average weight which is perceptibly steady. That correct conclusion as to exact — really, average" — weights is a correct One conclusion ap- plying to a standard universe that includes an elaborate, rather standardized, violent laboratory environment: it tru- istically does not apply to specific atoms in a natural condi- tion. It would be more intelligible if it were made a whole One conclusion :- that in the whole universe all atoms are arbitrary anyway, so ultimately all atoms of all elements have the same exact weight, namely or °° . as we choose, f. The Brovvnian movement consists of motions of very small solids, etc., in a fluid, like the dust in the air that is seen in a beam of sunlight. Evidently, if the particles are small enough their fields, by reacting with the fields of the atoms of the fluid will more or less support them against gravity; i. e., the "movement" exhibits some affinity just as do the structures of our galaxy (XII). Perrin ( Brown- ian Movement and Molecular Reality," Soddy's trans.) sub- stantially concludes that those particles (l) move in straight paths to collisions, (2) are exact and eternal in their motion, and hence (3) that such observed motion proves the existence of exact and absolute atoms, of exact weights, etc. which measures he calculates. (Millikan gets different measures by experiments of a different sort.) Of course, as Perrin him- self unconsciously admits, by tinkering with conditions long enough he does succeed in getting perceptibly steady aver- ages : but he had no such steadiness in his first unsophisti- cated conditions. Truistically, the Brownian particles do not move in straight lines, are not perfectly elastic, and do not achieve any perfect or permanent distribution — they actually will either agglutinate, or else will rub themselves into small enough pieces" to 'agglutinate' with atoms of the fluid (re- act chemically' with them; or become a solution, or ions), insofar as they do not agglutinate chiefly by gravity at some stage. Obviously, by catching them in their career at just average condition, "exact" values apparently result. g. The first measured weights of electrons varied from about l/lOOO to 1/2000 the weight of a H atom. But the experimenters, in more or less conscious imitation of each other, are getting the conditions of measuring electrons standardized, and getting apparently a more exact value. Of course, those experiments have a value, as they indicate what are the criterions of average environment of electrons. And they really prove that the electron is a variable body that is amenable to changes in conditions (apparent^ 7 much more so than atoms), so that it will behave itself and give a certain value for certain conditions. There would be a real miracle if it wouldn t. As soon as electrons and atoms get into a laboratory they are hustled into a Procrustean bed. h. (3) The last minor point is that an alternating cur- rent is a rhythmic current which acts on the same principles as cold light (§132). CHAPTER XV. Heat, Chemistry, etc.; and Summary of Part Two by Practical Applications. §138. a. The remaining conventional general classes of phenomena are sound, heat, and chemistry. Above I have not fully and specifically considered phenomena under those names; but it was shown that certain principles held univer- sally, and by a few suggestions in this section it will be shown that they apply to these other classes of phenomona. b. Sound is identical with light except that sound is the vibrations of atoms (molecules) considered as continuous, in- stead of ether cells considered as continuous. I. e., sound is light of a different order. Orthodoxly sound is considered to be purely a longitudinal vibration. But in such a descrip- tion the transverse forces are tacitly taken for granted, while attention is chiefly focused on the travel of the sound in the longitudinal direction. For obvious structural reasons the longitudinal component is more perceptible in sound. So there is only a quantitative difference between light and sound. Therefore, the general theory of music is obviously analogous to — is — the theory of harmonic periodicity, or is analogous to the principles of the order of lines in spectrums (§101fj). So, as astronomical bodies make larger spectra, or are directly in harmonic periodicity, music of the spheres is a scientific fact. c. Heat is obviously, from the facts shown as to surface temperatures of astronomical bodies (XII), the same thing as electricity, except that it is less systematic. E. g., when electricity is formed locally in a large mass of conducting atoms it forms eddy currents — little local circuits. And those result in, or change into, heat. So heat is an eddy current a trifle more unsystematic than a recognized eddy current — in fact, it is not possible to distinguish a dividing line between a systematic or ' electric" current and its so-called degenera- tion into heat (cf. the reverse, footnote 135c). So truistic- ally all phenomena may be described as heat; but when some part of a phenomenon is systematic, that part is convention- ally given another name. What proportion of the whole that part must be to get a name of its own is not agreed upon — nor the degree of system or perceptible balance required to constitute "systematic." The practical means of §138c XV Two drawing an arbitrary line between heat and other phenomena is to compare the reacting substance with the L and T reac- tions of a substance in a thermometer." If we use the same substance in all thermometers (and select conditions so that the time lag causes imperceptible variations), such com- parisons imply an approximately fixed arbitral line between the heat part that perceptibly affects that thermometer sub- stance and the more systematic part of the phenomenon that ordinarily does not (although a part of that systematic part is sometimes called latent heat). But even if everybody used the same thermometer, its substance constantly changes as time passes, so that in principle there would not be the same substance thus to fix approximately the definition of heat. As a fact, thermometers made of different substances show variations as to where or when heat becomes heat. Thus thermometers give direct evidence of an infinite regress. d. Those generalities about heat are obviously immedi- ate truisms of the principle of asymmetry. Our natural structures, taken one by one, are mutually asymmetrical in some degree; so if taken in bunches (as atoms are taken, relative to "heat"), the same asymmetry is repeated (in step by step orders' forever), and at some point the asymmetry becomes perceptible. E. g. , a larger observer, for whom our galaxy is an atom, would perceive nearly any change in the galaxy as heat; reactions rather systematic to us (such as the earth's revolution) would be to him minor asymmetries or heat.' Truistically, the harmonic periodicity of that arbi- trary dividing line between heat and systematic phenomena is itself a kind of spectrum. That shows again that regardless of what terms we use to describe any reaction, identically the same terms will consistently describe the total universe. E. g., we could describe the universe in terms of smells or odors — finally writing a mathematical discussion of the periodicity or spectrum of smells :- For obviously, an odor is an evaporation from a body, and would exist in some degree for all bodies, regardless of whether it was perceptible to us. And that evaporation would in some degree change our atmosphere, and would truistically step by step change the universe. ■ Incidentally, if anyone fancies that be- cause we now have a consistent logic to use as a general tool in science, religion, and philosophy, no more "opportuni- ties" exist there — fancies that all the "big work" has been done, — then the mildest truthful opinion I can express of him is that he is a fool. For obviously this book is merely a positive, firm first step in knowledge ; nearly all actual knowledge and its application (no knowledge is really know- ledge until it is applied, for only the application can fully prove it; §35) lies in the future, to be expressed in those volumes I mention omitting. Just now we see how much we must omit of heat. This book is an elementary first step, the essential substance of which probably in a century will be familiar to children of fourteen (they will not need to have many details of the concrete proof at that age — or the con- fusing discussion of classical logic which I have to give), and will be their basis of conscious living. e. Those things about heat may be stated another way. We saw (§§134jk, 103, etc.) that gravity is what we may call the unsystematized residue of reaction that is left when we nominally separate out the more or less systematic electrical attractions, or chemical attractions. We may write that:- Gravitation ... X Electricity ..., or Gravitation ... X Chemical Re- actions... . In heat we have seen that we may use the same general formula, thus :- Heat... X Any more-systematized, more definite, or intense' phenomena... . So it follows that if we properly select the names of the intensive factor we may similarly write, Gravitation... X Any 'intense' phenomenon..., which (see §136c, where it is shown that the formula for UNIVERSE 1S6 electricity is L 2 ... XL...) is equivalent to saying An extensive or L? phenomenon... X An intense or L phenomenon...; and that briefly is X, 2 ... XL..., so that if we name any general or ex- tensive phenomenon, such as gravity, we imply but omit ex- plicit mention of the L 2 by saying Gravity... XL... (the con- ventional formula, in valid logic, is F... XL... ; IX), and then put that L 2 back tacitly by talk of the inverse square law — which shows fundamentally why there is such a law. Also, it is obvious that our naming formula is universally applicable and amounts to simply the truism :- L s is the naming of mat- ter, or of Energy, or of the Universe ; or, L s (implying T)= Matter=M(varying ■witti)I?T~' ! '=Energy . That is rigorous expression of the proof of the total argument. This paragraph is a series of truisms which are so obvious that it is a bit hard to stand off from them and see that obviousness. f. It further follows in universal generality that the form L ...XL... is a verbal representation of a spectrum ; the 1? is any 2-dimension band, and the L its relative loca- tion with respect to all the other bands (indicated in infinite regress by the dots). Further, it is then obvious that we may interchange the extensive factor and the intensive factor without doing anything but make an arbitrary change in our description (cf. §§7 If, 136c). When we do that, obviously we change from static to dynamic, or vice versa; and that truistically changes the naming of directions — as we saw was explicitly the result in electricity (§135). Hence, there is complete rigor in our argument. Or, this and the last para- graph is a condensation of all valid logic, expressed in "ma- terial" terms, and proved by the mechanics of Part Two. It is rather hard to grasp such violent condensation. But those who like brevity have a sample here. g. This section has therefore shown that chemistry is the systematic or intensive part of any phenomenon after the gravity or other extensive factor is verbally 'separated' out. Conventionally, chemistry practically is that part with refer- ence to structures of the order of atoms. But that is an ar- bitrary L and T restriction ; truistically, all this Part (and Part Three, for that matter) gives chemistry — as the A and analogous factors. Chemistry is obviously merely an irra- tional factor of a complete science — of any statement that has an intelligible meaning. Chemistry, as a branch of knowledge, is irrational alone. Similarly, so is any other special science. Thus, so rigorously is science act- ually unified that it is now proved that any branch is irra- tional and meaningless standing alone ; so any specialist in one branch is forced to include other branches in some per- ceptible degree if he is to avoid being at least technically ir- rational or idiotic — or else he has to show that dualism and materialism is true, proving me to be idiotic. Of course it is necessary to have men who specialize, in the quantitative part of certain branches (for implicit rigorous proof of that, see discussion of division of labor, §170ko) ; and it is probably obvious to the reader that no man has the capacity to handle satisfactorily more than a fraction of the measures already made when it comes to definite use and detailed advance of some larger branch. But qualitatively, each specialist in ord- er really to understand anything of his specialty must be able in a general way to sum his branch with all others into the One. The problem of how much to specialize — what pro- portion of life should be spent say in measuring the phe- nomena in the right hind leg of a certain species of fly, or in business in sizing up customers and estimating prices — is obviously a quantitative one, and will have a particular solu- tion for each case. In this book I am consciously and em- phatically being a specialist at being no specialist. That is a highly dangerous specialty, its follower being commonly called a Jack of all trades, and rarely being strong enough to 157 UNIVERSE Two XV §140d avoid becoming a ne'er-do-well. I do not propose to spend much of my life at it. Truistically, any man who steadily and actually narrows himself to a specialty weakens himself. h. Explicit chemistry is therefore another library of vol- umes, omitted at this point. Textbook chemistry is largely a collection of empirical facts, except for Richards's com- pressible atoms, the Braggs' and others' work in the struct- ural analysis of atoms (such as Thomson's and others' vacuum tube analyses, Rutherford s and Soddy's and Ramsey's work on those and on radioactivity, etc.), and the beginnings of electro-chemistry and thermo-chemistry. i. In its ordinary arbitrary limits chemistry deals mostly with the rather systematized reactions of atoms. But clearly, there are no limits to the orders or classes of such reactions :- (1) a few atomic whirls may perceptibly more or less unite as a molecule; then that molecule is obviously a whirl, just as a star cluster, a cyclone, or an electric circuit is ; (2) and analogously, two or more molecules may unite to form a higher chemical unit (and such are well known under the various names of crystals, colloids, and biological cells — ■ of all of which, chemical solutions" may be considered the simplest or primitive form) ; (s) then such collections may perceptibly rather unite as a higher sort of unit, such as a man ; (4) sexes unite as couples to form families ; (5) fami- lies form nations; (6) the biological cells always have some reaction or relation with the environment, and thus form a "higher" unit' or chemical compound,' the earth; (7) and the next arbitrary step, with the earth as a chemical unit, leads into astronomy," and so on ad infinitum (and truistic- ally we could have stepped chemically in the other direction, down" into electrons, etc.). The third and higher steps above are not conventionally chemistry ; but obvi- ously a cell and a man are identically the same sorts of units that atoms and molecules are. So chemistry may rationally be extended indefinitely, the practical extension of it depend- ing mostly upon convenience and the need to avoid special- izing in a weakeningly narrow degree, and some upon the capacity of chemists. The only thing that rationally can prevent a chemist from working out the sound and applicable details of government in chemical terms is his lack of a sound grasp of chemistry — a human weakness that is forgivable but never praiseworthy. That also applies to other scientists. §139. a. It at once follows from the last section that we know all the various sorts of forces, or powers, or energy, or phenomena that there are, or can be. That is merely a truism of the general formula which was established :- Any extensive phenomena... X Any intensive phenomena... ^Energy. Or, as all variously named forces and phenomena are identical, it is truistic that if we are acquainted with one we are essentially acquainted with all, and can never discover a new one. So it is impossible that there are any forces or powers or rela- tionships in the universe now hidden from any one of us, or which can be used by some of us and not by others, or which remain to be discovered to confuse and confound present knowledge. Kings with divine rights, popes, divinely inspired priests and warriors, and other more or less self- deceived quacks under various names, have for ages buncoed the average honest man by substantially claiming that they were privileged with knowledge and control of various eso- teric powers or forces unknown to him and beyond his con- trol. It has now been rigorously shown that such dualists are wrong : after that rigorous proof has become somewhat generally known any pseudo captain of finance who claims to be ordained by Providence to be a trustee for the people (as one coal operator recently did), or any "ich und Gott" autocrat or theologian can be reasonably judged to be either mentally defective or criminal. I think that most of those self-privileged aristocrats have been self-deceived (aided by the adulation of their dupes — a lot of soft-headed sheep and sycophants) : they began to talk just as the pseudo- scientist does about the stupendous forces, the secrets of nature that can be understood only by highly trained per- sons like himself, etc., and then believed their own yarns — acquired a swelled head," conceit, egomania, paranoia (degrees of the same thing; Index, "Power-madness"). b. But of course the last paragraph proves that qualita- tively there can be no new forces. Quantitatively there is no limit to the number of phenomena we may arbitrarily distin- guish : in fact, we have seen that every structure differs quantitatively from every other, and hence every phenomenon differs quantitatively from every other and may consistently be given a new name. All such newly named phenomena (e. g., the recently named radioactivity and X-rays) are, as we have seen at length in terms of whirls, merely different quantitative aspects of common' phenomena. And it will continue to be so in the future. It is possible now to de- scribe as many such new" phenomena as we have patience for: I could readily describe the phenomenon polarization of smells' (say), and show how to go about perceiving it defi- nitely ; but there is no need for such new ones unless we come on conditions in which they are useful. §140. a. Part Two has therefore been formally summar- ized and proved, and shown to be identical with Part One, as the equation Extensive phenomena... X Intensive phenomena...^ Energy. It now remains to show how to apply our know- ledge by describing all the possible ways of deriving energy for our use. Such application will be concrete proof of the foregoing consistently expressed proof — and to repeat, noth- ing else can furnish such final proof (§85). b. Obviously, that equation asserts generally that the way to get available power or energy is to apply an intense or high potential phenomenon to some rather extensive or balanced parts of the universe which are truistically thus at low potential; the intense phenomenon then acts as a trig- ger, or releasing, force and sets off a series of secondary whirl formations. E. g. , a match thus lights a fire, and rs typical of all possible ways of getting available energy, as we shall see. That is a qualitative way of describing how to get energy ; quantitatively, the equation asserts that there are an indefinite number of phenomena that may be used to get energy; we can never finish using the possibilities. By classifying those phenomena under conventional names be- low, we can see the principles of all of them, and theoreti- cally readily use those we judge convenient- — efficient. c. Or, we can put the meaning of that equation — of the last paragraph — in more familiar terms :- take some nat- ural" high potential body and put it into perceptible circuit with a low potential body, and use the resulting flow of sec- ondary whirls over the circuit. Those terms are ordinarily used for electricity; but we shall see that they are general. d. The chief obstacle to seeing clearly and fully how to get useful energy is the dualistic idea (explicitly embodied in the pseudo law of increase of entropy), that man himself is not an actual energetic factor in that general equation, but that man stands aloof from the affair (machine) and, like the dualistic theological God, "creates" a condition of affairs that then produces the energy. It is glaringly obvious that man is usually an important part of the whole intensive factor Intensive phenomena. . . in the production of useful energy; it is so excessively obvious that man is one part of his machines that science has acquired the habit of omitting statement of the fact, thus getting into so many logical difficulties that the problem has become a mystery." All that is put into con- crete, more intelligible terms in the next paragraph. §HOe XV Two UNIVERSE 158 e. The galaxy whirl, considered as being fairly fluid or homogeneous, is running down" or lowering its potential (XII). But the condensing of secondary whirls constitutes that running-down ; and those reverse structures have differ- ence surfaces in which the potential has increased. And as man results as a further working of precisely the same pro- cess, man is a condensed secondary of one of those conden- sations — of the surface of the earth. Therefore, each man theoretically should be of high potential (cf. Index, "Entro- py, increase of"); and it is a readily observed fact that man is of very high potential relative to his molar environment. Or, to put it less generally but more familiarly, man persistently (i. e., through a relatively long T) produces violent changes in his environment. Other biological structures are of the same order of relatively high potential, but all of them are of considerably less degree in that order than man. That is merely a rather obviously true quantitative guess in definite terms of the view that man is lord of Creation." Relative to our environment it is true; but in general, other biologi- cal structures elsewhere would by the theory of chance excel man. So man himself is the high potential trigger that is the essential starter of his machines. Man himself is of sufficiently high potential to arrange any series of poten- tials which can occur in our environment (except that he can not directly do that to atoms, which have a higher main dif- ference surface potential), in a circuit that suits himself — and he does so. Other potentials (e. g. , that of a flash of light- ning) may be temporarily higher, but man's potential is high enough to handle — over-top in the long run — all of them (do- ing that actually consists of man's using the atoms of his brain to manipulate the potential variations which always oc- cur when order of structure is given time T to change; Part Three shows why the brain can work that way — essentially it is the ability to unify, connect, things). And man as that high potential part of his machines (his hands are machines, tools, e. g., as are his vocal organs) is obviously not a dualis- tic creator"; this paragraph shows that his potential is it- self a consistent effect of all the universe. E. g., when I write this chapter I am acting as a high potential trigger which after years may, as the result of other men's adding their potential to it, produce quite a fund of available energy in ways quantitatively somewhat different from those used now ; but I am not creating that energy but am simply be- ing consciously pushed by the whole universe to connect up things in terms of L and T (that same thing has been done consciously for ages by humans, under various names :- re- ligion, science, philosophy, system, organization, engineer- ing, government, discipline, education, etc.). I get my energy from the universe, and in all respects act mechanically — which is the same as saying that I act with rationality, or am spiritually or consciously consistent. The sloppy senti- mentalist, the half-baked thinker of the dreamer type, could not support that potential : he would become bewildered, or irrational under it — his refusal to be consistently mechanical being mostly sour grapes, as I happen to know from personal experience. This completes the discussion of increase of entropy and the second law of thermodynamics. In this paragraph I have been acting like Maxwell's well known de- mon, with one exception :- I have been getting energy con- sistently, whereas the demon, like his inventor in this matter, was capricious or dualistic like the theological God or devil. In short, Maxwell could not solve the One and Many so he invented a hypothetical dualistic God for science :- his demon —identical with theological ones. Such a God is now obvi- ously an offensively "materialistic" nominal link in a disor- ganized machine that is hence not really a machine and will not work. By the simple process of observing the (to us) most obvious thing in the world — man in his glaring capacity of being a high potential trigger: man as a fierce, enduring, keen, strong animal, or organized real machine or person,— and seeing it (him) as it is, we know there is no need for such puerile dualistic Gods or demons. And as we saw in §47, and see again here by considering that an arbitrarily skin-bounded man really connectedly extends from Intensive phenomena... to the total One Extensive phenomena... X Inten- sive phenomena..., man ultimately is the whole machine or person, the real God or universe — that being a self-respecting statement of the truth not grasped by the mentally weak dualists who would truckle to a kaiser-like God and whine to him to save their nasty little personal souls. §141. a. It therefore follows from the last section that to obtain utilizable energy the general process is to throw a collection of available structures out of equilibrium, and let the secondary whirl formation accumulate as molar motion of lower potential, which molar motion we use in a reverse cycle, or as available energy. Any size structures will do; but for convenience we will talk of atoms :- b. I shall give a general description of combustion, as be- ing typical of all such methods. Combustion is always started by relative motion of two or more atoms — frictional rubbing of each other. So some degree of combustion is truistically a universal phenomenon, being merely mutual motion producing secondaries. Conventionally, combustion is such rubbing done long enough and violently enough to pro- duce rather violent secondary whirl formation, and usually to cause such a resulting aging of the whirls (wearing out of their fields and increase of internal condensations) that those condensed whirls in some degree combine (usually "chemi- cally" in our combustion," as O and C into CO2), and in that combining throw off even more violent secondaries, some of the energy of which keeps up the combusting. That also builds up large and intense fields around the structures, and that causes the collection to expand (or to transfer that ex- pansion over some sort of 'circuit' to neighboring collections), and we use that expansion or molar motion as "energy." c. That general sort of conventional combustion has vari- ous names that indicate quantitative differences. When the rubbing together of fields is done in such a way that the atoms more or less systematize their expanded fields the re- sult is called electricity. And in such combustion (which usually is not carried far enough to "burn" the rubbing sub- stances) the systematized expanded field, the magnetic field, is transferred by a circuit of atoms (in wires) and is directly used to produce "mechanical motion" by pushing other wires arranged as a "motor." However, that field may be used to joggle atoms violently (as in a lamp filament), and it then produces ordinary combustion (atoms like O that will com- bine with the lamp filament readily and accelerate that com- bustion are kept out, so that in one sense that combustion is slow); or, more conventionally, it produces heat. It appears from this paragraph that the way to produce elec- tricity directly from heat (even where there are slight dif- ferences in temperatures) is to systematize the relative atomic field motions. It is thus theoretically exceedingly simple to do ; in fact it automatically happens in a small way in thermo-couples. But the practical quantitative solution of the problem involves acquiring knowledge of the actual structures of some atoms, difficult measurements, and the us- ual process of trial and error in the numerous directions in which measurements do not at first reach definitely. d. Ordinary combustion of C and O into C0 2 produces what is usually called a change of state. I, e., if we burn coal, by some method (ultimately friction) we "start" the fire. As seen above, that causes violent secondary formation 159 UNIVERSE Two XV §141j which accelerates and spreads the fire, and increases the various atomic fields, until in this case they expand into a gas. They are said to change state. That increase of volume is molar motion which we may use (par. b). The expansion may be used directly in the cylinder of a gas engine to push the piston ; or the jolting of that secondary formation may be conducted through the walls of a boiler to water, expand it to steam which is transferred to a cylinder and pushes the piston. Etc. So I am using combustion in a general sense that includes both "mechanical" energy (i. e., volume, surface, and kinetic energy, and transferred or conducted' or "potential" sorts of those, such as waterfalls, winds, etc.), and so-called non-mechanical energy (i. e. , heat, mag- netic and electric, and chemical energy). Obviously no other consistent qualitative definition is possible. e. So all changes of state are capable of producing available energy. That is a repetition in familiar terms of par. b, where it was expressed as change of order of whirls. Such changes change potentials, making energy available. f. A general illustration of the essentials of a match" may be given in terms of low temperatures:- Obviously, if a collection of atoms is steadily reduced towards absolute zero" of temperature, it is truistic that their fields are steadi- ly weakened and the atoms become more and more aged and cluster-like (that is proved by Onnes's showing that their electrical resistance is decreased to a point near zero ; XIV). Truistically no actual zero can be reached; but if the atoms were subjected to the very low temperatures for a long enough time the clusters would evidently begin to com- bine, releasing comparatively violent energy as a nova does, and expanding. That expansion would be combustion, started by "cold." It would perhaps, with many sorts of atoms, be of "explosive" violence — faster than an ordinary fire." If element structures had been used, quite likely temporary new elements would form by that process; etc. The pro- cess up to the explosions is the reverse of radioactivity, and the explosions would be radioactivity, although perhaps of much different intensity. It is in principle analogous to the process that causes volcanoes (§122). That extreme cold is a trigger or match more intense than the ordinary match. The fact that electrical resistance suddenly drops considerably at a low temperature is crucial proof of this paragraph. g. In the same general way, if any atom be subjected to sufficiently violent action for a short time, or to less vio- lent action for a relatively longer time, the atom will break up into parts (if there is no relatively heavy confining pres- sure or other means permitting the atom to 'recuperate'). Radioactivity is obviously one form of combustion. In it the atom breaks up to a greater extent than in ordinary combus- tion : so the available energy is relatively great, and ordi- nary methods of starting a fire have, in the short duration of time in which they have been applied, produced no percep- tible effect in changing the speed of such radioactive combus- tion. But if the comparatively few atoms in a vacuum tube be subjected to the rather violent and direct jolting of electric currents, they are perceived to break up in various ways. That breaking up is analogous to radioactivity, and truistic- ally releases relatively large amounts of energy : so far as I know the release of such energy has not been experimentally measured. But it is obvious in principle that the vacuum tube and analogous devices will serve as a match to start or- dinary atoms to burning (breaking up), and will thus give available energy from atoms that nowadays we do not use for "combustion." Again the principles of burning a^thing are simple; the quantitative problem of getting some combi- nation of atoms which will give such energy that is economi- cally profitable is a difficult one. But by the time coal runs out something much better than coal can readily be devised. h. The speeds in atoms are of the order of V\, and so a comparatively little breaking up of atoms gives relatively great energy. Ordinary combustion, in which the degree of secondary formation, or breaking up, is so slight that it is exceedingly difficult to detect any change in the weights, e. g., after the atoms have been burned, gives an amount of energy that is great compared with usual standard molar energy. If we could break one atom totally up, into the ab- solute infinite regress of parts, there obviously (as we saw before) would come from that atom an infinity of energy. But the practical, pluralistic fact is that it would take an in- finite potential to do it (or use up infinite time, if we use a lower potential) — and man can not command anything like such a potential (or time) in practice. The obvious fact is that there never is going to be discovered any cheap and easy method of getting at the vast stores of energy that are in atoms. There is an irresponsible sort of quack who, in praising the flabby folks who have become too weak to work over 44 hours a week, implies that all we have to do is to discover some sort of hocus pocus, and then sit on flowery beds of ease (something like the theologians' various parasit- ical heavens), and casually tap an atom and get anything we want. But no one will ever get anything which he does not pay for exactly and in full. Anyone who tries in any respect to "beat the game" is mentally defective (XVIII). i. The source of high potential energy most available at the present time is the radiant heat energy of the sun. Pos- sibly no other general source of energy will ever be used much by man. Anything which that energy will make grow (or in the case of inorganic" matter such as water, ex- pand") may, if suitably arranged, be used as an accumulator or storage battery, which later on is comparatively rapidly discharged. Coal, oil, alcohol, natural gas, wood (any or- ganic fuel), foods, and water and wind power are examples of such sources. Even if we found it expedient to burn (say) sand, we most likely still would use some of those forms of sun energy directly as a match (and more remotely, the en- ergy in that sand may be said to be stored there by the sun ; XII). The principles of such energy utilization as regards "expansion" are already known and applied to a consider- able extent. And the direct utilization of growth" is ob- viously simple in principle. The most of growth on earth is ultimately due to a chemical reaction in chlorophyl (so far as is now known), by which C is taken out of the air, usually more or less directly from the products of previous combus- tion, and combined with other atoms in less stable combina- tions, the sun's radiation furnishing the energy required. As there is comparatively little chlorophyl distributed over the surface of the earth, but little of the sun's radiation is thus stored. Several times more radiant energy falls on the Sa- hara desert than is released by all the coal burned in the world during the same time. It is a quantitative problem to devise a chemical structure which we can manufacture, trans- port, and use in any location at any time, to store up that sun energy. It is truistically possible to do it; but by the prin- ciples of harmonic periodicity it may not be profitable. j. Those applications fundamentally depend on a quan- titative knowledge of atomic structures. And this Part of the book, from one point of view, has undertaken to show how such knowledge may be obtained. §142a XVI Three UNIVERSE 160 PART THREE SPIRITUAL UNIFICATION; or HUMANICS CHAPTER XVI. Biology. §142. a. This last Part will describe perceptibly organ- ized or systematized collections of atoms, with reference (1) to their relationships with the remainder of the universe; and with reference (2) to their relations among themselves ; and (s) to their own internal relations between their own structural parts. Or, in terms of our naming formula, we shall see respectively the expansion of the specific points of view:- (l) "Material" Environment... ^Organized or Living Matter...; (2) Other Organisms... X A Given Organism...; and (s) Other Organs or Parts of a Given Organism... Y. A Given Organ. . . . I shall not trouble to treat those obviously exhaustive heads with any formal separateness ; (2) and (8) are clearly conventional forms of standard uni- verses ; and other similar standard universes will be considered — all of which will always imply the complete (l). In fact, I chiefly take the single organism man and discuss him as being of primary interest to us — it being understood that the more complete formulas are thus implied. Therefore, because this Part is chiefly concerned with describing a standard uni- verse :- man (and mostly a smaller one that represents him :- his mind or nervous system), it is called humanics — a poor name perhaps, but the best I could find. b. I stated that we had to deal with perceptible organ- ized or systematized collections of atoms.' All atoms are organized with their fellows — meaning simply that all are re- lated, continuous, reacting. So when we here discuss per- ceptibly related ones, the only difference this Part has from One and Two is that some difference in L and T is implied. And I do not know definitely how much that difference is : no one has ever said explicitly how much, so the reader can please himself as to whether he will say that the atoms of a brick are perceptibly to himself organized— whether he will say the brick is alive. It is usually tacitly agreed that the atoms of an electric circuit are organized or systematized per- ceptibly ; so there is no essential difference and not even any conventionally definitely asserted difference between an elec- tric current and a living" structure. That impossi- bility of making a sharp distinction between living and not living is more explicitly shown in the rest of this chapter. Here we simply note than any general statement or implica- tion of the nature of "life" promptly shows that there is no dualism or real difference between living and non-living mat- ter. So the total universe is alive or is life; and we may write a general statement :- Imperceptibly organized matter. . . X Perceptibly organised matter... = Life. For truistically life in general or Life is possible only when perceptibly organized matter is supported by — inseparably related to — impercept- ibly organized matter. It is the problem of the One and the Many in terms of life,' and it is not necessary to repeat the solution here more explicitly than is given by that condensation in the last sentence. So the only general problem as to what it is that is "alive" is a quantitative one of how much evidence of organization we want. I shall take it that everything is perceptibly to me alive; when I wish to put other quantitative limits on what I say is 'alive,' I vary those limits as convenient, and as implied by the context. §148. a. When we describe the universe in terms of the naming equation "Material" Environment... X Organised or Living Matter... = L{fe, or Universe, the description is conven- tionally named biology. The Living matter... term is the in- tensive factor; and as we implicitly saw, conventional biology emphasizes it, by making it a standard universe in which Environment... is usually merely implied. Obviously, all particular sciences follow a similar procedure. But, in agree- ment with the pseudo principles of classic logic, men form- erly failed £0 recognize that the dots or infinite regress had to be in that general equation, as indicating that there was no essential difference between Environment... and Living matter...: and they therefore asserted that living matter or life was an absolutely separate, dualistic creation, and that living matter was endowed with vitality, ' and environ- ment essentially or absolutely was not. Then, to retain classic logic consistency, those vitalists had to hold that each species had an absolutely distinct variety of that vital principle, and hence existed absolutely distinct and separate from its absolute creation. But that was glaringly contra- dicted by facts, as was finally overwhelmingly shown by Dar- win and others. So the theory of evolution (§145) asserts that our biological equation is right, and supports this book. b. But conventional science still holds that its present state of knowledge furnishes us with no link between the living and the not living" ("Ency. Brit.," Art. ' Biology"), and that assertion (which the doctrine of evolution truistic- ally repudiates) is a sort of half-hearted surviving trace of vitalism. So I shall explicitly show (§144) the identity of living and not living matter. c. It is obvious, and will be made explicitly more so in various places below, that there can be and are numerous perceptibly different organized structures ; and that they are often made up of perceptibly different smaller parts, such as organs, cells, parts of cells, etc. Over a million species of living things are actually distinguished. As a result, and also because of the classical logic view that each species is a unique quantity, no definite biological quantitative standards are agreed upon ; we saw that there is no agreement on the fundamental one :- of how much organization constitutes life. So for the biological sciences there is not any general formulation of the measuring member M(varying with)L?T~ 2 (but cf. §148). Obviously, such measuring mem- bers may be formulated and used at any time people wish to agree upon standards ; the theory of it is given in IX, and below such extensions of present science are occasionally implied. In the biological sciences it is usually readily per- ceptible that there can be no exact science (cf. Jordan's In- troduction) ; that fact has long been observed, and some scientists term the sciences in Part Two the "exact" sciences, and humanics the "inexact" sciences. Some of the intem- perate experimenters of the German Landolt's type (§137), who tend to materialism, rather hold that humanics can not be made science at all — which is throwing the baby out with his bath on a large scale ; on such a large one that those scientific inhumanists' can not see their ridiculousness. The intelligent reader sees that the biological sciences are, truistically, as susceptible to "exact" measurement as any other, but are more difficult in the only sense any science may be difficult :- so many details are perceptible that memory becomes overburdened, and some confusion may result. 161 UNIVERSE Three XVI §144c d. Perhaps the simplest way to use measures generally in the biologic sciences is to use the formulas of Part Two, applying them to collections of atomic galaxy whirls making up the biological cell. I may briefly describe the quantita- tive complications that could ensue :- The molecules of what is usually considered to be living matter are each composed of an average of 1000 atoms, as a reasonable estimate. Thus there are (say) 1000 stellar galaxies in mutual combination and reaction, as one biologic molecule. Then there are numbers of those molecules which go to form a rather stable or static structure called a crystal ; and numbers that form a more dynamic colloid ; and numbers of such crystals and col- loid structures go to form a biologic cell. (That cell itself often perceptibly exhibits the same two contrasting parts, the nucleus, and its surrounding more dynamic or colloidal protoplasmic substance — the two corresponding to the two parts of a machine, or to the filament and field of a whirl. The cell itself often has other condensations that are percept- ibly variable — showing that the parts of such a machine start on the infinite regress.) As a reasonably low guess there are something of the order of 100,000 of those large molecules in an average cell — giving 100,000,000 stellar galaxies (sub- stantially as a minimum) in one cell. And it is estimated that in one man there are about two billion cells in the nervous system ; so if the cells of the nervous system are of average weight there are perhaps in a man a total of something over a hundred billion biologic cells — giving us far over a billion- billion equivalents of stellar galaxies in one man. So if I were to describe a man with the roughness and indefiniteness which was required in XII to condense the description of the stellar galaxy to 25,000 words, I would need at least 25,000 billion-billion words — and that rough description of a man would nearly surely fill more than ten million times all the printed paper now on earth. If we applied our measuring formulas in any such definiteness the result would be unmanageable. But because a cell is in general equiva- lent to a single whirl, and a collection of cells into an organ makes the organ equivalent to a whirl (§981), and because organs react together as That. . . X This. . . , we could use our measuring formulas (use L and T) with respect to cells or organs. At any rate it has been made generally ob- vious that there are enough different parts perceptible in a man to make it truistic that he will exhibit many phenomena. And it is perhaps equally clear that if we had not first seen the elementary descriptions of single structures — the easy ones of "physics" — we would be nearly incompetent to de- scribe man. e. So I shall expand biology by considering those various That...XThis...'s, thus implying the L's and T's of the measuring member. If we take the factor Living beings... as a standard universe, the chief useful conventional expansion of it is that of mental and physical :- Other physical organs. . . X Nervous system. . . =Body. . . X Mind. . . =Living beings. That is substantially an internal division of organisms, giving the conventional sciences physiology and psychology (and obviously leaving Environment. . . more or less implicit). But it will be seen, if it is not already obvious, that no method of splitting the biologic That...XThis.. . into its various dots is conven- tionally followed which is based upon any consistent principle other than the immediate usefulness of it. Clearly, any num- ber of ways of dividing humanics into branches could be de- vised. But I shall follow the usual method of making those immediately useful divisions. What is at present im- mediately useful will not long be so; my guess is that biolo- gy will superficially change enormously in a century. But the formulas given, explicitly imply expansions needed in the future. However, humanics is such a vast subject that there is not likely to be any general agreement soon as to the best ways of splitting. It is of course a quantitative problem ; but as we are intensely interested in ourselves, violent con- troversies will continue — indicating that inexact" scientists are still alive, vigorous, and capable of learning. §144. a. It is orthodoxly held ("Ency. Brit.," "Biolo- gy ') that the uniquely distinctive properties of living matter are these three [in this paragraph I practically use the words of that article, and they are not very precise]:- (l) Living matter has a chemical composition that "invariably" contains C, H, O, and N in complex compounds (called protein or al- bumen), united with a large proportion of water, and as such, in its primary unmodified state, known as protoplasm. (2) It universally disintegrates and wastes by oxidation; and concomitantly grows or reintegrates by the intussusception [imbibition, intercalation, interpenetration :- eating, in short] of new matter — an addition of new matter not to the surface of the living mass, but by interposition between the existing molecules of the latter, and hence differing from agglutina- tion or accretion to the surface in the manner in which a crystal grows. (3) Living matter perceptibly undergoes cyc- lical changes — in the ordinary course of nature all living matter proceeding from pre-existing living matter, in well known cycles of birth, growth, and the cessation of the ex- istence of that individual. ■ To quote verbatim :- 'But in addition to those distinctive characters, living matter has some other peculiarities, the chief of which are the depend- ence of all its activities upon moisture and heat, within a limited range of temperature, and the fact that it usually possesses a certain [a perceptible] structure or organization." b. The general defect with that argument that living matter is absolutely distinct from non-living matter is that it is taken for granted without proof that all its quantitative words are perfect or absolute (that all its observations and experiments are exact), whereas not one is, or can be. E.g., there is no perfect intussusception and no perfect agglutina- tion; even the electron theory, which was generally accepted when the article cited was written, holds that in some de- gree there is always a combination of the two ways of in- creasing, (jf the writer did not hold that electron theory, then he should have stated hone he considered the two ways possible — for otherwise he could not be regarded as having said anything.) This matter of disproving that par- ticular orthodox vague jumping to sharp conclusions is itself scarcely worth the space used by this paragraph of gen- eral disproof. But this paragraph, appropriately changed verbally, directly destroys all classic logic arguments wherein sharp essential distinctions are asserted — and in such gener- ality is useful, even though merely destructive. c. It will now be shown explicitly why all matter is liv- ing. Conventional living matter is matter perceptibly organ- ized within that narrow range of conditions, the organization being evidenced by its having those three characteristics. In brief, given on earth a certain rather narrow equilibrium of conditions, which has existed for the long time needed (long because narrow), we observe that certain chemical elements get into rather elaborately organized states. By every way in which the principle of continuity or relationship has been stated, that result is essentially a truism with the conditions. By every principle, we would expect such living" matter to exist: given certain sorts of elements time enough in fairly steady conditions they truistically must organize. It is truistically inconceivable how there could fail to be liv- ing" matter. Of course, the problem of why there are the now actually existing quantitative sorts of living forms re- quires for its solution the whole history of the earth : Darwin and his successors have been giving much of it. All of such §144c XVI Three UNIVERSE quantitative description can not be given, as it involves the infinite regress. But this whole book shows that, given con- ditions quantitatively steady enough, perceptible molecular organization into "higher" and "higher" orders (e. g. .solu- tions, crystals that are gaseous or liquid or solid, colloids, protoplasm, nucleuses and cells, organs) truistically occurs. And just as there is no sharp line between a primary and a secondary whirl (§101e), similarly there is no absolute dis- tinction between atom, molecule, solution, cell, organ, and so on ad infinitum ; they pass imperceptibly from one to another, as we shall see in more detail from time to time. For a more explicit and detailed statement of how life could "originate" on earth, see Chamberlin's Origin of the Earth, "and Moore's excellent Origin and Nature of Life ; also Bastian's Origin of Life," which is disputed. d. By the principles of periodicity, it is obvious that the quantitatively harmonic elements on earth tend to organize themselves into one elementary' combination of the next higher order (into perceptibly living matter), just as the so- lar system organized by Bode's law, etc. Conventional liv- ing" matter on earth is therefore one perceptible alive element' out of many possible such elements which occur in various environments; i. e., our protoplasm (mostly of C, H, O, and N) is one element in a periodic table of alive ones. And that is obviously theoretically true and necessary :- For suppose that conditions on Jupiter are now steady enough for some colloidal formation that will progress into a cell. Then if that cell is going to be strong enough to withstand the greater gravity pull of Jupiter (to give just one instance of a collection of harmonious conditions there, which differ quantitatively from those here), the elements of the cell would be heavier and stronger, by our measures here, than our C, H, O, N are. Possibly C would be replaced on Jupiter by something as strong and heavy as our Fe; the Jupiter C — which is quantitatively not our C — would perhaps be thus strong, measured by our standards. Protoplasm' on Jupiter would still bear about the same quantitative relation to Jupi- ter's periodic table that ours does to our table; but by the principle of asymmetry, Jupiter's would be somewhat out of step with ours so that the intervals in it between elements differ from ours. And if conditions were relatively more un- stable on Jupiter than here, probably there the Jupiter-C would be replaced by Jupiter-Si (say). It is likely that in more violent past ages here, protoplasm mostly contained Si instead of C (in short, there truistically are species' of liv- ing" matter, although possibly there is only one such spec- ies' or 'element' existing in our present conditions). There is some evidence that the chemical composition of living" matter here is not so sharp as asserted by the authority cited in par. a (cf. Bastian, "Origin of Life," XII). e. So there is nothing absolute about the chemical com- position of living" matter. Such matter follows the prin- ciples of all matter in orderly organization. Probably some perceptible degree of living" organization forms in some level of the surface zone even in such comparatively violent bodies as the sun. Such protoplasm would probably be much different from ours. The basis of the protein of the earth protoplasm is an amino acid, the molecule of which may be said to be acid at one end and alkali at the other — chemi- cally analogous to the two poles of a magnet (Moore, "Ori. and Nat. of Life," 116). And obviously, such an atomic electric circuit is alway possible in any conditions, but would truistically with varying conditions vary in its constituent elements — just as vice versa any "element" is magnetic if we give it proper conditions (XIV). f. The second so-called absolute characteristic of living matter is said to be (par. a) that it wastes by oxidization, and grows by interpenetration. That obviously means in general and consistently:- (l) that if we have under certain condi- tions a given perceptibly organized matter, it will, analo- gously to a whirl, give off secondaries of a certain sort (which in our protoplasm, in quantitative agreement with conditions, happen to have an increased number of O atoms — are oxi- dized); and also (2) that the same organized matter will, like a whirl, take in secondaries, and perceptibly distribute them internally. There is evidently nothing essentially unique about that process, as it is the only process (it is reversible, of course) which can occur with any natural structure — as shown in all of Part Two. The authority cited omitted ex- plicit mention of the fact that that oxidized waste also is of an intussusceptible character — but again not perfectly so. g. And the third alleged unique feature of living mat- ter (cyclic processes) is obviously nothing more than a repe- tition or truism of the fact that there is both waste and growth. The two (waste and growth), as a harmonic peri- odicity depending on the relative sizes and numbers of the inner structures of the given structure, as in all other kinds of natural structures (Part Two) accumulate into a certain vi- bration or rhythm. Ether cells, by the same cycle, were said to give off light"; obviously, these biologic cells by the same principles 'vibrate' (incidentally, certain sorts of waves are therefore, by the mechanics of XIII, given off by living cells — which waves are truistically sufficient to explain telepathy, mind-reading, and similar phenomena; cf. §146). So again all other natural structures have the same processes as organic ones. The difference is the L and T of cycles. h. It further follows by the same principle of harmonic periodicity that a certain internal structure of a given live cell, in agreement with its environment follows a certain course of growth and waste. I. e., for a given mass of pro- toplasm, forming a biologic structure, and considered as a standard universe, we have the equation:- Environmental structures. , . XLine organs or structures. ..^The life of the living being. And that truism asserts all the general principles of heredity — asserts that quantitatively both acquired and in- herited characteristics go into the living being and are trans- mitted by him or it. The equation further asserts all the general principles of the size and form of the living being, and thus determines the species. If we expand that stand- ard universe to include all such perceptibly living" beings, we have :- Environmental structures. . . XLiue organs organized as all living beings. . . =Ljfe. And that obviously valid equa- tion asserts the principles of formation of "living" beings from so-called dead matter, the variability of all species, etc., ad infinitum. Or more specifically, to revert to the first of this paragraph, the so-called principle of biological teleology (that an organism is fitted to its environment so well that it seems to be "designed" or "purposed" for it, — "Ency. Brit.," xxviii, 1024; for teleology, see §86) is more correctly expressed by completing that "principle," and sayingthat the environment is also in harmony with the organism:- for our truistic equation asserts that both the environment and the or- ganism (or organisms) react on each other to produce, mon- istically, a perfect fit. In short, Darwin's "mechanical" explanation of the observed fact that there are no constant species, which explanation is expressed by the phrase "nat- ural selection" (or Spencer's "survival of the fittest"), is obviously a truism. Darwin's phrase perhaps tacitly empha- sizes Environment... too much (and Spencer's, Organisms...); for the balance is continuous or dynamic — mutual between en- vironment and organism. So, as the principle of balance or 'fitness" is universal (being merely the dynamic balance That... X This...; §114c, IX), applying equally in the form or name no constant atoms,' "no constant species " 'no 163 UNIVERSE Three XVI §145b constant anything,' or no exact science, therefore I express it in those ways and finally as harmonic periodicity, which has been shown to apply to biology. That ultimately absolutely unifies biology with other sciences, and indicates the complete quantitative theory of humanics. i. In discussing living cyclic processes in par. g it was implied that there was birth and death. Incidentally, as it has been proved that the cycle is the same for all natural processes or structural parts of the universe, the fact that those two everyday names for the "ends" of the cycle are not the same is direct evidence that it has been observed, and may be, that no cyclic process of a part can be exactly repeated — that no cycle short of the universe is perfectly re- versible (index, Cycles"). Classic logic views of birth and death are that they are sharp, exact, absolute pro- cesses — that before birth the organism did not exist, and at some exact time (the birth) it came into existence, and then ceased to exist at some later exact time (its death). The ob- vious fact is that there is no such definite thing or time as birth or death — they are L and T words which roughly and without much exactness apply to a given living being (§80m). It is not possible, as shown in Part Two, to give any exact space and time for the formation of any secondary, or its sub- sequent consolidation with something else — for its birth and death. It is now directly observable that we can not say exactly when an organism is born, or where; or when or where it dies. There is no agreement as to whether a chick- en is born when the sperm cell and ovum unite, or when the egg is laid, or when it hatches; and even if there were such an agreement, obviously it takes time for the cells to unite, time for the egg to be laid, and time for the chicken to peck out of the shell, each of the three being just as surely a time and space process as life" itself. And physicians are not agreed as to when a man dies ; and if they were, the facts would refute the accuracy of the agreement:- often all the larger organs certainly perceptibly cease to work, and after that ordinary "death" the man is resuscitated; various org- ans are perceptibly kept alive away from the remainder of the body; when the man" dies his organs are in some de- gree still alive (e. g. , his hair will often continue to grow). In short, birth and death in any exact or in any essential sense are names like zero and infinity — One words that name a limit, and apply to nothing quantitative or scientific (to nothing that is exressed in finite terms), or to nothing in our personal lives. Birth and death when scientifically or plural- istically used signify merely some arbitrary quantitative measure that is roughly guessed at as a matter of convenience and are nothing essential or constant; e. g. , a man s con- sciousness, or what might be called his own personality or actual self which is perceptible to himself, obviously by no means is born and dies coincidentally with his physical birth and death"; also, as far as he perceives, his self dies and is born daily at the beginning and end of sleeping soundly. So obviously, there can be no possible agreement, so far as his own perceptions are concerned, between a given man s guess and that of others as to his own birth and death. j. So the obvious rigorous explanation of "birth" and "death," as being things supposed to be absolute entities, or absolute processes really different from any other processes, is very simple :- there are no such things, and no explana- tion is needed. The reader will say, that notwithstanding all that talk, he will die. Of course he will, in the custom- ary sense (but see §146lm). But he has never existed as something uniquely separate and distinct from any other thing, and so he obviously, as a mere truism, can not abso- lutely cease to exist when he does not previously really exist —but will keep on in the future as he has in the past, bearing continually changing quantitative relations with all other things. When he says he dies, he means that some certain degree of change of relations occurs :- what that degree is has not been measured, and can not exactly be, and varies for each man anyway. He has been having changes of relations all his life, and each one is a unique quantity; hence his death is not in any essential respect a new thing, although it too is another unique quantity, with which he is perceptually quite familiar — having become so from having experienced a process imperceptibly different from it in going to sleep thousands of times. The theory is obviously rigorous. I also happen to know from experience what I am talking about, as I was physically, mentally, and medically dead once, and was resuscitated. When I was a boy I wanted to know how chloroform worked : so as usual in similar cases I tried it on myself; and I accidentally killed myself. The reader may verify the experiment himself if he likes. I have used more space for birth and death than the intrinsic difficulty of the problem warrants. But such emphasis seems to be required because orthodox theology revolves so persist- ently about death. Obviously, the way to remove the re- puted sting of death is to know precisely what is meant by death. The theologians have held up death as a horrible bogey, just as a peculiarly stupid nurse frightens a child with the dark — the nurse usually, as an automatic punishment called poetic justice, coming to fear it herself. There is no such thing as the theological dualistic death from which the theologians promise to save" us — if we will be good" by doing as they order, and turn various privileges, powers, etc. , over to them. Since I died I have had no fear of death (and the theologians messed up my nervous system consider- ably when I was younger); often when I persistently over- work I find that it would be a great relief if I knew I could at once go to sleep permanently. I have no doubt that Metchnikoff ( Prolongation of Life") is correct in saying that it is a fact that people who grow old normally ( balanc- ed ly) desire death. Certainly his principle is correct, though not always stated consistently. We take up the subject, un- der "immortality," later (see Index). k. This section, particularly par. h with its formulas, outlines biology explicitly. I now proceed to expand some of the more important aspects a little, starting with evolution. §145. a. We have seen that the modern doctrine of evo- lution is in effect the equation Environment... X Perceptibly living species... = Life, or God, or Universe, and hence is iden- tical with the argument of this book ; and implies the use of the valid logic (the doctrine almost explicitly asserts the use of such logic, in that "natural selection" is orthodoxly ad- mittedly a truism, or circular reasoning) ; and explicitly uses "mechanical" or positive language; and admittedly sums into the principle of continuity, or universal relationship (see Jordan's, Ritter's, and Patten's books). Of course, various materialists and other sorts of dualists have perverted the meaning of evolution into almost every sort of pseudo doctrine. It would probably be a waste of time to consider explicitly those perversions, except the most pernicious one (par. c) :- that natural selection means might makes right' — means a continuous "fight" for existence, universal repulsive 'force, a nature red in tooth and claw, and all the rest of that Nietzsche - Treitschke - Bernhardi - Bismarckian blood-and- iron" unbalanced attempt to run one irrational factor to in- finity. However, if any reader prefers to take it that one of those perversions is orthodox evolution," then he may name the rigorously consistent principles given here anything he likes, and take it that I reject such orthodox evolution." b. The valid logic was not explicitly stated in past at- tempts to say what evolution meant (although Jordan, Patten, §14Sb XVI Three UNIVERSE 164 and Ritter clearly used it). But obviously, the important points shown by Darwin and others to be proved by the ob- servable facts may be stated thus:- (l) all observed species vary or are not constant (implying the infinite regress from the biological point of view) ; (2) each creature and-or spec- ies varies as a result of interaction with its environment, that environment including other creatures and species as well as "non-living" bodies (that implying the infinite regress from all other points of view) ; (s) and all that is considered a mechanical or positive way of understanding the whole uni- verse, in terms of "life." That is clearly directly equivalent to our equation Environment... X Perceptibly living species. . .=Life, or Universe. And equally obviously it is identical with the total of what was proved in Part Two:- All other atoms... X A given atom... = Universe; or with the That... X This. ..=Meaning of Part One. Species are more easily perceptible, as being natural structures, than atoms are ; so the general unification of science naturally took place first in a fairly definite way in biology — as evolution. c. But classic logic implies that there is a linear series of facts that proceeds in a non-circular manner from an ab- solute "lower" to an absolute higher" (whatever that may mean: the high" aristocrats seem to think they know, but cf. Index, ' Direction"). So the aristocrats (who considered that men also proceed thus in absolute order of class caste from peasant to kaiser) ignored, or were too defective men- tally to see, the fact that any living structure reacted with its environment (implying both attraction and repulsion, depen- ing solely on point of view [index, "Direction"]; and also obviously implying that even the environment is as good" as the king, or has structures essentially the same). They jumped to the unwarranted conclusion that evolution was represented by the pseudo, unfinished equation' Living structurei Living structure 2, 3, 4, etc., — quite analogous to the un- finished materialistic equation — interpreting such equa- tions' to mean that there is an absolute order of caste, so that as a truism of such dualism those presumably higher" in the scale always try to push down or back, or fight, those lower." They took the phrase survival of the fittest" (§144h), and instead of interpreting it correctly as a circular truism that means a mutual give and then take in infinite re- gress, they assumed the customary arrogant, selfish, or cruel premise of the aristocrat (who when very aristocratic is the pathologically insane egomaniac — or when no perceptible nerve lesion exists, paranoiac), that they were the fittest or best, and concluded that therefore they must follow the law of evolution by fighting the others. Now, obviously, from a One or infinite point of view, such an argument of repulsion can be quite true, just as we saw Reynolds s pressure to be. But it would largely capsize ordinary language to apply that sort of language to finite individuals — our ordinary language uses both the One and °° , action and reaction, repulsion and helping (§114c). But the aristocrats didn't have the intelligence to see the absurd contradiction, while pretending to speak ordinary language, of making evolution one irrational factor always acting in one direction. So they and their dupes fancied that along the road might makes right" they were becoming supermen ; but obviously they were merely proving the truth implied in the old adage:- whom the gods destroy they first make mad. All aristocratic doctrine, when put into humanistic form, primarily holds that there is a real order of caste in men (fixedly separate or dis- continuous), and that the aristocrat is the best, or the essen- tially superior, or the divinely ordained or called," or the partner of Gott or Jehovah, or the otherwise privileged person (getting something for nothing — a truistically impossible ac- tion without a reaction). Every such doctrine is at bottom wrong— as I trust I have made so glaringly obvious that even a mild aristocrat will have enough mental capacity to see it (and of course thereby automatically cease to be a dualist). But it is usually not possible, by the use of so mild a force as words, to "convince" the very defective brain of the "higher" aristocat, such as a kaiser or a hysterical woman. d. Taking the simplest view that everything is alive, natural selection means that all parts mutually react, just as the organs of a man's body act together. Certain parts are of course rejected from a given place ; but that equally im- plies that the part is attracted to another place. There is ultimately exactly as much pluralistic repulsion or the con- ventional "force" or "fighting" as there is attraction or the conventional "love" or ' peace." There is no need to carry the first to the degree of internecine warfare, or to carry the second to the degree of deadly stagnation or boredom ; an excess of one is, by the principles of action and reaction, as bad as an excess of the other (§§114c, 163b). e. Because the valid logic implied by the rational evo- lution was not definitely stated, conventional science explic- itly recognized as an unsolved problem a biological form of the One and Many:- whether (l) variation in an organic structure is inherent, or proceeds from within, or (2) is acquired, or comes from without." Obviously, (l) asks whether the structure is an absolutely separate universe, not affected by other adjacent universes, and (2) asks whether it is continuous with the single universe, so that the without ' can affect it. That obviously asks whether the Many or the One is true : it is answered by Part One. The specific, practical answer here, in biological terms, is that the ordi- nary live structure itself contains perceptible parts, which produce some perceptible variations from within, just as if the structure were a little universe (i. e., incommensurability truistically applies within the structure); also, variation must similarly (in some quantitative degree) be acquired from without. As a matter of observed fact, both sorts of varia- tion seem to occur perceptibly, although it is disputed; and obviously, if both sorts thus occur, that directly shows that circular reasoning is valid, and that there exists also the in- exactness of the infinite regress thus implied. And as both those contradictions to the classic logic were more or less evi- dent to biologists, they hesitated to admit that both sorts of variation were possible: they were in the same dilemma as Van der Waals (§82). But the biologists (except for Jordan, Ritter, Adami, Patten, and a few other first class thinkers I do not definitely remember) were not so clear as to what that fundamental difficulty was (although in a vague way the problem is given as "bathmism" ; "Ency. Brit.," x, 36). And they have stated the problem less broadly :- whether acquired characteristics are inheritable. We take up that problem, in the less general terms of heredity, in §147. In that form it is turned into the One and Many problem that has recently been named Mendelism:- the more fanatic, ma- terialistic Mendelians hold that each character or property of an organism is an absolutely separate unit (aa-_absolute bio- logic 'atom') — that the Many is absolute. f. That covers evolution generally. Obviously, by ex- panding the general evolution formula (naming the dots), evolution" becomes coextensive with humanics — with all of knowledge, as all things are alive. So if the reader does not like the particular names I have used in that evolution equa- tion, he has an unending choice of names just as good. The expert biologist is usually a prolific inventor of new names (as he has practiced with the naming rather than the measuring member), and a number of branches of evolution are named ( Ency. Brit.," "Evolution"); but as the principles have been seen the reader will not be loaded with them here. 165 UNIVERSE §146. a. We shall get a view of the principles of bio- logical sex, growth, and reproduction by considering our stellar galaxy to be a live structure and noting definitely what those terms mean with respect to its mechanics. So I am going to describe the universe in terms of sex. That obviously takes the term quantitatively further than is conventional; that extention of the term applies only in this section. At Three XVI §146g individuals to form societies. (identically the same process of uniting is exhibited by ether cells, and by higher" ord- ers of structures, as we saw in Part Two; here we merely have new names for such structures.) The cell that the birth of the galaxy whirl (XII) it is comparatively fluid — • i. e., all condensations are small (at least, smaller as a rule than later on). So it is virtually young — meaning that all "epigenetic or acquired" reactions or "factors" (i. e., all asymmetries coming, -when noticed, from whirls in the gal- axy whirl's environment — from without"), and all "genet- ic" or inherent reactions (i. e., all asymmetries coming, ■when noticed, from its inner structures — from "within") can be readily (i. e. , in comparatively small L and T) met or fairly balanced by secondary whirl formation. But as the galaxy whirl gets older, the condensations get heavier (the whirl becomes more a cluster; XII), and truistically an asym- metry has to accumulate more before it can budge some of those heavy condensations from their orbits to make the bal- ancing secondary. Also, truistically such an accumulated reaction has a comparatively large effect upon the whole gal- axy, and is more perceptible than a small, younger one. b. If the galaxy whirl is considered a biologic cell, that implies that in its environment there are, besides other cells of the same order, natural structures smaller than it, those being less perceptibly organized structures — single molecules of food, etc. c. The whirl is continually exhibiting secondary forma- tion at its field difference surface (its cell skin) — either taking in food or rejecting waste, as secondary whirls or as some form of whirl combining. Obviously, the fact that an actual cell ever forms in a given environment truistically implies that at the time the general sum of the asymmetries is for the food" to organize — that the cell grows. (There is also an inner" cell life, due to secondary formation at the fila- ment difference surface — at the skin of the cell nucleus, etc., — of which we have seen the principles in astronomical de- scriptions.) But at the same time the biological cell is giv- ing off waste. So, unless the environing cells can eat or in some way remove the waste of the first cell, shortly the food supply is interfered with by waste, and the cell stops growing. d. If the food supply is sufficient (if there is a tendency for the environment to maintain rather steadily an asymme- try in the direction of growth, instead of there being an en- vironment that is practically balanced, as we tacitly assumed is the perceptible case — a fact, in the few thousands of years we have observed it — in our galaxy in XII), the cell keeps on growing, and getting older and hence unable (too unbal- anced) to maintain such a steady growth. So at some stage of the growth an asymmetry accumulates sufficiently to cause the whole whirl to split — either by the mechanical equivalent of dumbbell splitting (§117) into two nearly equal parts (bio- logic "reproduction" by "fission"), or more usually by more or less perceptibly unequal splittings, just as with astronomi- cal whirls — in which case the biological reproduction is known as gemmation or budding, sporulation, etc. To save the reader's attention I ignore the fine distinctions in such terms. e. Truistically (§55, etc.), in no case can the splitting or reproduction be exactly equal — and in that fact of univers- al quantitative inequality of natural structures is exhibited all of sex, that same inequality or sex (sex is there used as a re- lationship word) including or resulting in the further tend- ency (l) of one cell to connect perceptibly with other cells to form multicellular individuals, (2) of such joined cells to become "specialized" organs, and (3) of such multicellular grows too large,' so that it splits, has grown so old that it has a perceptible asymmetry, or inequality of halves, or sex. One unequal part is male and the other female — and it is ar- bitrary which is which, and I do not know which part is male with reference to distinctions in human sex. For sex is again our general problem of direction (§99b): i. e., fundament- ally it is impossible that there be any essential difference in the sexes, as the difference is quantitative and reversible. Also, any part of the Many has a sex relative to any other part of the Many (not directly stateable, of course, when the parts are of different orders — as we saw was the case with temperature or any potential) ; for sex is simply asymmetry of equilibrium, and always with two natural structures there is some — some attraction and repulsion, in chemical or elec- trical terms. Sex is the fundamental human name for po- tential. (The term tropism is often used for such perceptible variations in biologic potentials, and asserted to be a chem- ical" process, etc. Also, some biologists use as a general name for it, more especially with respect to the cell and its food and waste, the probably preferable term osmotic pressure, which is one form of our chemical affinity.') When no such asymmetry is perceptible we inaccurately say that the biologic potential is zero — that the body is asexual or neuter. And as mentioned, different order structures, such as a man and the galaxy, although not directly comparable in potential or sex, may be so compared by using the inverse square law. That is the total general theory of sex. It probably is not quite intelligible yet. And I can see no present need to figure out the comparative sex of chemical structures, etc. f. It therefore is a truism that all growth (or waste) may be considered a chemical exhibition of sex. And all so-called asexual reproduction is by this rigorous theory sexual. Any secondary whirl formation is an exhibition of sex. But the quantity of such asymmetry is not enough to be ordinarily called sex until a biologic organism exhibits an attraction for another organism similar to the attraction of unlike electrical charges or magnet poles — with which it is identical in prin- ciple. That sex attraction is exhibited by all single cells if they are given enough time, thus :- The galaxy whirl, even if adjacent whirls clear out its cell waste and provide food, obviously keeps on condensing into a cluster or growing older (see par. m for a special exception— or §123), and its then relatively non-fluid or "ossified" internal condi- tion stops its growth ; and in the fairly steady conditions which promote such growth no asymmetries tend to rise that are sufficient to split the cell into new ones. And now we take it that the cell or galaxy is so much condensed that it is hard to split as a whole. But, at the same time this cell is thus reaching a sterile old age with respect to the sexual comparisons or reactions of its own parts, other cells in its environment truistically are developing a similar potential — but again truistically differing some in quantity. So by the time the food and waste in the neighborhood can no longer produce an internal sex effect on these galaxies considered as cells, resulting in "asexual" reproduction by direct fission, the potential of the food and waste no longer masks or bal- ances the difference in potential of two neighboring cells, and the two combine, in the same way that two clusters or whirls do. That combining makes the new cell somewhat fluid, restores its youth, and starts a new cycle. So far as has been observed, all biologic cells do have such external sex" un- ions, given a long enough time to age or to mature sexually. g. Those phenomena obviously do not necessarily have §146g XVI Three UNIVERSE 166 to proceed in the direct step by step fashion described. Just as two or more atoms need not 'wholly' interpenetrate each other and form some new elementary atom, but may form a more or less interpenetrating union (the fields and various condensations in them to some degree coalescing) to produce ions, solutions, molecules, crystals, colloids, etc., so two or more cells need not wholly interpenetrate each other in such a sexual union, but may have a partial union and thus build themselves up into a special organ. And organs may simi- larly build into an individual; the individuals into a percept- ible family and a society ; and the society may theoretically go on and build with others into a perceptible society of all the living beings in the universe. (There are practical diffi- culties in communicating with individuals in a galaxy so far off that even ordinary light will not travel to it; we shall be for a while doing practically quite well if we can have per- ceptible communication and hence social relationship, not largely destroyed by censors, with the people of Asia.) I. e., the dynamic unbalance between the environment of food and waste on the one hand and a few cells that are at nearly the same potential may be quantitatively just enough to cause a partial union of the cells. That can consistently be called a sex union; but conventionally that lesser degree of union is not called one. That union may be perceived as a direct growing together of ' processes" of the skin (forming con- nective tissue"); or the cells may join in other quantitative degrees — acquiring a single enveloping skin just as the solar field difference surface is a dynamic skin of the solar system. Such a union may be wholly of cells about alike, in which case there is an undifferentiated multicellular individual (more conventionally, it is called a colony, etc., of Mnicellular ones). Of course no such collection can be perfectly undifferentiated • — but some lower plants have no perceptible organs (' Ency. Brit.," 728-SO). The "growth" of such "undiffer- entiated" individuals is obviously by internal sex processes, producing fission. But that produces no new individual; and obviously, as their cells grow old two multicellular indi- viduals can not ordinarily unite sexually as can two cells, for the cell connections and outer skins interfere with such a pro- cess. But as the cells of an individual can not be perfectly undifferentiated or balanced, it follows that as the cells grow old and more solid the unbalance tends to accumulate at some outer location (by the principle of volcanoes; §122i), and the potential difference (sex differentiation) is there built up high enough to renew the growth of some of the cells and throw them off as a newly born or started individual — that internal sex process in its simple or primitive" form being, I think, conventionally called asexual reproduction by terminal budding (sex is not conventionally understood well ; so conventional names for the varying sorts of reproduction are vague). Truistically, that budding is a cumulated per- ceptible differentiation of the previously seemingly undiffer- entiated colony — an example of biologic hysteresis or lag. h. Again, it is not necessary that that internal sex pro- cess or differentiation go to the limit of differentiation into two individuals. For obviously, certain cells in an organism may get perceptibly out of balance with their neighboring cells, and the unbalance may be slight enough to permit the two sets of cells to react with each other as two organs — the unbalance being thus sexually compensated by the re- action of the two organs together in a conventionally recog- nized division of labor — a truism that is expressed by the formula, Cells in one organ... "KCells in another organ... (not- ing the dots or infinite regress). Truistically, the number of such organs can be increased as far as the stability of the en- vironment (climate) permits (the natural" determination of the number of organs follows the same principle of periodicity as the balancing of "increasing returns" with "decreasing returns" in economics [§l70o], or the number of planets); always, in order that the individual may exist, two perceptible relationships must remain:- (l) there must be a circulation of small food and waste structures to and from all organs (as in the respiratory, digestive, blood and lymph circulation in a mammal; or railroad and other transportation in a per- ceptible society) ; and (2) a quicker circulation of field pres- sure' or "trigger energy" or electrical potential, to maintain for the individual a tolerable balancing reaction of organs (such more rapid balancing or unified control is exhibited by or as the nervous system in mammals, and by as yet unper- ceived circuits in plants, and by verbal, telegraphic, post, and other communications in a society). Those two are of course merely the two usual aspects of the same need ; that one need can be summed :- 'coordinating (or generally bal- ancing) structures or organs.' And recently it has been ob- served that there is a more or less perceptibly continuous or regressing series of coordinating structures of which those two sorts are verbally too sharply distinguished:- There are "chemical" processes of coordination (largely taking the place of a definite nervous system in lower organisms), con- sisting of internal secretions poured into the circulating streams of food and waste. The substances are named har- mones and colyones ; the first are said to have been observed to raise the energy potential of the organs they serve to keep balanced, and the second to lower it. All organs, as a truism of secondary formation, must give off secretions (they are what I have been calling 'waste'); so chemical coordination in some degree is universal — but obviously may be said to be rather haphazard coordination. The circulatory systems are quantitatively more systematic coordinations. And the nerv- ous system is quantitatively even closer coordination, which works by direct field pressure rapidly (by electric currents). Obviously, the next general quantitative step would be a perceptible communication by waves given off by the nervous system or other organs ; such would connect the parts of the given individual even more closely (rapidly), and also connect him with other individuals rapidly. And a slightly percept- ible beginning of such a step in coordination is observable as telepathy, etc. That would be the last usually named quan- titative step; the next general step would be gravity, in a sense or form that has no biological name now. i. Thus we see how organs are specialized. It is merely a statement in biological terms of the infinite regress of structures. A number of such orders are actually percept- ible in biology ; inside the cell itself there are perceptible some orders or differentiation of groups of molecules, the cell nearly always having one perceptible grouping, the nucleus and the protoplasm (an internal female and a male part). That regress, or such mechanics, is proved by many observed facts. E. g. , there are numbers of probably correct observa- tions (Paul Portier) that often cells and the body fluids con- tain perceptibly living smaller individuals (symbiotes) — with individual "sex" life, etc. The regress of such 'individuals' truistically is infinite — their perceptibility is quantitative. j. It is even more obvious that an individual with differ- entiated organs can not unite externally sexually with another individual — fully interpenetrate. For the connective tissue is in the way — furnishes bonds that too strongly preserve the individual's balance against such amphimixis. So the differ- entiated individual can achieve general balance of potential in only two practical ways:- (l) by internal sex processes— i. e., by feeding, etc. ; and by reproducing itself "asexual- ly" by re-growing a cut-off part, by budding, by spore for- mation or germ cell formation in general, or by other varieties of parthenogenesis : (2) by external sex processes — in some 167 UNIVERSE Three XVI §H6o way combining its germ cell with one of the opposite sex. The only process conventionally known as sexual, with re- spect to that differentiated individual, is the second. But it is now clear in detail that those various ways which the in- dividual uses to keep himself in balance with the environment (or it is equally true stated vice versa :- those ways the en- vironment uses to keep the individual fairly balanced — to "preserve" him) do not differ at all in kind (they all reduce, from the point of view of the individual, to self-preservation), but merely have different names for different quantitative de- grees. The process in general is living," and is usually arbitrarily divided into metabolism and reproduction, thus :- Metabolism... X Reproduction... = Vital process, or Life. k. Therefore, with a differentiated individual (unless it be externally — i. e., artificially" — cut into pieces and kept in a clean nutritive environment, as Carrel has shown), the part of the process conventionally known as Reproduction... or sex does not rejuvenate the whole individual, but rejuve- nates only a certain cell or certain cells. So truistically, as far as the greater quantitative part of the individual is con- cerned, he (she, or it) can not ordinarily be made young by an external sex process (precisely as no physical potential can be raised for a total structure; §§140-1, etc.), and hence he for the most part grows old and in the ordinary sense dies. Therefore, theoretically, assuming surgical skill millions of times greater than now available, we could temporarily get the connective tissue sufficiently out of the way to allow all the cells of an individual to go through an external sex pro- cess (with the cells of perhaps another individual), and thus the individual could be made substantially immortal. Of course that is a stupendous job for some sorts of organisms. 1. It is thus clear why man grows old and dies. Briefly, it is because he grows so much connective tissue as a means of preserving a steady balance with the environment, that the tissue prevents a general rejuvenation when that is needed, and so only apart of him can begin the cycle over again {ex- cept when and as disorganized from being a man into his chemical constituents : his atoms are individually reorgan- ized then, but we do not call them the ' man"). Or, we gain one advantage at the expense of another. And as a rather obvious fact, the truth of which is further implic- itly shown in the next chapter, what we call our self or personality or consciousness consists of a series of mental phenomena in only one direction of time, so that if we were able to go through the complete external sex sort of immor- tality in a way perceptible to others, we would not see it as a perceptible continuity of our personality (nature has made one analogous step in such immortality in making butterflies, and as it didn't do them enough good, truistically they do not make another such step). In thus regaining our youth I judge we would forget our former self. That is a quantita- tive guess; self is a quantity as yet unmeasured, and my guess may be in a slight degree wrong. A child is a rejuve- nated part of his parents ; and that part does not consciously remember his 'aged self* that was his parents, or is not con- sciously immortal in that directly personal sense, although he is unconsciously thus immortal — inherits instincts (§158de). m. There is another view of preventing growing old that of internal sex processes, or Metabolism... . It is theo- retically possible by keeping the proper food supply going to the cells and sweeping out the waste, to cause all pairs of adjacent cells to become sexually polarized and to coalesce, rejuvenating them enough to produce the subsequent needed fission. Such a process theoretically runs Metabolism... to- wards the infinity limit, it then becoming mostly inclusive of and identical with Reproduction... (we saw in §104, etc., that one factor ultimately includes the other; e. g., the change to butterflies in the last paragraph probably more properly be- longs in the customary extent of the factor of this paragraph ; the biological factors are also finally the same, or the so-called fundamental instincts ,, of self-preservation and reproduction are ultimately identical. That method of continuous rejuve- nation (if the degree of it is mild enough) gives a perceptible immortality in the sense that the personality could manage to change slowly enough to remember itself. But that method requires more quantitative knowledge than we have now. In order to achieve absolute immortality in that way, truistically we would have to have infinite quantitative knowledge, which is impossible for finite creatures. So we, as finite creatures, can not achieve absolute self" or 'creature' immortality — the proposition being unescapably self-contradictory. Con- sidering ourselves as finally and really infinite (which is the exact truth ; §47) we already have absolute immortality — as is now obviously proved in a biological sense. n. The practical way of applying the principles of age in order to live longer is truistically to make as good quanti- tative judgments as possible in keeping a balance of Metabo- lism... X Reproduction... . Or, as Reproduction... directly affects but a few cells of man, it is better practice, after pro- viding for normal sex life (which of course has much influence indirectly in producing the result we are to see), to make narrower standard universes of Metabolism. .. , such as Food... "KWaste..., and keep those reasonably balanced. Such practical balancing is excellentlj' described in Fisher and Fiske s How to Live.' Metchnikoff's idea of prolonging life by keeping the intestines somewhat clear of poisoning bacteria is obviously one step in a general balance. An obvious practical fact, usually overlooked, is that a man may spend most of his time or energy in carefully maintain- ing his physical balance, leaving little to be otherwise useful to himself or others. Then he is rather worthless on the whole (except as an exaggerated professional example of physical culture," a few of which are educative). Much Anglo-Saxon overeating" is a proper instinctive spending of the body or health to get and use additional energy. In order to get the potential for beginning this book, for five years I deliberately ate quantities of sugar which I knew would end my life some years sooner (other things being equal) ; I figured that it was worth the spending of health, and possibly I have thereby acquired other means of regain- ing more years — and what are a few years in the darkness of ignorance and sloth worth anyway? In man, the or- gan upon which most strain or unbalance tends to come di- rectly, assuming the others to be fairly normal, is ordinarily the nervous system. So if it is kept active and well nour- ished (balanced), the other organs will be kept in fair balance and some youth by it. If you grow a quantitatively new idea, truistically the nervous system, and in turn the whole body, is in some degree rejuvenated bj r it. But if the idea is radical, unbalanced, not so," similarly you die some. I may mention that my health is fine, and getting better; that indicates that this book is generally sound. o. As the various organs become more highly specialized truistically each of them tends to become more and more definitely polarized ('magnetically') with certain of the indi- vidual's cells, named germ cells, which are highly unbalanced so that they strongly tend to combine with other oppositely unbalanced germ cells in an external sex process (and in turn truistically incline the whole individual thus). Those germ cells sum up the polarity unbalances of the individual s other cells. So they are comparatively unstable ( variable"), and various perceptible degrees of sex are possible with them. I. e., those germ cells apparently always divide by gemma- tion before they are mature ; and some germ cells give §146o XVI Three UNIVERSE 168 several generations parthenogenetically and then the next generation requires sex amphimixis ; and some germ cells can be fertilized by chemical structures of » lower" order, as shown by J. Loeb. Obviously, sex, even in its usual meaning, is nothing exact and constant — a fact in agreement with our total argument. Also, it is a fact that many sorts of cells (e. g. , some of man's blood cells) subdivide, and lead what is usually called a parasitic existence, with sometimes an ex- ternal sex life. I. e., in a highly differentiated individual, sex processes are perceptibly duplicated in infinite regress (cf. symbiotes, par. i). And that shows further that a so- called individual or person is perceptibly by no means an ex- act or absolute individual. If we look closely at a man, from any point of view he is not an exact individual (cf. §47). p. Some sorts of individuals (such as many plants) bal- ance their various organs by producing germ cells of both sexes. But obviously, by the principle of asymmetry, each such individual tends to be more one sex than the other — to have a sum of unbalance other than exact zero. In agree- ment with that, it is observed that such double-sex individuals preferably cross-fertilize. q. So, consistent with the last paragraph, an individual, as it becomes more differentiated, tends to become more per- ceptibly and definitely sexed — tends to have a chemical or electric polarity of its own, as a summed up potential of all its atoms. Consequently, that highly differentiated individ- ual s germ cells in turn react on the rest of it and produce perceptibly specialized organs conventionally called sex or- gans — we saying that their function determines the sex, al- though it is true vice versa, sex being perceptibly circular,' like valid logic. So it definitely appears that perceptible sex," being the summing up of the polarity of every atom in the body, is a quantitative condition, subject all the time to changes. I. e., a man may be more male one day than the next — a fact tacitly accepted by everybody, in respect to such marked variations as the age of puberty, etc. r. It then is a further truism, that for a highly differen- tiated species like man, the fertilized ovum, which is the perceptible beginning of an individual, is theoretically of a certain polarity, and hence is definitely sexed. Recent ob- servations show that ordinary sex is substantially fixed by fertilization (J. Loeb, Organism as a Whole," VIII; for general proof that cells themselves often perceptibly show sex in all the variability here described as pertaining to the whole organism, see Loeb's book, or "Ency. Brit.," "Cy- tology ). But theoretically, {{proper quantitative measures are taken, the sex of any organism can be changed at any time. And it is now obvious that the male organism is at- tracted, actually forced, towards a female organism in the same way that gravity and electric charges work. s. This section gives the mechanics of the so-called vital force (or forces) in enough detail to show how it works, and that it is identical with the force or relationship of any phe- nomenon. It has also implicitly but clearly appeared that all biologic processes are mutual (act according to the third law of motion) — being a balancing of forces from within and forces from without,- — that answering ultimately the biologi- cal problem of g!45e. That balancing obviously takes place in infinite regress in full agreement with Thai... X This... . §147. a. Conventional biologists usually imply the ques- tions answered in the last section by:- "the problems of heredity. Heredity is the general relationship, or more or less perceptible continuity or identity of successive genera- tions. And as that conventional definition obviously involves the implied assertion of the One in the ideas "relationship" and identity, and of the Many in the ideas that there is a perceptible change and successive generations," and as the observable evidence is of interest to men and easily seen, then the problems of heredity obviously tend to involve biologists in an at least tacit discussion of the One and Many. And heredity actually has been the subject of debate for years. It is equivalent to the debate among physicists as to whether atoms are real or not. b. The usual form of the biological question is whether acquired characteristics are inherited. The average man, automatically using the valid logic, has for ages naturally held that they are inherited — and by customary agreements as to the use of language, is of course right, as we shall see. u. But the biologists for some years tended to hold in effect the idea that all life is derived from previous life (and that is a One truism — for an atom, etc., is necessarily alive if anything is); hence, they tacitly held (what is obviously another One truism) that any cell has all characteristics. I. e., the biologists, being scientists and constrained to split things into the Many in order to use positive language, vaguely but in effect held that there was perceptible an infinite regress of characteristics in any living cell : they thus tacitly used the formula, Inherent characteristics =UJe. That formula as- serts the truth of infinite pluralism, and is of course quite right (Part One). And by such language, truistically all characteristics are inherited, and logically there is no such thing as an acquired characteristic. Some of the best Eng- lish biologists are now rather definite in their use of such a language, which form (cf. Reynolds's theory, §9l) is not or- dinary language. E. g., Bateson in effect says that a new characteristic becomes perceptible in an individual when some of the individual s other infinite characteristics become im- perceptible and hence no longer mask or hide that "new" one. That is obviously a backwards, Nirvana sort of lang- uage (for in everyday language we would say that that new one was old, etc.). The same infinite pluralism may be seen to be implicitly used by J. Arthur Thompson, in his Heredity" (especially in VII, to which the reader may re- fer for details (for a briefer statement of the debate in some detail, see "Ency. Brit.," "Heredity"). d. Therefore, {/those biologists would say that they are talking infinite pluralism, which is formally opposite to ordi- nary language, then they would be quite right. But they would obviously mean the same as the everyday language conclusion that there are both inherent and acquired charac- teristics, and that both are inherited. Such everyday language of course takes it for granted that when we talk positively of characteristics we mean perceptible ones, so that the formula (indicating the infinite regress of characteristics or properties into imperceptibility) is :- Acquired characteris- tics. . . X Inherited characteristics. . . =Life. As a practical con- venience it is better to stick to everyday language in biology unless it be decided to change to infinite pluralism in all science. It was shown in the last section that every phe- nomenon can be expressed consistently in terms of sex. But to make such a mere quantitative change in language is most probably undesirable— it is a matter for the decision of the majority (§17 Ik). To reverse language nearly wholly, in order to agree verbally with English biologists seems to me radical but then I am more conservative than the majority. ■ The English have taken on Weismann's theory of con- tinuous germ plasm (see next par.), which in its primary state was a correct and needed assertion of scientific continuity in biologic terms, and consistently and correctly carried it out to a logical end. At first the British, following Darwin's and Lamarck's commonsense that acquired characters are in- herited (which commonsense was of course exaggerated to a formal infinity by materialists in spite of Darwin's mass of data to the effect that such inheritance was slight in degree), 169 UNIVERSE Three XVI §HTh opposed that idea of Weismann's, and the beginning of the present British theory was soundly established by American biologists, led by Jordan and Brooks. After that valid infin- ite pluralism in biology was established by Americans, they naturally (i. e., with the practical commonsense which Ameri- cans substitute for the showy and less sound European erudi- tion that often is nothing but ponderous piffle that awes the foolish) gradually changed to the more useful everyday lang- uage of Acquired characteristics... X. Inherited characteristics... — and that sound and readily intelligible and useful form of biology is being expanded in America now by such first class men as Patten (who has unified the steps in the evolution of man), Ritter (who has been writing the argument of this book in terms of biology), Wilson, Kellogg, and Conklin. e. And there are some biologists who are wrong — the materialists, led as is usual with materialists by a German, Weismann, who elaborated his originally valid idea of biolog- ical continuity into a detailed assertion that there is a finite and definite set of classes of entities which determine inher- ent character, namely :- idants, ids, determinants, and bio- phores ("Ency. Brit.," Heredity") — which has much less meaning and logical soundness than the poetic assertion that little girls are made of sugar and spice and everything nice. Those materialistic biologists are sharp, exact, precise, rather insistent that there is nothing in life but what can be seen from their experiments, generally scornful of everything not falling within their finitely much narrowed purview. In fact, although Weismann discussed general principles specifically, he is by some claimed to have reversed his stand on the fun- damental matter of acquired characteristics. In the article "Heredity" just cited it is stated that lately Weismann has admitted the possibility of some direct modification of the germ-plasm in the body of the individual acting as its host." In short, he years ago vacillated about principle, and seems to be doing it again. That is a direct, rigorous proof of the unreliability of Weismann :- that he has perhaps twice shown that he is incapable of recognizing the difference be- tween principle and measures or experiment — between quali- tative and quantitative — between the One and the Many. The German chemist Ostwald showed the same fun- damental incompetence (total, if we judge him strictly by his words — which of course is not practically possible), in the 1908 preface to his "Outlines of General Chemistry," in his remarks about accepting the "reality" of atoms, which re- versed his previous views of the principles involved. As those men were perhaps typical pre-war Germans, having perhaps more intellectual integrity than the average German, those readily verifiable facts about them tend to show that the pre-war German was not able to distinguish measures' or expediency from principle, a part from the whole, a scrap of paper" from an ultimate consistency of mind or moral" obligation — that the pre-war German had become so mater- ialistic that all of the general equation he could grasp was a a few unfinished This's. Or, apparently his most extensive conception was a few This's that summed into his former aristocratic State. And that is what an aristocrat or autocrat essentially is — a materialist, a provincial minded or weak minded person who considers himself and a few associates to be essentially the best, and the only people who need to be considered. So he naturally wants to be "boss," and pose in the lime-light. This paragraph is important in that it indicates a method of judging the worth of men, and implies the principles governing "changing one s mind. Fundamental principles are simple enough for a normal child to understand. So when a man fails to grasp principles, and stick by them, then truistically he is shallow and superficial and incompetent. There is but little excuse for an adult's ever being definitely wrong in principle and needing to "change his mind" in the matter. When an adult vacillates with regard to principle, especially unconsciously, he is of little worth. But quantitative matters or measures are always changing. So the reliable man sticks to his principles, but always is changing his mind" — his judgment — to agree as well as he can with changing quantitative circumstances. f. The usual technical way nowadays of naming the un- its of the Many in the infinite-pluralism equation Inherent Characteristics =Lj/e is to say that each character is a unit Mendelian characteristic. Such a characteristic in analogous to an atom — a real atom in a universe of an infinity of them :- Atoms ^Universe. So the briefest way to describe Men- delism is to say it is a biological atomic theory. But some biologists tend to be materialistic about the theory — holding in effect that there are a limited number of such character- istics, each a finite, constant, fixed unit that can be juggled around forever without change. However, much direct evi- dence has been accumulated (by Castle and other good ob- servers) showing that there are no such sharp finite units. g. A Mendelian character, in ordinary language, is a finite 'biologic atom' which passes without much change from generation to generation. Sometimes a unit characteristic is observed to appear that was not perceptible in previous gen- erations — thus starting what is often considered a new spe- cies. Such an appearance is known as a mutation, or a discontinuous" change, in distinction from a variation, a slight change or continuous step by step process from gen- eration to generation. But clearly that distinction is merely a quantitative one. Obviously, by the principle of periodic- ity there must be organic structural parts ( biologic atoms') in such various L and T relations ; as a truism of our use of L and T there can not be an infinity of organisms between two actually perceptibly different organisms, giving a perfect continuity of steps between. So truistically, neither a mu- tation nor a variation is perfectly continuous or discontinuous, but both are perceptible quantitative different steps in the in- finite regress that applies to all structures. So we see from the direct point of view of heredity, that we can formulate a spectrum or a periodic table of elements of the inheritances (biologic structures). And it is obvious from the last section that there is no absolute distinction between one generation and the next. So the table of biologic elements' of any gen- eration is also in infinite regress in generations — which is quantitatively absolutely identical with all other phenomena, and again (cf. §144h) theoretically establishes a science of biology as definitely quantitative and exact as that of (say) electricity. There is no theoretical difficulty in making bi- ology as "exact" as any science. But if biology were to use any such roughly approximate equations as pass for exact astronomy the perceptible inaccuracies would be ludicrous, h. Thus it is rigorously shown that any atomic mechan- ics may be studied from biologic processes. But that huge mass of possible knowledge, and further details of heredity, must be omitted at this point. The general important prac- tical conclusion about heredity is that probably most of our traits are the results qf a quantitative balancing for millions of years, and hence are mostly rather stably balanced with them- selves (internally) and with the environment. So unless we change that balance very considerably, we truistically usually can not change a trait much. Obviously, it is excessively poor quantitative judgment to fancy that if we cut off the tails of rats for a few generations, then they ought to begin to be born without tails; for evidently, to cut off their tails makes little difference in their lives. If we cut off the tails of a million generations, then the accumulation of little changes might make something perceptible begin to happen to their §H7h XVI Three tails. However, to make a perceptible change in their tails quickly something that will intensely and widely throw the rat out of balance must be done :- so if we cut off their heads a violent unbalance results, and there is obviously an absence of tails thereafter; in fact, there is an absence of the whole rat in future generations — the rat has promptly and definitely acquired a number of negative characteristics. That is not a usual point of view; but it indicates what is reasonably good judgment as to inheritance. In multicellular beings, truis- tically the general communication and transportation systems, the general coordinating organs (§146), serving to change as the environment does and keep a balance, are most easily variable. So it is a reasonable judgment that (say) man s nervous system may be fairly readily modified, and that such an acquired character may be transmitted in perceptible measure (but usually of course in much less degree than its acquired degree). That is in agreement with the practical judgment of all who believe that some education is desir- able (for statement of the Environment... part of the continu- ing changes caused by education, see §166c). So it is a rigorous truism that human nature does change. The total facts of this book show that it can and does do nothing else but change. But a good bit of the change is probably cycli- cal, canceling in the long run. However, when the climate stays fairly steady, as it seems to have done for at least the past 9000 years (Osborn, "Men of the Old Stone Age"), there is a steady accumulation of nervous endurance and hence extended grasp, and quite probably of increased inten- sity — a very important change in human nature. In a One sense — i. e., in the sense that there is a universal per- fect balance — human nature does not change : but in pre- cisely the same sense it is infinite in its manifestations, and hence is also always absolutely new and different. So the sententious people who assert no change, even in a One sense assert but half the mystic truth — and sententious people are those who deal in such half truths. But in any quan- titative sense, theoretically men change. And so far as I can judge the facts, men have better nervous systems or minds or spirits now than at any time in known history, in the usual sense of "better" (given in XVIII). So prospective parents may correctly conclude that their child can be improved both by direct inheritance of traits they have acquired, and indi- rectly by their giving the child better nurture or environ- ment; and that it is probable, as a general average in a steady climate, that the child will be better. As a matter of fact, ordinary intelligent parents, guided automatically by the universe or commonsense (or, to use the old phrase :- by the grace of God), have held such an idea for centuries in spite of the fact that recently (and probably at various times in the past) it was in opposition to materialistic biologists, and in spite of the pessimistic folks with their half-truthful croak that "human nature never changes." §148. a. In the sciences other than humanics, the asym- metry or the potential between any two structures (or be- tween any two 'factors,' as That... and This...) may vary in any degree towards the limits and °° (§80m), and no ex- plicit comment or name is conventionally applied to the dif- ference in potential; sometimes enough difference causes a new name to be applied to the phenomenon, but not directly (§83). But throughout humanics there is an important dif- ference of terms :- those differences of potential are named, thus :- as soon as an unbalance goes quantitatively far enough the condition is given a name which is largely a relationship word, or explicitly implies a quantitative ratio, or implies a measurement (is in effect an ordinal number; §43b) — there be- ing many such names. The general name of large unbal- ances in biology and psychology is abnormality or disease (in UNIVERSE 17 ° psychology, specifically a mental or nerve disease or insanity). And that part of humanics that treats explicitly of such un- balances is called pathology : practical or applied pathology is called medicine. In ethics such unbalances are called evils; in sociology, crimes, etc. ; in economics they are called usury, profiteering, greed, etc. ; in everyday life unbalances of less degree than those "abnormalities" are bad manners, queerness, tactlessness, etc. There are thousands of such words, direct or implicit. In general, our life from an L and T or practical, quantitative point of view is the preservation of a balance (we must preserve a certain balance to exist; §§114c, 149, etc.). So all humanic words tend strongly to imply at least, a judgment or guess as to the measures of all things with regard to their balancing effect on our lives. A whole branch of science, ethics (XVIII), is explicitly con- cerned with such judgments ; and all practical sociology and economics is similar. b. As a consequence all of humanics is so permeated with at least implications that such quantities have already been measured or judged that it is difficult to state any of humanics "impersonally" or "impartially" or "unpreju- dicedly," as the "exact" scientists would say. But obviously such a persistent inclusion of quantitative judgments makes human- ics actually more of an "exact'" science than the conventional "exact" sciences. For always humanics carries along a state- ment of at least rough measures, and tends thus to be some- what reasonable or not quite silly; whereas conventional "exact" science perhaps half the time drops statement of the measures that Kelvin substantially says is the basis of science (§2c) and thus has a persistent tendency, repeatedly seen in Part Two, to run to or » . which is religious expression — and is merely silly or radical when claimed to be scientific. E. g. , when in §146 I started naming all processes sex, I promptly derived a language which was far from intelligible and was much more vague than is everyday language, which by 'sex' means well known tacit quantitative measures; and when I showed in XIV that everything could be expressed as electricity, I did precisely the same thing, but it was not noticeable that such language became quantitatively indefin- ite. In "exact" sciences we may obviously drop definite statement of measures and experiments — and even talk of in- increase of entropy, which is positively silly, — and still seem to be conventional and to be reasonable in judgment, whereas we are actually being wildly radical. Truistic with those definite facts, scientists who blatantly claim they are ex- act" are airing their hopes — practicing 'make-believe' (§155). Such blatant exact" experimenters are often the worst radi- cals — depart worst from actual measures and usefulness. c. In brief, all the humanics are forced by conventions of the ordinary man's speech to carry along continually some more or less explicit statement of judgment as to quantities. Humanics are thus in actual practice far more nearly exact, and demand far more knowledge of and direct reference to experimental facts, and in one word are far more scientific, than are the so-called exact sciences. So humanics theoreti- cally are not only better mental training in science (they are too hard to be dumped first on an untrained mind), but are more directly useful, and serve as the best check I know of upon wild inaccuracy, and that irrational running to zero and infinity which we have seen so often occurs in the hard- fact," experimental" sciences (e. g., Steinmetz's silly socialism, and even more puerile excursions into general science). (I hold no brief for biologists, or other humanics expert; I am not one, and never expect to be one, but sim- ply state the simple principles and a few glaring facts.) The practical objection to humanics is not that they are vague, but that they are so difficult that we are likely in them to 171 UNIVERSE Three XVI §149d become quantitatively confused. To approach humanics with any considerable chance of remaining consistent, and fairly balanced quantitatively, we need to train some on the simple exact sciences taken correctly as inexact. A vol- ume or more of rather obvious conclusions from the idea of this section is omitted here. But it is to be noted that these quantitative measures in humanics are not very systematic, and often are not what we would call conscious and hence definite. This paragraph is quite true, while at the same time it is true that definite, systematic measurements are badly needed in nearly every branch of humanics (experts in humanics have no grounds for acquiring that smug self- satisfaction from the fancied perfection" of their science that attacks as a severe dry-rot many exact" men). d. It follows further that to understand any of the hu- manics, we must definitely know the general theory of what is quantitatively abnormal, and get some standards as to what degree of departure from the balance constitutes ab- normality. The fact is that in no branch of humanics is there any very definitely agreed upon standard of what is normal. But there is a remarkably close tacit average agreement as to human measures, and if we know the general principles and are fairly average ourselves (i. e., not unbalanced or abnor- mal), we shall find ourselves using those measures before formal science can definitely make them. E. g., it has been found that in a fairly steady market the prices of foods were in much closer relative proportion to their actual nutritive worths than dieticians were able to figure until after many years' work ; even yet it is likely that the market price may be more accurate in the long run than formal experiments. §149. a. In this section we briefly consider biological abnormalities, and the applied science that deals with them :- medicine. A biological abnormality or disease is defined as "any departure from the normal [i. e., "common" or aver- age] standard of structure or function [i. e., use] of a tissue or organ" ("Ency. Brit.,"xx, 915). That implies that the normal, or health," is an exact balance. That is not a use- ful, soundly scientific definition; as every thing is always asymmetrical relative to others, that definition asserts pessi- mistically that all organs, etc., are diseased. So if the encyclopedia gives the orthodox definition, it appears in a general way that the conventional theory of measures in hu- manics is confused over the One and Many. (We shall see that such is often actually the case; e. g., the usual ethical rule for conduct, do unto others as you would that they do unto you, is quantitatively wrong; §162). So we may at once make a consistent scientific general agreement, applying to the whole of humanics, that for the "average" individual (or organ, or any structure), from any point of view, there is a certain quantitative departure on one side of the precise aver- age balance, and another (usually about the same in size) on the opposite side, which departures from an exact average are quite tolerable, pleasant, and normal (a more precise and definite picture of this is given in Fig. 163 for ethics, which may be substituted analogously for the present rough intro- ductory statement in biological terms) ; and departures fur- ther than that are for the time being abnormal — or disease, or painful, or "wrong." Truistically with asymmetry or in- commensurability, the normal quantities on each side, are, for each individual, different from other individuals', and are al- ways changing for a given individual — what is one man s meat is another man's poison (but in a very mild degree, usu- ally). This quantitative matter of abnormalities is the theory of harmonic periodicity ; previously our attention was on the structures that were built up out of broken down ones, and now it is on the breaking and broken down ones. b. Truistically the general cause (the "aetiology") of any disease (or other abnormality or wrong") is a sufficient departure from the balance. (There really is no such unbal- ance ultimately or religiously, as we saw in §114c; a disease exists verbally, in formal L and T terms, when we are con- sidering a finite part of the universe, such as an individual — which is what we saw in terms of logic in §25). The disease may be perceptible after a short time lag; and per- ceptibly cease after a similarly short lag, upon the cessation of the unbalance (in which latter case it is an acute" one). But the time lag may be greater, so that the unbalance only slowly throws various structures out too far; the stractural unbalance is then likely to lag, as a chronic ' disease, for a similar time after the removal of the cause." Ob- viously, therefore, if we do not in experience learn what are the normal limits of our balance, and properly manoeuver to keep within them (be temperate), we shall have disease. It is a practical need that we learn such human quantities. And we get such knowledge by having a sort of sensation to which we give the general name pain when we exceed the limit. We may readily observe that there is no sharp distinction be- tween a feeling of pain and one of pleasure; there is a vague neutral zone between, agreeing with our difference surface and the total theory of That...XThis... (cf. §163). If we do not feel (observe) sufficiently keenly, or interpret a sensa- tion as being a pain when it comes of too much unbalance, or if there is considerable time lag of the sensation and we overlook its cause, then truistically we get out of a fairly pleasant balance without at the time definitely knowing it and correcting it, and sooner or later we die if the unbalance cumulates. So pain is the physical (or mental, if you prefer that word) price we pay for being stupid — if we are. And so far as I have observed we are all of us sufficiently obtuse mentally to get pained occasionally. c. Clearly, all of our perceptible life is the consciousness of an unbalance or difference of potential (l) between the environment and ourselves, and subsequently, as a circular process, (2) between our own organs, and in turn (3) between them and the environment — and (4...) so on ad infinitum until our bodies wear out. If there were no such local un- balances we would perceive nothing — as has been shown re- peatedly. Obviously, such perceptions of unbalances can be continually experienced without accumulating abnormally only by a cyclic process — by going first in one way and then the other, giving off and then taking in secondaries across differ- ence surfaces of the body. A general example of that is the cycle or rhythm of feeding:- We eat, and a certain amount of food, having flavor near the average, is pleasant; but too much food, or food that is too much or too little flav- ored, is unpleasant or painful, and if too painful perceptibly kills (with slight time lag). Then after eating we do not eat for a while, using or assimilating that food, and get pleasantly hungry. If we go too long without food it be- comes painful, and a cumulation of the unbalance in that direction also kills us. In precisely the same way any struct- ure is changed in order ( killed") by too much unbalance. d. All observed organisms tend to be active roughly as a whole for a while, and then be similarly quiet — so that there is a large or individual' rhythm of anabolic and kata- bolic processes. Numerous examples are so well known that they may be omitted. In the case of man that rhythm is in general an alternation of waking and sleeping; i. e. , after we have been active for a while, accumulating a, general ex- cess of anabolic results, the coordinating nervous system, in some more or less yet unmeasured quantitative manner stops unifying or making perceptibly conscious" the individual, and each organ more or less disconnects from the others, and rests, and recuperates from the stock of food previously §H9d XVI Three UNIVERSE 172 accumulated. Obviously, during sleep we are more or less dead. But we can not be absolutely dead, for the unifying relationship of (say) gravity always persists between the ether cells that are our bodies or minds. e. The important point to note now is that if we go through life keeping within the pleasant limits, sleeping at the right times to give a painless, rather unconscious recup- eration from the pleasing anabolic activity which always tends to accumulate painful fatigue poisons (waste), then we can as a general rule be perceptibly happy, or comfortable, or cheerful — or truistically optimistic. But if we went along in that pleasant existence very long, obviously we would (due to the fact that our perceptions are poor) (l) fail to remember just what were our quantitative limits, and would (2) also fail to exercise our organs to the verge of those limits so that they would keep the habit of having such limits for pain. As a truism of both those reasons, we would either accidentally occasionally run over the limit into pain, or else would re- duce our limits of tolerance so much that our nervous systems would have to make a painfully intense effort to stay inside them, and we would be bored" — that boredom obviously meaning a painful effort and impatience at maintaining a deli- cacy of balance that is narrow (the result of too much cod- dling in this case). In both events we would suffer pain. In the case of boredom, it is sensible to choose to be pained in some way in order to restore a reasonable wideness of percep- tion that likes an ordinary unbalance (thus avoiding being an exquisite, or a mollycoddle or achieving an artistic tem- perament" ; cf. §159h, etc.). It sounds paradoxical; but it is merely a case of harmonic periodicity. An application of the same principle is furnished by this book:- I get tired of maintaining a careful precision of statement — making That. . . and This... react in a delicate balance. The normal reader is also tired by it: we are both bored by all precise, "ex- act, meticulous, hard fact," sure thing" discussion hav- ing such narrow limits of tolerance, even though I show that absolute accuracy is impossible. But that boring of myself and you shows directly that those who fancy that they want a life without pain, or exact science, are not aware of its nat- • ure. We do not want to play a "sure thing" life, or have a really exact science; we want to gamble more or less, de- pending on the limits of what we (and especially the others affected appreciably by it) can stand without much pain — and if we can't do that we become bored so much that the pain of being a mollycoddle or a similarly narrow Puritan is greater than the hurts of quantitative risks and mistakes (for rigorous theory of gambling, see footnote 163h; deliberate cumulative gambling is death). And what we thus actually want is hence proved to be what we can have: we can not have any hard facts, sure things, or exact science, for there are no such things. After your experience of being bored by the precision of this book — by its "austere mechanics" — you are truistically experimentally competent to judge just how much of a sure thing in any part of life you want, and can dodge falling into being a mpllycoddle of either the lux- urious type or the Puritanical mentally narrow and timid (i. e., precise) type. In brief, I have demonstrated by directly verifiable biological facts that there can be and must be if an enjoyable life is to be preserved long, « temper- ance in being temperate — an infinite quantitative regress in temperance. The present age perhaps is intemperate chiefly in demanding hard facts, and exact science and experiments. The German materialists are a sufficiently horrible warning example of such intemperance; but as it has not before been proved that such intemperance is possible, I had to prove it was by some intemperate precison as a sample (cf. §85). f. Consequently, occasionally as individuals, because individually we are finite, we must accidentally (from our point of view) be pained; and occasionally to escape the worse pain of boredom we must deliberately (from our finite point of view) subject ourselves to pain. The fundamental error of the parasite is that it, she, or he is too stupid to act on the latter fact. We dislike the parasite because its actions imply a fear of pain — a fear of vigorous departure from the balance, — so that we judge it a coward. Clearly, the pre-war German docility, the acceptance of military discipline and of paternalism, was one grade of para- sitism, and implied some degree of shirking of life just as the poor workman shirks. And the resulting narrowing of per- ceptions led to or caused the customary autocratic egotisms of the leaders' that the shirks were then afraid to and incom- petent to hold to account. It is quite rigorous! j' consistent and circular, you see. So from another point of view it is obvious that a general unbalance in our lives must ac- cumulate (due to subjecting ourselves to pain, to hard work," in order to maintain perceptions), so that finally we as individuals die. But as a general thing, if we are fairly intelligent, life is pleasant and free from pain. The man who suffers very much does so largely because he fails to use enough intelligence to avoid it — and not as a result of extrin- sic bad luck, an unkind Providence, etc. It seems to be reasonable arithmetic to judge that, because we have a fairly wide tolerance for unbalances, whenever the L and T sum of pain in our lives reaches 25 per cent (with pleasure amount- ing to the other 75 per cent) we are automatically dead. So in a quantitative sense it is a reasonable guess that the actual amount of unhappiness, and-or warranted quantitative pessi- mism in people s lives is not likely ever to go as high as 25 per cent. Also, a quantitative amount of optimism equal to 100 per cent is never warranted. And as we by experience vaguely know those quantitative facts, we find a large amount of verbal pessimism to be as wrong (and because it tends to unbalance us by suggestion, to be as offensive to us), as is a large amount of optimism or asserted gladness. An at- tempted 100 per cent "glad game" is totally illogical and hence much more offensive than the bad guessing in a 50 per cent grouch"; but Mrs. Porter asserts ("American Maga- zine," Nov., 1918: I have not read "Pollyanna" — I didn't think I needed it after a course of Christian Science and some years of the wonderfully" glad people in advertisements) that Pollyanna" herself sensibly tried merely to have any inaccuracy of estimate of pain fall in favor of optimism [obvi- ously that is correct in principle], and did not try to be a 100 per cent quantitative optimist. As a general problem in prin- ciple, ignoring expression of quantities, the One is perfect, and so in our everyday language the "real" truth is that opti- mism is perfectly right, and pessimism totally incorrect. Also, because all of the Many (because every finite structure) in time ceases to exist as such, or "dies," and as death is a zero quantity customarily named "undesirable," then from a general Many (infinite pluralism) point of view, pessimism is totally correct. So if we talk infinite pluralism, by ordi- nary verbal agreement pessimism is correct. And relation- ship or God the Holy Ghost words may validly imply either pessimism or optimism, depending on the customary way of considering the "direction" that they imply or name. g. Truistically, therefore, the panacea for all diseases is to restore the balance. And such a panacea is obviously a special quantitative problem for each case, and often practi- cally impossible for the general reason that we can not perceive in the time available just what and how much the un- balances are, or-and just what to do to restore balance. In time we may acquire much of that quantitative knowledge; but always it will be impossible practically to keep a finite 1T3 UNIVERSE Three XVI §l*9j individual alive eternally (§146m). A German, Ehrlich, formulated a theory of a reputed real panacea which was to be in effect a chemical substance (i. e., had a molecule not so elaborate in structure as a living" organism), that would act as does a general sort of internal secretion — traveling in the body and restoring each cell to a balance, whatever its diseased unbalance. As is usual with the ideas of material- ists, that theory of a panacea exhibits the failure of its author to grasp the nature of the One; for a real panacea is a One, and anything that approaches being a panacea approaches be- ing infinite — a simple truism of which Ehrlich seemed to be ignorant:- For such a chemical panacea would obviously have to be infinitely varied to meet and adjust the infinite possible unbalances ; and Ehrlich personally could not have made a chemical of that sort, and no individual man could have swallowed one molecule of it if Ehrlich had. Further, he apparently overlooked the time factor: for in order to cure a disease such a panacea truistically would have to work faster than the nervous system does, and in the ordinary sense of the word, a chemical" will not do so. ■ As a matter of obvious fact, in a strictly rigorous sense there is already a real panacea in existence, available for use by everyone, and actually used by everyone:- the universe. There is no finite cure-all for any unbalance — biological, sociological, psychologi- cal, etc., — and truistically can not be. As stated, the restora- tion is a special quantitative problem for each case, and like all quantitative problems can not be accurately solved, though practically a fairly good solution is usually readily obtainable. h. But we can work out some general rules for the res- toration of unbalances, which may be quantitatively adjusted to particular cases. Physicians already know and apply these rules, and continually try to get closer adjustments of measures. So I shall be brief in outlining them, although the total universe could be described in terms of these rules for curing disease. We need to agree first, as a tru- ism of conventional meanings of words, that a disease is "cured" when the organs chiefly involved are restored to within normal limits. Truistically, it is never possible to re- store the various structures to exactly the same condition that existed before the disease. And also, the diseased structures, their host, the physician, his medicines or tools, and all the rest of the environment are mutually interacting in effecting the cure, sometimes one and sometimes another of those fac- tors being quantitatively more important. No one of the fac- tors is ever totally absent, and no one of them alone effects a cure. The physician and his tools may be perceptibly miss- ing in a given cure, they blending with all the other unper- ceived environment; but when nature thus 'alone" does the work, there is usually a comfortable, healing knowledge that a physician is available — which makes him an actual factor. i. Medically, a disease can be "functional" or "organ- ic." When it is functional, it is meant that there is some unbalance or structural defect ("lesion") inside cells or other structures, which lesion is so small that it is not perceptible structurally, but is shown only by the poor functioning or working of the structures. When it is organic, the lesion is perceptible or "gross," so that both the structure or organ and the functioning are perceptibly abnormal. Truistically, ultimately the function and the organ are identical, and the distinction of functional and organic is a quantitative one and in practice is continually being further shown to be ar- bitrary and never distinct. It is also possible to divide all diseases into (l) those caused by poisons (unbal- anced secretions) given off from the insides of cells or organs, and (2) those caused by the introduction from without of 'poisons' (which consist of any largely unbalanceable foreign objects, such as improper food or other chemicals or objects, including live objects such as microbes and bacteria) :- Un- balances by foreign poisons. . . X Unbalances by internal poisons. . . ^Disease. There are obviously an infinity of such classifica- tions possible ; the doctors find it convenient to use a number of such, but as the principle of them is obvious I may omit them here — thus omitting volumes of quantitative experi- mental detail. Such abnormal details, by their nature of being very asymmetrical, would truistically give us the most easily perceptible facts about biology. Such pathologi- cal details are offensive to a normally balanced person — that meaning that he judges them to be an unbalance he himself wishes to keep away from. As everything is connected, such a personal point of view can not ever be totally avoided, in spite of the erroneous, dualistic standard of complete im- personality" recommended by some materialists. So obvi- ously, a doctor who can succeed in so thoroughly considering any disease as a case' that he has no perceptible personal attitude towards it, thereby shows that he has lowered or narrowed his ability to observe (and diagnose and treat) in a quantitative degree perhaps dangerous to the patient — has unduly killed his brain. But the non-medical man should recognize that the physician must in some measure avoid feeling too much personal sympathy in order to work; and in the effort to do that, many doctors acquire an outward habit of pretending to do so which helps them to ignore their sympathy enough, but which make-believe by no means in- dicates their actual perceptions or state of mind (§155). I mention such a familiar condition with respect to doctors be- cause the same outward pretense of indifference and imper- sonality is often displayed in a normal degree by other men for their work, and it is well to interpret it correctly. It is especially so with scientists, who apparently coolly discuss all sorts of abnormalities : the keen observer, by understand- ing the principles (§155), can readily see under the make- believe. Generally speaking, the person who actually is too impersonal or calloused, pretends, in a half-conscious effort to balance his defect, to be very sympathetic with many things and becomes gushing, ' gay," sloppy" — sentimental or mildly hysterical (e. g.,the professional patter of the average trained nurse). But of course the few great doctors have the strength not to need those pretences — can be steadily nat- ural and unaffectedly poised, leaving their total strength un- hampered in seeing more than the ordinary man can — e. g., Weir Mitchell, Goldthwait, Cabot, the Mayos. That applies to other men, of course ; e.g., as Dewey says in his Intro- duction, I indulge in make-believe about the trick' with words; I do it about another subject, too; hence I have not the requisite strength to write this book properly. (I may mention that the last ten lines were not in the version of the book Dr. Dewey saw.) It thus is beginning to ap- pear in a few details how very widely in our lives the hu- manic quantitative estimates extend. We have already seen that classic logic is incompetent in them : we now see that the classical logic views as to the need of impersonality in science are erroneous — in a way directly offensive to normal people. So it begins to appear just why and how logic" — classic logic — got its bad name among men. Also, the reader begins to see evidence that in humanics things are not always what they superficially appear to be, and why only a knowledge of principles, coupled with conscious experience in estimating the measures of men, gives definite understand- ing in humanics. Such understanding shows that our judg- ments of human motives are usually very inaccurate (§148c). j. As I must omit the classifications and descriptions of biological unbalances in detail, we may briefly note some of the principles of cancer, as being a sort of practical general summary of diseases. In cancer some cells get out of balance §149j XVI Three UNIVERSE 174 (out of the control of the rest of the body); and start what is substantially an "individual" life of their own (and perhaps they exhibit 'external' sex, although no definite observation of that exists so far as I know). Obviously, there are two general ways in which cancer can start:- the body cells and organs other than the cancer cells — other than the cells which later get out of control and are cancer — get relatively weak or subdivided (become lacking in strong unity of bal- ance, just as galaxies grow old) in innumerable ways, so that certain otherwise normally strong cells have too high a po- tential relative to those other cells and hence start out as un- controlled cancer cells ; or (2) the body cells in general stay in normal strength of balance, or perhaps have even stronger balance or unity than usual, and some undue external stimu- lus or irritation acts on the cells that become cancer to jar them into such a relatively high potential that they start off individually. In the first case the cancer cells stay normal and the body control or potential drops; in the second the body stays at normal potential and the cancer potential goes above normal — both producing the same relative effect. (The directly quantitatively opposite disease to cancer is gangrene or abscesses, where some cells get so relatively weak that they die. All diseases, including cancer, in part exhibit some dying of cells — agreeing with the principles of cycles and of valid logic.) So again as mere truisms, the remoter causes of cancer are very numerous, and cancer is theoreti- cally an infinite series of particular diseases in which there is locally an over-high relative potential that in effect is a re- versal of the multicellular organism back to unicellular life (analogous to the breaking up of too highly condensed star clusters), or is a 'biological socialism' (§175d) — although some cancers tend to differentiate into multicellular organs, that may be called a higher ' series or order of cancer, and is a less radical biologic socialism. So all the orthodox theo- ries of the cause of cancer are probably right, the varying theories applying to the varying sorts of cancer (see Ency. Brit., ' Index, s. v. Cancer"; Bainbridge, The Cancer Problem," Sec. IV). And various differences in cancer po- tential are observed :- some cancers are quickly brought un- der control by the rest of the body (as in' benign tumors"), and are often absorbed (e. g. , warts on a child's hands), the potential not being able to remain above that of the rest of the body. Other cancer cells act as if they had great ex- cess of potential, grow rapidly, and can not be checked in any way yet found that does not also kill the host. Cancer when once started reacts unbalancedly in various ways with the body, and if not checked finally kills it in some of those ways. We may look upon the unbalance from any of the quantitative points of view already mentioned :- (l) It uses an undue amount of food, tending to starve the rest of the body. (2) It throws some of its cell waste into the gen- eral circulation, and that is sometimes perceptibly damaging. Those are the inner and outer points of view with respect to cells. Considering the body as made up of organs, there are two similar points of view:- (l) The cancer cells take up space needed by other organs and thus tend to block or choke or squeeze them out of existence and grow in their space. (2) The other organs similarly block off the cancer cells, and tend to kill them. (A secondary result of that is that often the cells in the interior of a tumor are blocked off [the tumor, being largely undifferentiated, may itself help do that blocking off], and die and decompose, more or less poi- soning the host.) All diseases truistically go through similar reversible processes — which are obviously the second- ary whirl formations of Part Two. Cancer is a disease in which the differences of potential are easily seen. In diseases due to the introduction of foreign live organisms there may usually be greater differences of potential; the processes go faster, and 'overrunning' (acquired "immunity"), etc., make them harder to see clearly. k. From that summary of the general processes in a dis- ease the general methods of treatment are obvious being truistic. All diseases — all so-called wrongs and evils — are local asymmetries which we judge we want in better local balance. So we move around some of the things outside the L and T that apply to the given local asymmetry, in order to get a "smoother" (i. e. , wider space and time) distribution of the asymmetry, which thus becomes locally narrow — or cured, as it falls within the limits of toleration (par. a). So truistically the most important thing to note about the cure of any disease or evil is that it is a local process, and that the universe as a whole is all right and needs neither any general or total cure (reformation), nor any local reform so violent or fanatical that it over-cures and makes an unbalance in the opposite direction as bad as the one reformed. (To cure a man of indigestion, and charge him all he owns for doing it, so that he starves, doesn t help him much — a simple fact which second-rate "specialists" are too dense to see.) The words cure and reform conventionally have taken on consider- able implication that an essential or One meaning is intended — that everything or the whole [usually a standard universe] is wrong. The kindest thing which can with fair truthful- ness be said of such an implication is that the quantities are grossly exaggerated. Such radical cures or reforms are hence so bad that they have cast a suspicion of incompetence upon those who claim to cure anything. In actual practice the ostentatious reformer or healer is usually as wrong as the local unbalance he fancies universal— but in the opposite way. 1. As a typical application in practice of that general theory of reform or cure, we may consider medical cures more specifically. A certain lot of cells are out of balance, and (l) the balance must, as a truism, be restored either (A) by stimulating them in some way to a higher potential or to a lower potential as may be necessary, or (B) by acting vice versa on the other cells of the organism — or (C) we can com- bine those two. And (2) as a further truism (of L and T, as this is a quantitative problem), either of those variations of potential may be produced either (A) by a direct and intense action on the cells whose potential is to be varied, or else (B) by a more or less indirect and extensive action upon the celW environment (or a combination of the two, of course), so that the environment in turn acts on the cells, varying their potential. (That obviously makes the two arbitrary methods ultimately identical.) And finally (s) either of those two must be either fast or slow, compared with whatever standard velocity we choose. Those three truisms are of course trite and obvious ; but as they constitute complete quantita- tive statement of the methods of restoring all unbalances it is well to have an explicit statement of them — as the obvious is usually overlooked in emergencies (i. e., in unbalances). m. So we may in general treat a disease by simply put- ting the patient into a different environment; if the unbal- ances are slight and obscure the chances are that "nature" will cure it — even though that 'change of environment' is so slight as to consist of merely "absent" mental treatment, if the patient is made quite cognizant of such treatment, by (say) such a perceptibly concrete variation of the environment as paying for it. If he has to work a bit vigorously to pay for a change of air," the change will probably cure him — while just the reverse change will cure another with about the same unbalance. In such cases of change of scene the method is slow, and the environment is changed in unknown degree, and acts indirectly. In a more severe disease the patient may die before that method has time to work ; and 175 UNIVERSE Three XVI §H9p when a patient dies it is commonsense finite judgment to hold that there was no cure. All that obviously indicates whatever there is of good in laissezfaire methods : in case of nearly complete quantitative ignorance about an evil, the only sensible thing to do is to let it mostly alone while find- ing out something definite (it is of course impossible to let it absolutely alone), and to supply the slight 'change in envi- ronment' by explicitly recognizing that the universe or "Prov- idence" is treating it. Truistically, a little way out on the infinite regress all treatments become laissez faire (it is the practical end of no exact science). But the other side of that verbal half-truth is that we are always tinkering with all un- balances and that those tinkerings also have infinite regresses so that there is from that point of view no such thing as lais- sez faire. Therefore, any rational laissez faire is that applied to an evil so slight as scarcely to be painful, or is that which is used when we do not know with reasonable certainty what to do and have not had time to observe the details. n. The opposite extreme of cure, both in shortness of T and in direct application of the action to the diseased cells (i. e., L is also short'), is surgery, where the diseased cells are forthwith removed as completely as possible, or else poi- sonous secretions or foreign substances are removed, or mis- placed cells replaced. Obviously, in such a cure the most nearly accurate quantitative knowledge that can be obtained is required, as well as skill and art in directly applying it in the shortest possible time. Perfect surgery truistically con- sists of opening all the diseased cells and repairing them atom by atom or electron by electron, etc., restoring a nor- mal balance, and doing it so fast and so directly that no sec- ondary damage is done to the organs. Clearly, we are not likely to get very close to that speed and delicacy soon ; surgery in practice must leave some unbalances in the organ- ism (there are usually some new ones also, made by the sur- gery) to be cured afterwards — largely by laissez faire. When such remaining unbalances are about as bad and-or as hard to cure as the original ones, truistically the surgery is practically useless. And when the surgery kills the patient with any perceptible directness, by ordinary language it is truistically a failure, and I will not bore the intelligent read- er discussing contrary quibbles. The surgeon who speaks of a successful operation, the patient dying, is a materialist. o. Between the extremes of laissez faire and surgery are all varieties of cures. The most commonsense cure is of course to use the various methods in combination :- Suppose a man stuck a fairly large splinter into his hand, that intro- duced enough poisonous germs to infect the wound. We at first naturally use direct methods, cleaning out the wound and disinfecting it as intensely as possible without causing appreciable damage to healthy tissue. If the infection is very hard to kill otherwise (which I do not think is the case nowadays), we deliberately cut out some perhaps healthy tissue so as to be sure to reduce the danger of infection, and then cure the deliberately made unbalance later. By those intense, direct methods we get as much cell balance as can be quickly obtained, and as can be achieved with some cer- tainty that we were getting at the right cells. In applying those direct methods we protect the patient's nervous system by anaesthetics, both locally and generally, as may be neces- sary to prevent any accumulation of marked unbalances due to pain upsetting the nervous system and indirectly other or- gans (and later the patient can recover from that anaesthetic poisoning slowly and hence with tolerable discomfort). Then we begin the indirect, usually slower methods. We intro- duce (usually via the digestive tract) various chemicals into the circulation of blood and lymph which are to exercise a balancing effect on the abnormal conditions still existing about the wound and secondarily elsewhere. A trifle of defi- nite knowledge of such drugging, with respect to killing for- eign organisms, exists, and is constantly being added to; but very little is definitely known of the effects of other sorts of chemicals: and not much is known of the secondary effects (unwitting unbalancings) of the infection-killing drugs. So that indirect method of drugging is theoretically useful, but practically in its infancy — a fact well recognized by leading physicians, though they are often doubtful whether it is wise to admit it to the average man, and thus give him a chance to jump to unwarranted conclusions and despairing states of mind. Yet I quite agree with Cabot that the patient ought to be told the truth : for the proof that such » principle is correct, see throughout XVIII ; also, there is obviously no more reason why a man should become mentally a molly- coddle and be protected from truth, than that he should be a mollycoddle protected from vigorous work. Then the next sort of indirect treatment is to feed the patient properly, so that the normal parts of him will have their po- tential raised somewhat if possible, as a means of healing the wound. Similarly, we put him in an agreeable, restful en- vironment — and do not go out of our way to tell him unpleas- ant truths just then. But possibly the most effective indirect treatment available (and it may include as a part of it those just mentioned) is to get the man to think that he is going to get well quickly and want to. Then the strongest coordi- nating factor of his whole organism, the nervous system, is actively engaged in having the whole body give out proper secretions, etc., to restore the unbalance in the hand. There is nothing mysterious about that : it is what the nervous sys- tem is for — why it differentiated into a definite organ. But because for so long the dualists have taught that mind and matter are essentially different, the average man often has a vague notion that thinking" he will get well will not do any good without material drugs. So there is no objec- tion to helping his thinking with foods, drugs, and envir- onment; those material things are part of his thinking anyway, and if he is correctly told that they themselves will help some, his thinking is likely to be normal. The direct treatment thus supplements the indirect treatment ; we apply all the quantitative knowledge we have, in the proper times and places, and get a cumulation of good effects. And when we run into ignorance, we stop and leave the rest to nature, p. But clearly the most sensible way to treat a wound is to avoid getting it — the man ought, as a general rule, to have kept his hand away from splinters, — such indirect treat- ment, given by keeping the nervous system alert, being more efficacious and comfortable than any other, up to a certain point. In brief, a quantitative knowledge of the probable situations of life should be obtained, and unbalances treated before they accumulate to a very painful degree — that being the principle of preventive medicine. A reasonably intelligent man can usually manage to avoid any serious injury; and by keeping in good balance by means of food, work, etc., is not likely to be painfully affected by swallowing or otherwise ab- sorbing disease germs and other foreign matter from the un- avoidable ordinary environment. If he finds it advisable to expose himself to injury and infection, he can, by the same indirect methods, anticipate and ameliorate effects by creating such resistance. Considerable knowledge has already been gained by medical science as to how to create a chemical an- tagonism to infection. And preventive medicine, like other sorts of treatment, can not be perfect. The chief ob- jection to it is that it itself will cause unbalances if taken too seriously and overdone. Also, chemical indirect methods of preventing infection (e. g., typhoid vaccination) cause per- ceptible diseases that may on occasion be as undesirable as §H9p XVI Three UNIVERSE 176 those they prevent. The use of preventive medicine by an inhabitant of Cuba against frost-bite is usually not sensible, q. Perhaps the most exaggerated idea advanced in medi- cal science in recent years is the mental healing one — and of those who propagate that idea the Christian Scientists seem to be the most emphatic. Those mental healers are obvi- ously to a large quantitative extent right: clearly, if we can be cheerful, and confident that we are strong enough to 'down" any disease, we shall most likely prevent our get- ting any disease — barring accidents not worth while trying to foresee and avoid. It does help a certain more or less hysterical type of person to avoid disease temporarily (it tru- istically in the long run harms), to come flat out with the absurdly exaggerated assertion that there are no perceptible unbalances — no disease and no evil. The hysterical person has an aristocratic type of brain, in which from some cause (usually from generations of parasitism and docility: often from intense shocks, etc.) the perceptions are much narrowed and in that actual unbalance with the environment there is a tendency to consider everything more or less wrong. So if such a brain, in a violent effort to -cure itself, asserts em- phatically enough that there is no unbalance, the direct, temporary sum of the two unbalances is a balance — health — so far as the hysteric can see. So from his point of view (but usually a hysteric is a woman — about twenty to one), there is not any disease, and he is rather immune. And when he has a mortal error" that he has got a disease (in our every- day language his "mortal error" is a concrete fact), he stimulates (frequently with a healer's" help) his brain to assert even more intensely that he is all right. It is truistic- ally possible for a man to grow on a new leg in place of a lost one if he can think a new leg with enough intensity. But as as a matter of commonsense in quantitative matters, he is not likely to, and would be sensible not to waste time trying. Mrs. Eddy's very elaborate glad game" obviously has occasional usefulness medically. Incidentally, Mrs. Eddy s Science and Health" is a striking example of a mystic book. It is not science; science is pluralistic ex- pression (X), and her book is surprisingly mostly the oppos- ite — being an almost continual jingle of One words, which judged by everyday pluralistic language, is largely nonsense. But she keeps at the ineffable One so long that the book act- ually does give a sort of religious grasp of things if the read- er can avoid objecting to its nonsensicality from the scientific point of view (so it appeals religously to over-sophisticated people who have learned mostly what isn't so; Index, "Re- birth"). There are numbers of such mystics in the Middle Ages: the Catholic church usually approved of those classic ones. I rather think her book is useful when understood for what it is. If she thinks science is a fashionable word it is rather a good thing that she misuses it some, as it is bad for science for it to be fashionable. And perhaps unquestionably Mrs. Eddy cured herself by her unusually persistent ineffa- bilities. What she had was severe hysteria: ample proof of that will be obvious to the fairly close observer who reads a panegyric of her:- Sibyl Wilbur's The Life of Mary Baker Eddy": cf. §155. r. It is therefore obvious that the quantitatively best way to restore an unbalance is to use a practical, balanced combination of the reasonably easy available ways. Leading physicians nowadays definitely take the unified view of man given by this chapter, and apply the unified methods outlined in this section. The practical idea of the Mayos was to get a unified competent diagnosis. Goldthwait has improved that idea by showing definitely that the human being is a unit, and then collecting a coterie of experts to treat those who chiefly have something wrong with their skeletons. Goldthwait thus finds a way, so far as formal organization can do it, of getting the advantages of specialization without its worst disadvantages (the disadvantages, for obvious reasons, almost unavoidably crop out in large organizations). In sociological analogies, we have seen that a nature cure is laissez faire. Obviously, the surgery cure is a revolution, going as far as a reign of terror. Autocracies try the Chris- tian Science cure of jingo patriotism, paternalism, and saber rattling, thus giving mental healing in an exaggerated way by specious promises and scaring off devils, until some social abscess blows up; and then there is usually a resort to social surgery. Existing democracies more or less blunderingly try more moderate methods, analogous to the cure for the splint- er wound, and usually manage to muddle along some way — which is better than blowing up. A conscious democracy with a fair amount of intelligence obviously would use pre- ventive medicine, and get along healthily ; for preventive medicine is merely having keen enough nervous systems to observe a slight departure from a balance, starting correct- ing it at once if it tends to accumulate. Obviously, this section indicates the general method of correcting all difficulties or wrongs. An intelligent child can understand the method, and grasp the fact that it is truistically rigorous. But the application of the method requires careful quantita- tive judgment as to just what and where the unbalance is (actual diagnosis, rather than mere complaining or calamity howling), and as to the available means of curing it with the least disturbances of other balances. That application truis- tically involves an infinite regress of measures, is absolutely insoluble with accuracy, and for acceptable practical solution needs strong, vigorous, keen observers, who see not only the unifying relations in their specialty, but their extension. CHAPTER XVII. Psychology. §150. a. Psychology is the description of the universe (or usually in practice, a standard universe), taken or made from the reverse point of view, or in the opposite direction, from that in which we start with ordinary or "objective" That's and This's. Or, in the book up to this point we take That s and This s as positive' or given, and make an equation That. . . X This. . . =Meaning, and consider that the Meaning is our result or conclusion, or what we are "after"; but in psychology we start with Meaning, usually calling it the mind (or some synonymous name), and going in the reverse way, split it into arbitrary parts. Thus, we have an equation from both points of view:- That... X This... ^Meaning— Feelings... XIntellect... . And for those psychological terms Feelings... and Intellect... we may substitute numerous other- wise "psychologically" named factors, which are simply new names for That's and This's. b. Clearly, that definition of psychology is circular. And the total of all descriptions of the universe, including psy- chology, is thus explicitly circular — as Feelings... XIntellect... (or some equivalent pair of factors) is identical with the vari- ous That... XThis...'s but is reached by starting from where they end." So the definition of psychology, and the fact that there is psychology, are consistent with the solution of the One and Many, and with valid logic — is final general crucial proof of the validity of everyday logic. c. Classic logic, with its dualisms, goes in only one di- rection and hence can not give a consistent definition of psy- chology as a science. For proof of that, see the attempts of Ward ("Ency. Brit," "Psychol."— xxii, 548) to give one, and his admitted failure to make such dualism work. (He was a very able British psychologist and philosopher; his 177 UNIVERSE Three XVII §150g from it and split state their rela- "Pluralistic Philosophy" and "Realm of Ends" are in effect identical with the argument of this book, but formally not.) Ward in the place cited finally defines psychology as the science of individual experience." If we take ' indi- vidual to mean any organized structure, then obviously individual experience" is equivalent to Meaning; and the science of Meaning obviously is to start' it into parts — into That s and This s — and tionships. And that truistically implies that conventionally our experience, or mind, or soul, or whatever it is preferred to call it, is perceptibly a continuous thing, or is really" a Mniverse — implies that we are persons, or are organized. When we come to examine our consciousness minutely, we sometimes seem to note breaks ; and that has confused the matter. I imply the solution of that as we proceed. d. That much of this section gives a consistent state- ment of psychology in the whole of knowledge, from a con- ventional point of view that ignores theory of measurements. A more rigorous description or definition of psychology (that implies the solution of its conventional difficulties, and makes it an exact science in the sense that it is as directly meas- urable as is, say, electricity) is:- (l) ps3 - chology goes in one direction, using arbitrary T or time to assert such a conven- tion or convenience, while (2) the objective sciences go in the opposite direction, so that the two together cancel the direc- tions" and cancel L and T (i. e., cancel all quantities as be- ing arbitrary), and give us the real continuous universe or Meaning. Or, to put that briefly, psychology is dynamic and the objective sciences are static, and only the combination of the two sorts" of sciences gives a really complete or con- sistent knowledge (§80, IX) — or a consistent epistemology, as the philosophers name it. Or, to put it into still more intelligible detail :- Precisely speaking, the so-called object- ive or material sciences do not exhibit a relationship known as time. Obviously, we can not experiment, in a test tube say, in the "past" or in the "future" (§85d) — all our concrete, objective experiments consist of a comparison of space loca- tions (identities) in tlie present. And as the present is a zero time-duration (is the limit between the past and the fut- ure), it follows that precisely speaking there can be no such thing as a strictly objective or concrete science : all our so-called con- crete science is obviously multiplied by that zero (that zero time or T), and simply does not exist alone (i. e., as really orabsolutely "concrete"), and truistically can not. In short, objective or material science (the science of matter that is sometimes asserted to be different, distinct, dualistic from "mind") is absolutely static in form and impossible. And on the other hand, again speaking precisely, in our observa- tion of that concrete space or L — in all our "experimenting" with L in the "present" — we really do not perceive L, but perceive a relationship that we call a time interval — a T which is not zero, but an L which is zero. Or, speaking precisely, subjectively or mentally we do not consider things of thought as occupying space, but consider them as a series of time intervals, which is the "opposite" of space. Or, sub- jectively, the One is formally infinite time, and space is zero: objectively, vice versa the One is formally zero time, and space infinite: and only both together give* formally the complete expression of the truth (§147h), that expression ob- viously containing the formal inevitable contradiction of the One and Many. Therefore, there is in the science of psy- chology (the science 'opposite' material science) always a zero L, and hence such a distinct science can not exist. e. The sum of the matter is that in all of science which has any consistent existence we combine subjective and objective, material and spiritual, concrete and ideal, static and dynamic (IX), and get an absolutely unified science, in which it is possible to make consistent but arbitrary L and T measures, and which is therefore arbitrarily pluralistic — that Many sum- ming into a One. Thus, psychology is inseparably combined with so-called concrete science. And it is irrational to pre- tend (as do the materialists) that they are separable. f. The precise equation for all knowledge is therefore :- Objective parts implying L... ^Subjective parts implying T...— Universe, in which T is 1JL, so that we have the truism :- L.../L... = l, or Universe. We can analyze that equation in more detail:- We have That... X This... = Meaning, and Meaning= Feelings. . . Xlntellect. . . or =Feelings. . . X Conscious- ness... . In those equations (cf. Part One) That... Y, This. . . is, explicitly, M's that are static; so truistically, That... X This...=ML... . And Feelings... X Intellect... is, explicitly, M's that are dynamic; so M/ T. ..= Feelings. . . X Intellect... . The solution of the One and Many requires that we combine the two, in which case, by §86, we have a series of truisms. So ps3'chology comes in circularly, and can not be dispensed with as a part of any exact ' science. Half of the measuring, or scientific" (§39e), member of our gen- era] equation — i. e., the term T — is psychological; and that member M(varying with)l?T~^ thus implies an absolute, uni- versal, circular, ineradicable identity of mind and matter. That is true with such glaring obviousness that I have been able to write this book up to the present point by tacitly taking it for granted. The total theory of measurement — of what is strictly science — is now explicit, and we see that there absolutely can not be any science not inseparably con- nected with persons. There is nothing strange or novel about that : it is merely the obvious fact that science is made by men. The substance of pars, d-f is repeated, in a more conventional and intelligible form, in §158 on memory. g. It is thus rigorously proved that mind and matter are identical — are not parallel" in the sense of (l) mutual in- teraction (except of course the immediate implication of such is identity), or of (2) occasionalism," or (3) pre-established harmony (see Index, Teleology," for disproof of this third dualism), or (4) the "monism" of Spinoza which had mind and matter parallel attributes of One Substance ( Ency. Brit.," xxii, 600-1). In epistemology (i. e., in the most general solution of the One and Many) we must have (as a necessary truism of language; §§83-8) primarily at least two points of view which may logically interact, and so we take this contradiction:- (l) we take things' (matter) one by one (arbitrarily calling that separation":- space or L); (2) then oppositely we take consciousness or mind as continuous (arbitrarily calling that continuity in taking things:- time or T). That fundamental reaction or contradiction of static (one by one "things") and dynamic ( taking" those things) is truistically a prerequisite of any positive language. If we do not want to talk, then obviously there is never any need for any distinction between mind and matter. But if we do use language, then all complete statements must truistically contain the formal contradiction between mind and matter; i. e. , all sound "scientific" statement must contain both con- crete science and psychology — both L and T. So any valid science may be said to be either concrete or spiritual (psycho- logical), depending entirely upon the arbitrary quantitative consideration of whether L or T respectively is more empha- sized (hence man's spirit or soul is essentially the same as the mental activity of any animal, but differs quantitatively in the degree in which he uses T — which difference often is not enough to speak of). In the foregoing parts of this book I have conventionally emphasized L, as I was talk- ing of conventional material" sciences. In fact, so conven- tional is it thus to emphasize L, I often had to assert explicitly that there was a T included (cf. IX). If I were to go back §150g XVII Three UNIVERSE 178 and emphasize T, more or less ignoring L, the descriptions would become psychology. In that case various names other than the "physical" ones used would be more conventional. That extensive psychology will not be given, but the use of such psychological names will be indicated in this chapter. §151. a. There is thus no essential difference between psychology and concrete science. The quantitative difference is that psychology emphasizes T. There are two chief aspects of that quantitative difference. One is that psychology is so emphatic about T that in its conventional texts the problem of the One and Many is so nearly explicit that the texts seem much like "philosophy." The second is that psychology is always implying by its names a measured judgment — normal or abnormal quantities. We noticed that in §148, and I shall not again take it up explicitly. b. As psychology starts from Meaning, or the universe considered as mind, the tacit emphasis is obviously on the fact that there is a continuity. In order to talk about a con- tinuity, it must be split or analyzed" (a real continuity is as such absolutely ineffable). And psychological splittings were so perceptibly not real splittings that always there was a disturbing knowledge in the psychological writer s mind that he was trying to assert two opposite things at once. At first, say in Descartes's time (or even more in that of Aqui- nas), before there was much clear thought on the subject, the mind was made sharply dualistic with matter (though the link, God, was then manufactured to repair the error), and the mind was broken into similar sharp dualisms known as faculties" — such as the faculty of memory, the faculty of will, of feeling, attention, and so on as far as the ingenuity of the psychologists could invent. Such faculties were held to be constant, exact mental atoms.' But it is now unfash- ionable to hold that there are any such things — there too ob- viously is no sharp line or distinction between the arbitrary parts — so that even materialist German thinkers like Muen- sterberg, although they in effect use such 'mental atoms,' shy away from the name faculty. So now, more than ever, the psychological writer of much sincerity and competence is constantly engaged in a rather perceptible struggle with the One and the Many. And that struggle is painful to himself and often to the reader. There is obvious in Ward's article Psychology" (a treatise of nearly 100,000 words, "Ency. Brit.," xxii) a constant rejection of explicit dualism, result- ing in a painful uncertainty as to how the logic must go. The result is that nearly every psychological term is usually run by good thinkers like Ward (who have not advanced as far as our first class American psychologists like Dewey) into all three Trinity forms. Hence the confusion as to the con- ventional meaning of such words is dire — for one Trinity meaning is used about as often as another, and in the ortho- dox absence of explicit solution of the One and Many no logi- cal distinction is clearly pointed out. ■ As we know the solution of the One and Many, that conventional diffi- culty will no longer bother us by making most psychological writings vague and unintelligible — except that it will take us about a generation to get used to that solution, and to learn to apply it with easy skill. This book will look, to those of of a few generations hence, as unnecessary and clumsy as the old arguments that there are antipodes look to us. §152. a. Psychology usually discusses individual ex- perience — takes a man as being the universe, usually cor- rectly as a standard universe. But obviously, we can let the single man unbrokenly include the total universe, and the mental sum of him in that aspect is (l) "social psychology." If we take him bounded by his skin, then there is a psychol- ogy of single although related men, or (2) "individual psy- chology." The principles of the two are obviously identical; the differences are quantitative, and due to the fact that the means of communication existing between members of a society are not so good as a rule as communication by the nervous system of one man. No quantitative distinctions between individual psychology and social psychology have been definitely agreed upon ; I shall indicate the principles of both in this chapter, and give a few applied details of soc- ial psychology under its usual name sociology in XVIII, XIX. b. In concrete science we split the universe into parts on the criterion of their having principal difference surfaces at V\ — which splitting could never make any part exact. In precisely the same way the entities of psychology, the ment- al parts, are tacitly divided and named by that criterion as arbitrary quantities. It has been found by observation that changes in the nervous system produce directly corresponding change in consciousness, and that such changes do so more directly and intensely than do changes in other organs. Even more directly, it is observed that changes in consciousness are accompanied by electric currents in the appropriate parts of the nervous system — truistically indicating organized field structure (XIV). So by the whole of valid logic and the de- scription of the universe up to this point, it follows that the nervous system is in general identical with the mind or soul or consciousness. And as perceptible consciousness is ob- servably accompanied by, and identical with, electric cur- rents in appropriate parts, and as such currents are based on V\ (XIV), it follows that quantitatively perceptible conscious- ness or soul is the result of such energy transfers to such con- scious parts of the nervous system as suffice to cause their principal difference surfaces to acquire a velocity of V\. That is obviously directly proved by the readily verifiable fact that if any stimulus — any transfer of energy to or from the ner- vous system — gets proportionally weak it will fail to give a perception; and if too intense, it will also fail (§156). c. Those same quantitative conclusions are identical with biological facts :- The nervous system is composed of cells called neurons. Each neuron has at least one main process or thread-like extension of itself that may sometimes be sev- eral feet long, called the axon ; and usually has small pro- cesses named dendrites. The axon and dendrites in turn usually divide into still smaller processes called fibers, and some of those fibers unite the cell with other neurons, and others may unite it with other sorts of cells in the body (by means of at least seven recognizedly different small organs that are nerve endings," not counting at least two sorts of nerve endings in the retina, etc.); and so far as can be ob- served there is no discontinuity in those unions ("Ency. Brit., xix, 40l). So obviously the nervous system is a con- tinuous coordinating organ, joining the body structurally perceptibly into an 'individual' (i. e., "continuous") organ- ism. No other general structure of the same order or size as the whole body does thus coordinate it; the various circulations in the body coordinate it by means of their small "chemical" structures. And if there is such a thing as consciousness or mind in the universe, it must by our solution of the One and Many (it must, as a truism, if the universe is not chaos) be identical with the whole uni- verse, and a part of it must be identical with some structural partof the universe. Consequently, as there must verbally be consciousness" (or some equivalent name for the Tin the general equation), it directly follows from the facts in the first part of this paragraph that biologically the quantita- tive or perceptible consciousness of the whole body must be identical with the nervous system structure. Such was seen in the last paragraph to be the observable fact. So this and that paragraph circularly and rigorously prove the general argu- ment of this book, and explicitly demonstrate the verbal 179 UNIVERSE Three XVII §153a machine or equation :- Nervous system or cells. . . X Perceptible consciousness. . . = Consciousness, or Soul, or Mind. d. Therefore the customary meaning of personal con- sciousness (not necessarily .te^-consciousness) is obviously a quantitative meaning, given by the equation :- Environment, including parts of the nervous system not perceptibly working... X Perceptibly working parts of the nervous system, or personal con- sciousness... = Consciousness {in general, or One consciousness), or Soul, Mind, etc. That obviously rigorous equation (which may logically be either for the whole universe or for a stand- ard universe, according as we interpret the extent of Envi- ronment, implies the solution of all psychological problems. Most such conventional problems are matters of definition — of observation of the language agreements used, to see to which Trinity part a term used belongs : thus, I have used the term consciousness in both members of that equation, as it is ob- vious that conventional psychology and everyday talk do use that word about equally in the two logically contradict- ory senses (we also use it as a relationship word — against which additional and worst puzzle the mathematical symbols protect us; §80e-g). In order to be precise, I used the ad- jective personal to indicate the Many usage. But psychology and everyday usage give the term soul mostly a One mean- ing; so it is fashionable in psychology either to avoid the word (because as a One word it obviously is not a scientific or Many word), or else practically to deny that man has a soul. In everyday life it is getting to be bad taste to mention the soul — for that psychological reason, and also for the common- sense reason that we wish to avoid casual talk of something we are uncertain of. But evidently, as soon as we make the logical distinctions in the equation we know the nature of soul, and there is no embarrassment in using it — although as soul" has been used with such gross irrationality in the past (especially in the theological phrase immortal soul," meaning a personal immortal soul) the word may retain a taint of stupidity, and perhaps may better be avoided. e. Volumes of detailed psychological solutions explicitly implied by the equation of the last paragraph must be omitted. The reader is amply able to expand into the de- tails that interest him the few general suggestions needed here. The most important solution implied by that equation is that there is no such thing as personal immortality — for the most excellent reason that no fixed, constant, distinct, ex- act, "real" thing or person, or a personal consciousness, or a personal or Many soul exists or can exist. As a glaring tru- ism, if a certain thing can not exist it can not be immortal; a prerequisite for immortality is existence. A person, or personal consciousness, or a personal soul, is a continually changing thing, as we shall see in more and more detail as we proceed, and as is obviously a fact from the slightest ob- servation of our own consciousness:- e. g., our personal soul changes so much that quantitatively it totally ceases to be perceptible every time we go to sleep; and hence it never is perceptibly "immortal" for so long as a few days. But obviously, as our nervous system (and-or mind), exactly speaking, includes or is the total universe, truistically in a real or One sense we are immortal. I. e., time simply does not apply to us, ultimately, so that right now this instant, we have all the time there is — which we may equally logically say is infinite time or zero time. In that One sense you are an exact, fixed person — for you are, with absolute organic connection in infinite regress, the total universe or God, and as such immortal if we wish to say so (§47). We take up the moral aspects of immortality in §167h. f. Because personality is a quantitative thing it is also not correct to say that it absolutely ceases to be — absolutely dies. Death (§146lm) is itself a quantitative thing and not absolute. So it is quite possible that there may be in some quantitative degree (probably a slight one) sometimes a per- ceptible amount of personality that survives what the doctors call death (but probably for only a short time). I. e., at medical death the person's nervous system may still in the cortex, for a while hold a physical organization or physiologi- cal unity sufficient in degree to give off psychic waves, still organized as being the dead person," that might constitute a telepathic message to a living" person. It may be pos- sible that those waves could affect a wireless coherer or some such machine as Edison is reported making (which would be more reliable than persons). That is all theoretically pos- sible; the phenomenon is merely a quantitative one, and in many cases the cortex shows no evidence of change shortly after death. It is even possible that such telepathic mes- sages have been received : judging from the triviality of those reported by various people, and their grossly mutually con- tradictory nature, if any are genuine some such quantitat- ively defective, moribund personalities" might have sent them. But that does not imply personal immortality: it proves the opposite, merely showing that personality is quan- titative and changing when by a person we mean a finite one. It may be an experimental fact that some messages from the dead were received after the sending cortexes were organically disintegrated. If such happens, it is as a first approximation quantitative proof of a time lag in the re- ceiver s brain. On the few occasions I have perhaps got telepathic messages from the living there was a time lag; apparently a message was stored up until my brain was about half asleep before it could get attention. But regardless of those quantitative possibilities, the truistic disproof of per- sonal immortality is rigorous. Those possibilities obviously imply others, omitted here. We saw (§144j) that in biological terms there is no finite real personality; so there can not be a real personal immortality. And as direct experimental proof of the principle that there is no personal immortality, when I was dead (§144j) I was totally uncon- scious of my personality in the conventional sense. I know another man who was dead once and his experience as to having no personality is the same as mine. §153. n. In orthodox psychology the nervous system or consciousness in general is considered to extend out in a vague way, and join on in some unstated way to the object- ive things which are perceived" — in short, orthodoxly the environment is joined to us thus by the nervous system. So there is a well known word, with many synonyms, for that really-joined-on Environment. . . (including parts of the nerv- ous system not perceptibly working):- feelings; with synonyms such as emotions, associations, sensations, subcon- sciousness, the unconscious, or even consciousness. (There are many such words that in principle are synonymous; but all of them, including the ones mentioned, imply some- what different quantitative splittings of the universe — though there is some disagreement about those implied judgments.) Also, there is a well known word, intellect, for the perceptibly working parts of the nervous system, or for the directly per- sonal consciousness. And the term intellect also has many synonyms (varying somewhat quantitatively) :- thoughts, ideas, mind (in the sense of personal mind), sensations, per- ceptions, apperceptions, reflection, the conscious, conscious- ness, understanding, the reason, judgment, brains, sense, commonsense, etc. Therefore, we have for our explicitly general psychological equation in §152d, the more common- place one :- Emotions. . . ^.Intellect. . . =Consciousness, or Mind. But there are commonplace words for that [One] Conscious- ness which are more precise. The word will (the psychologi- cal or mental will) is almost always used to name the climax §153a XVII Three UNIVERSE 180 or summing-up of any mental action, and is obviously usually identical with that One Consciousness. Ordinary synonyms for will are behavior, experience, mental life, conduct, pur- pose, volition ;~ again there can be a quantitative difference in even those One words ; that difference implies a quantita- tive comparison of extent of various standard universes used — an important logical point. So we may write the general psychological equation (omitting the measuring member, which is the same as in concrete science), in commonplace terms, as :- Emotions. . . ^Intellect. . . = Will. b. We may substitute synonyms, and get various illumi- nating equations :- Subconscious. . . X The Conscious. . . —Intui- tions. . . X Perceptions. . . = Behavior; Associations or Memory. . . X Reflection or Apperceptions. . . =Mental life; or, Intuitions. . . X Sensations... = Experience, or Self; or > Intuition or fringes of consciousness. . . X.Self... = Will. Clearly, we can take any of the numerous psychological terms and by substituting them in that equation assign to them a well-defined, rigorously logical meaning. And we see that some words (e. g. , con- sciousness) may conventionally be put in any place in the equation about equally well ; e.g., above I shifted self from the standard universe meaning to the intensive factor, in which latter place it is obviously identical with James s ex- tensive description of the personal self or personality in his chapter on the consciousness of self ( 'Psychology," X). A number of those terms conventionally are usually relationship words, and would most appropriately serve to replace the X (cf. §168b); such words are association and reflection, and often intuition. Hence, it is obvious that only a defi- nite knowledge of the solution of the One and Many can de- termine just what a common psychological term does mean in a given case; for we continually shift the Trinity form of those terms. E. g. , when we have a faint desire to empha- size the importance (i. e., quantity) of intellect, we pair it as Intuitions... X Intellect..., which rather implies that feelings too are intellect or faint intuitive thought. And when we get specially weary of the erudite fanatics and eulogists of the intellectual life who assert or imply that the intellect is the real part of life, we use some such correct formula as Intuitions, or Instincts, or Feelings. . . X Sensations. . . , which leaves out any explicit mention of intellect — although obvi- ously it is replaced by a synonym (i. e., the dots assert a connected or organic infinite regress ; so Sensations. . . means the pleonastic phrase organized or classified" sensations' — which is truistically identical with the usual meaning of intellect, or with the necessary meaniug of reason," if reason is to have any consistent meaning). c. In the equation Emotions... X Intellect... = Will, it is obvious, as a truism of definition and by direct observation, that Emotions. . . finally (if we consider the whole universe) is the extensive factor that refers to all the parts of the universe and their workings which are not positively (we might say name-ably) perceptible to us as Intellect... . So obviously, in numerousness of details included in a given state of mind, Emotions... greatly exceeds Intellect... . That is the same as saying that the greater part of our behavior or mental lives rests upon or is emotions or intuitions or feelings in the sense that the more numerous details are emotions — and such num- erousness is what we usually mean when we say greater" or higher." It is probably the correct quantitative fact :- that usually in behavior practically the vast majority of the details which we say are consciously" involved are so vague and indefinite in consciousness that we call them emotions, so that the only definitely perceptible mental detail in ordi- nary behavior is consciousness that those numerous emotions exist. Such mental life, in which the intensive Intellect... almost vanishes, is called instinctive or habitual or intuitive or reflex action and may symbolically be represented thus :- Feelings. .-. XIntellect. .= Will. Evidently, if conscious- ness or Intellect., disappears (as it may from one point of view be said to do in reflex action), then, from a psychologi- cal point of view, provided we retain our usual language agreements, the behavior has quantitatively changed, so that the individual as such is not concerned perceptibly (is not conscious), but the organ (or organs) of a lower" order, which produced the reflex, is conscious. And that is a pass- ing from one order of structure to another, so that, in precisely the same way that temperatures of different orders of struct- uces are not directly comparable, here the same intensive factor (now called intellect) can not be directly compared — i. e., a quantity of consciousness perceptible to an organ is not directly perceptible to the whole organism (a principle — that of periodicity — obviously truistic in those familiar terms). d. So in "purely reflex" action, a different order of 'individual' (an organ, or part of the usual individual") logically has a perceptible amount of consciousness, or Intel- lect. . . . That amount is not directly perceptible to the in- dividual"; e. g. , we have no intellectual consciousness or control of our heart, but still we do have a degree of cogni- zance and control of it (I can deliberately vary my heart action by running), which we may say is a dot of Intellect... (so rigorously that factor never becomes zero), but which we usually say is some part of Emotions. . . (and when the naming or structural-relation thus changes or reverses we have to introduce the inverse square law to preserve language agree- ments). That is obviously precisely the same as saying that the structures of a certain given order inside an atom have temperatures which are not directly perceptible to us, or are not at all temperatures as such in the usual sense to us — but which temperatures are ordinarily definitely existent to us when translated by the space law (inverse-square, to 'expand' the order ), and which temperatures can never become ab- solutely or <*> (because in that case the order of struct- ure changes, and we become directly congnizant of them — just as we directly perceive our heart as soon as it departs only a little towards or"). So we see that we can shift a dot' from one psychological factor to its mate — change what for want of a better name I shall call the numerousness of a factor ; — that being a truism of the fact that they are ar- bitrary anyway. But, if we wish to retain our ordinary language or logic, we can not run either to or » . (That is the psychological form of the proof that entropy can not and does not increase to infinity.) And all of that is precisely the same as saying that the two factors are irrational if taken separately ; and that neither ever has any exactness. In concrete science all that is a little difficult to observe directly in some cases, as we are not very familiar with "material" facts ; but in psychology it is glaringly evident. e. The foregoing describes from only one of the two well known points of view the tendency of the two factors to vary in numerousness. Many men, on occasions when they notice the existence of perceptible sensations (the existence of Intellect...) of course promptly perceive a number of dots, and tend to deny and ignore the vague emotions. Evidence of that is shown in the proverbial assertion that man is the reasoning" animal, implying that he relies solely on the numerousness of Intellect. . . , instead of being in fact mostly affected by Emotions... (cf. §150g). On the other hand it is conventionally implied that other animals have no such per- ceptible sensations or Intellect... or reason, but are guided by emotions instincts. Truistically animals have some quantity of perceptible Intellect... and reason (animals have no "reas- on" in the sense of classic logic; neither has man; §25). Probably animals have it in much less degree — a quantitative 181 UNIVERSE Three XVII §153i problem. If man has reason, then truistically animals, atoms, etc., also have it, in different degree — though like tempera- ture, the reason" of different orders of structures is not directly comparable. But when men start thus exaggerating the numerousness of the parts that are perceptibly included in Intellect..., they are likely to forget the more numerous parts in Emotions..., which in extent constitute the most of God or the universe and which equally with the over-vaunted reason guide us and support us. Those who thus illogically prune and preen themselves on their "reason" exhibit small measure of reason, and are popularly named variously :- in- tellectuals, erudite persons, the sophisticated, highbrows, know-it-alls — and scholar shows such a tendency to imply in- temperate intellectuality that perhaps it is safer not to ac- quire that title. f. We can see more of those two opposite tendencies to exaggerate either emotions or intellect by considering what the theologians call a rebirth or getting salvation or being saved, and the psychologists call a religious experience. There are many names for the phenomenon. Under certain circumstances we may get a large and intense flow of energy through apparently the most of our nervous system (most probably actually through some large part), which we designate by various names. E. g. , we may see what we consider a beautiful picture, or scene, or action; or we may observe in ourselves or others some good, heroic, or otherwise remarkable and appropriate, suitable deed or quality ; or we may observe the general fitness of things, the apparent per- fect purpose' of the universe or God, or the remarkably consistent characters of such men as Christ and Lincoln; and whatever it is that thus serves to make it more or less per- ceptible to us that the whole universe is absolutely consistent and fitted together as a real whole or organism or person, serves as a sort of trigger to release in greater or less degree energy from many nerve cells, and we have a greater or less flood of nervous energy which gives us such an unusual sense of well-being that we call it by a variety of names serving to mark it off from our more routine experiences:- ecstacy, rapture, inspiration, frenzy, transport, ineffable joy or felicity or peace, being one with God, mystical union with God or Christ or the saints, rebirth, intoxication (both spiritual," and with alcohol and other drugs, as we shall see), orgy, or- gasm, aura (as of an epileptic or hysterical fit) — and when it is definitely abnormal or pathological in degree it is named an epileptic, hysterical, or other sort of nervous explosion, convulsion, or fit; and mania. In the mildest mentally per- ceptible degree that flood of energy is humor [or when in the reverse 'direction,' but with analogous principles, is pathos], and results in a laugh — or in less degree, in a smile. So the reader has had a religious experience: even dogs smile. Pos- sibly the reader has not had a rebirth that verges on the edge of the pathological, as do most of those described in James's "Varieties of Religious Experience," and as do those the theologians seem to require — but such more or less pathologi- cal ones are unnecessary, and a bit dangerous (§162, etc.). But as will appear (especially in §162), the reader, if fairly normal, has had ample religious experience to understand of his own observation all such experience — religious experience is as common as eating meals, although the somewhat patho- logical varieties fortunately are not common : the theologians have merely grossly overrated the rarity and pricelessness of their wares, as does the usual patent medicine advertiser. I have had religious experiences myself that verged on the pathological ; and instead of making capital of them, as has usually been done in the past by those with such experiences (in that they or their disciples substantially claim that they saw or talked with God, or were otherwise tremendously favored), and implying that others ought to have similar ex- periences in order to have the real thing," I shall prove in a way that you can verify that (unless you need to know by personal experience what you are talking about in order to write a book like this) they are fine things to avoid (§§162-S). g. When we have a religious experience, frequently its chief characteristic is the vividness, or perceptibility, of the parts of it — just as perceiving a joke consists of seeing in- tensely the point, that being a mild rebirth. That stimula- tion of our nervous system thus frequently causes a large number of the dots of Emotions... to surge into vivid percept- ibility and hence to become a part of Intellect , and we seem to perceive the total universe — to see all of God, or actually to perceive all the dots in the infinite regress. E. g., the devil took Christ onto a high mountain and showed him all the kingdoms and their glories (Matt. 4); quite possibly Christ did have some such perceptible view of the infinite re- gress, which he could most intelligibly express in his day in that way — and quite likely he thus in effect condemned the violent rebirths recommended by the theologians by attribut- ing that one to the devil" : instead of saying of them, Oh joy , he said, Oh hell As a matter of formal logic, we can perceive that total infinite regress at any time, so that we can with logical consistency write the explicitly in- finite pluralistic truism:- Intellect = Universe. Then logically intellect becomes the total of everything; but so does emotion, or any other Many thing we care to name, and we have the trouble of learning a new form of language. h. On the other hand we are accustomed to calling cer- tain vague perceptions emotions or feelings. So ordinarily, instead of changing our names for those, when in a rebirth they become vividly perceptible, by nominally shifting some of them over into Intellect..., we merely say that the factor (or the sort of experience named by the factor) Emotions... has vastly increased. So there is truistically a tendency in such cases to consider the equation the infinitely pluralistic one, Emotions = Universe. Perhaps most people who have had a marked religious experience tend thus to consider it emotional, and unconsciously to exaggerate the view into an assertion that religion is wholly emotional. Of course if wholly so they merely change to a new language (cf. last par.). If we assume that Christ did have the religious experience mentioned in the last paragraph, we may note that his reaction to it was to tell the devil to get hence, which is obviously a refusal to change from the usual agree- ment to consider the One real, to either an intellectual or an emotional infinite pluralism. It can be noted that Christ, with extraordinary consistency considering the general incon- sistency and ignorance of his time, adhered to the reality of the One. Such consistency is so remarkable in such circum- stances that it not only reasonably well demonstrates the ex- traordinary consistency and hence fair approach to perfection of his own character (so that his reporters were forced by the sheer weight of it to make a roughly correct report), but it also makes it probable that Christ mostly initiated, or at least served to crystallize, the general establishment of our present language agreements. That is the greatest work any man can do for the race, provided the agreements are the best possible. And it has been shown throughout the book that ours are the most economical (for the next step, more suitable for improved minds, see footnote 100c). For the ethics of economy of time, see §165. Here, we have a definite, specific proof of Christ's greatness — an improvement on intuitive guesses. i. Thus we see in vividly verifiable detail how mental facts are so fluid,' so inseparably connected, that a careless exaggeration of them led to the centuries-long warfare of science and theology, of reason and authority. Very roughly §153i XVII Three UNIVERSE speaking, science tended to assert that the truth was, Intel- lect =Meaning; and theology, that it was Emotions ■== Meaning. If we consider such to be roughly the historical fact, then obviously both were fanatics, and partly wrong if they claimed to be using everyday language (§49j-l). j. We have seen that in a condition of fair mental bal- ance the parts of Emotions... are more numerous but lack in vividness or intensity, whereas those of Intellect... are few in number but intense. So considering the whole nervous system as a structure, some few cells (experiment shows that they are apparently always in the cortex) are, in any given mental act, rather intensely energetic and hence conscious, and constitute the intellect. Those cells may be considered surrounded by -some sort of difference surface (nobody knows what or where the variable boundary actually is : I am going no further than to state a mere mechanical truism), on the other side of which, and in fair balance with it, just as the filament is in fair balance with the field, is the remainder of the universe, the remaining nerve cells that directly are the emotions being immediately adjoining. k. A number of variously stated truisms of that are ob- vious. One is that our intellect or conscious perceptions or sensations at a given time consists approximately of some cer- tain cells ; then at another time, with truistically changed perceptions, our personality is truistically composed in some measure of other cells; or, the seat of the soul" is variable. Hence it follows that at a given time it is possible for two more or less coordinate souls to exist in one person. E. g. , one soul may be doing automatic writing while another soul is carrying on the usual routine; or less emphatically, most of us can at times read with our eyes and talk and think of something else. Also, it is truistic that there can be occa- sions when one part of the cortex suffers some abnormally great disconnection from another, so that distinctly different personalities may appear alternately in an individual. Such different personalities have actually been observed in the same person up to six or eight. Often a normal individual, by getting drunk with chemicals, will successively, as one part after another of his cortex is in effect disconnected by (say) the alcohol, exhibit a series of perceptibly different per- sonalities. If he has normally used his top cortex to hide from people the unpleasantness of the rest of him, those other parts then show up undisguised — in vino Veritas. 1. Such truisms of par. j may be multiplied indefinitely. The only other explicit one I shall notice is that practically always Intellect... may perceptibly give two general person- alities:- (l) the general personal consciousness, or thoughts; and (2) a perceptible consciousness that we have that first consciousness — semiconsciousness, or awareness of an ego. Thus we may more or less perceptibly have at least two simultaneous consciousnesses — which is a direct and crucial proof that any part has an infinite regress. §154. a. The expansion of Emotions... ~X Intellect... — Will (which expansion is largely a matter of writing it in terms of synonymous conventional symbols and indicating the implied quantitative differences) is all of psychology, and is so simple in principle that an intelligent child ought to be able to do it formally ; but so difficult quantitatively (requir- ing such good observation and judgment of billions of per- ceptible structures that go to make one man) that the ablest men can not as yet do very well at it (cf. §§1671, 170). I proceed to discuss briefly some of the chief expansions, and sum them up in considering the One member Will in §157. b. The earliest fairly definite use in psychology of a valid logic, and hence direct implication of forms of that equation, so far as I can find is in Dewey s Psychology." James afterwards in his Psychology" obviously tacit!} 7 used 182 valid logic. But he said he didn't, and was vague and con- tradictory about it. Perhaps the majority of psychologists in this country now use sound logic. c. Valid psychology in recent years has adopted the useful but dangerous (countenancing fanatics and fads) ex- pedient of dropping old names for new, in order to drop the old "faculty" or dualistic errors. The chief new name is "the subconscious," and its rather verbally-irrational syno- nym "the unconscious." That new name is obviously equiv- alent to the ancient terms emotions and feelings, so that we have Subconscious... X Intellect... = Will. So far as I happen to have noticed, Morton Prince in "The Unconscious" first definitely dropped the dualistic idea that the subconscious is a dualistic faculty — a sort of fixed, constant sub-individual in us. Prince's logic, while not explicit, is valid, although he formally inclines towards infinite pluralism. Coriat's general principles, in "Religion and Medicine," are substantially the same in form as here given. d. There has been much talk about the ideas of Freud. His theory is substantially this :- Dreams are always dis- guised realizations of suppressed or unfulfilled wishes, which in sleep can get past a "psychic censor" ; those suppressed wishes may be referred to sexual matters. Further, mental antagonisms (one part of the mind or nervous system contin- ually suppressing or inhibiting another) obviously fatigue the nervous system, and lead to disease if persisted in; so in cases of various unbalances the mind should be analyzed on the basis of dreams, and by the conclusions of such psycho- analysis the suppressions removed and a comfortable balance effected. Quantitatively, those ideas are useful, as we shall see ; but Freud has the usual defects of the German materialists :- he persistently takes a part for a whole, or is a dualist. E. g., in ordinary everyday meanings of words, dreams are by no means always disguised, nor are they neces- sarily the realizations of anything in the shape of suppressed or other sort of long-entertained wish — all of which can be observed by any normal person who will take the trouble to (say) overeat just before sleeping, and repeat the perform- ance until he manages to get a remembered nightmare. Of course, such a dream can be tortured verbally into being the realization of a suppressed wish (perhaps a wish that the owner of the over-burdened digestive apparatus might die) — for everything is ultimately identical. And Freud might logically validly express everything as sex; tbe reader has seen it done in §146. But Freud pretends to use everyday language — in which are named other effective instincts. e. Clearly, suppressed wishes are merely the conven- tional Feelings..., and the psychic censor" is Intellect... . There is no real antagonism" between the two, but simply an unbreakable, interacting relationship. At times we prefer to let what is ordinarily known as one sort of emotions be- come more perceptible, and discharge (proceed cyclically) as Will, rather than let another sort do so. In that case, com- paratively speaking, one sort or set is inhibited," just as there is more attraction or love' between some electrical charges than between others. Truistically however, if for a long time we keep one set of emotions in definite interaction ( harp on one subject" too much) we fatigue unduly not only the structures that engage in that conscious" activity, but also the structures that are inhibited and do not get enough exercise. So if we are intemperate (unbalanced), truistically the brain sleeps unbalancedly ( poorly"), and some of the possible temporary personalities will perceptibly bob up as a dream. Obviously, we can not possibly sleep" absolutely — any more than we can die" absolutely. So necessarily there are, even in sleep, some parts of the cortex not quite so completely disconnected as others, and a slight unbalance 183 UNIVERSE Three XVII §155b due to former fatigue of the brain or to some unbalance of other organs (or both : both interact on each other) may be perceptible as a dream. And obviously, the brain will neither go to sleep nor awake perfectly instantaneously. So there is always on the occasions of waking" or going to sleep" a period of especially perceptible dreaming. During those periods the brain truistically is partly disconnected although somewhat in working condition; so if a suggestion" (any stimulus) be given it then, the suggestion can flow usually through only narrow channels, and hence it makes an unus- ually large impression on those channels ; for obviously, ordi- narily a large part of the cortex is engaged in judging and sifting and switching an idea or stimulus all about, so that its owner will not rashly follow some wrong" suggestion"; so ordinarily a suggestion will have a more distributed effect. That indicates the principles of the use of suggestion," hypnotism (where a part of the brain by too much concentra- tion is put to sleep — which truistically is unbalancing for a normal brain, but may be desirable in certain circumstances, just as running a Marathon may be), and such phenomena. The same thing is directly exhibited by hysterics :- A hys- teric is a person with abnormally narrowed Intellect... (i. e., perceptible sensations are much less numerous than with a normal person ; or a hysteric is never wide awake — hasn't an 'open mind"), and hence she is very suggestible. But at the same time most suggestions made to her do not become perceptible to her, and hence fail. When one does "take" it "takes" hard — often producing hysterics' . f. So we can judge somewhat from dreams (if we are good observers, with excellent judgment) as to what some of the unbalances of an unduly fatigued person are. It is possible to get one part of the brain so intensely work- ing when awake that even though it is tired it will keep on working after the remainder of the brain is asleep, giving dreams that are an exaggerated continuation of consciousness — of the "censor" himself. Also, as modern life more often interferes with what are commonly called the sex ap- petites than with those given other names, it is naturally likely that more often the person who finds life a bit too hard will have dreams that give some of the sex nerves a chance to exercise, perhaps indirectly. I rarely remember a dream, but I do remember two vivid ones during the war in which I ate all the sugar I wanted. Neither the Biblical Joseph nor a Freud is needed to psychoanalyze those, and in ordinary language they were not the result of suppressed sex wishes — or suppressed wishes of any sort, as I never concealed from myself or anyone interested my wish for sugar. But, it is glaringly obvious that it is just as correct, in order to find out what his unbalances are, to observe the conscious mental life of a person. Except in occasional cases the men- tal balances are right on the surface in waking life with but slight disguises (§155). As a matter of fact, most dream an- alysis is shrewd guessing from observations of conscious life. So a complete statement of a rational psychoanalysis is :- Observations of dreams or other partial personalities that are usu- ally emotions... X Observations of ordinary consciousness... . §155. a. We have seen that even in the mental life of a person who when awake is badly unbalanced there is a tend- ency to get a general balance by means of the underworked parts exercising during sleep. When there is such a consid- erable persistent unbalance during waking hours that no such fair balance can be thus, or similarly, attained, then the indi- vidual truistically either will die, or else will go more 'insane' (become more unbalanced, so that Intellect... or perceptible sensation is more narrowed — in which condition truistically there is more hope that automatically rest and thus balanc- ing will be obtained:- i. e., insanity is nature's method of balancing a man with the environment, by removing what we call the control of the matter from his hands when his own control, with only normal" checks, is rapidly destroying himself). The general theory of that is clear, so I omit the numerous quantitative facts that are known. But before such a considerable unbalance can accumulate that there arises much dream-balancing, or hysteria, or double personalities, or aristocratic egomanias (obviously involving a narrowing of Intellect... — an inability to see other people very well); or before such a considerable unbalance can accumulate that there arise graver insanities with perceptible nerve lesions — before any of those nerve unbalances can accumulate much, there is a general more or less normal method of psychologi- cal balancing that is observable in everyone, is confusing even when recognized and understood, but which is conven- tionally unrecognized except in its quantitatively excessive form that is well known under the name hypocrisy. Havelock Ellis somewhat explicitly recognizes it as Bovarism" in Impressions and Comments." We may somewhat descript- ively name it psychological reversal, or psychological or mental inversion, or much better, make believe. It is the psy- chological phenomenon less intense than hypocrisy, and so not quantitatively immoral (§163b). (Clearly, the milder stages of hypocrisy must be moral and useful— for truistically nothing that is quantitatively wholly bad [0 or °° ] can ex- ist.) It is well known to children as make believe. It is the generalized and balanced form of the glad game" or of Christian Science (§149fq): for sometimes it is more neces- sary to pretend a degree of calmness than to pretend joyous excitement. It is the mental phenomenon that makes it so hard to determine anyone's conscious motives (even our own), b. There being but slight recognition of this mental phenomenon as such, and no conventional name for its more normal forms, obviously the way to make it known to the reader is to describe it in some detail — and even then some people will likely deny its existence. We may take the popular routine story writer and his readers as exempli- fying make believe. Many men find the world monotonous, and seek a rest from an unbalance of bordom in excitement, in the unusual, in the vividly emphatic. For proof of that note the popularity of the movies — and in his day, of Shakes- peare. Shakespeare hurls his meaning across with such vio- lence that although the slang he used is three centuries behind the times, it still is sufficiently intelligible to me to be occasionally even painfully vivid ; and his emphasis is still more heightened by the fact that what he says is mostly right and his poetic meter good (footnote 165d). The average writer has difficulty in finding or inventing circumstances to describe which actually are unusual and hence lacking in monotony, or in seeing them in other than the routine way, and especially in being self-consistent (i. e., right, ' convinc- ing" — as Shakespeare mostly was) about what he does see — and that lack of consistency truistically destroys to a large ex- tent what he does say, so that his real difficulty is to say something. So our writer goes along writing what is intrinsic- ally mostly nothing — and that in phrases so abused by misuse that they couldn't bear much load of meaning. So every once in a while he forces his Emotions... to give, so to speak, a hop, skip, and jump : he rising up to give in an apparently excited manner three cheers for this, that, or the other thing. (That is usually called pep and punch.) The reader lets or makes his emotions imitate those excitements pretended by the writer ; and that artificial pretence of unbalanced emo- tions does work backwards in some degree and give the emotions some exercise, getting them slightly (and pleasantly, if attention is kept off the fact that finally the pretense is in- consistent, and not in agreement with the tremendously §15Sb XVII Three UNIVERSE 184 exciting and also calm real universe) out of their monotony. I rather like to read such stuff myself, and enjoy it. There are some of those writers so fearfully inconsistent, though, that I can't stand them:- Hohvorthy Hall, Gertrude Ather- ton, Fannie Hurst, Kathleen Norris, Conrad, Hergesheimer. c. Precisely that sort of make believe is more or less practiced by everyone — some going in the direction of excite- ment, and some in the opposite direction of calm. We may note several exaggerated cases that possibly run into hypoc- risy:- The hard, callous man who will ruthlessly foreclose the widow's mortgage (perhaps quite justly : the point is that it hurts him negligibly to do it) often becomes a deacon in the church and pretends much sentimental piousness, and a sweetly concerned missionary interest in the be- nighted heathen" who usually practice Christ's ethics bet- ter than he ever will; if he is a particular brute he may go so far as to build a hospital for suffering cats. The deacon helps to get his narrow egotism expanded a bit (and thus saves it from accumulating into a perceptible insanity) by glaringly advertising a kindly unselfishness he has very little of. The female parasite that becomes a Society leader and an ostentatious charity worker and church worker," or a general community uplifter, is pretending to herself and others that she has not the character of a para- site. And such make believe, or reversal of the original quantitative fact, obviously does give her some proper Emo- tions... and helps to balance her life mentally. Usually she does not know she is doing that, and will indignantly deny it. In the same way a kaiser or other demagog can not understand that he does not actually care for his people much, but exploits them. His unbalance has perceptibly to himself been balanced by a pretense of much love, and much talk about it. ■ And in trying to get this book pub- lished I found that there are deacons in science who do a large amount of talking about the need of research, etc., that is make believe. E. g., Angell, now president of Yale, in my opinion talks too well on the subject (cf. his inaugural address, etc.). Before I could believe that there were such fine deacons' and demagogs in science I applied twice to Angell (while he was head of one and then another institu- tion chartered to advance science) for help with this book — giving him some of the most competent endorsements of the book. The first time he wrote me vaguely that he imagined there were established precedents to guide in the matter. The second time he ignored it. I am sorry for Yale. d. Children deliberately and consciously practice a nor- mal, moral pretense in their games of make believe. James, without being very definite about it, in effect calls the same game by adults the will to believe. If we deliberately assume — pretend to possess — what are ordinarily the psycho- logical or physiological results of certain emotions, we in considerable degree cause those emotions in ourselves : men- tal phenomena work backwards (valid logic is circular). Actors often perceptibly exhibit the phenomenon of assumed emotions producing the actual ones. Obviously, when our unbalance is slight in degree, and we practice a correspond- ingly slight degree of backwards pretence of emotions, we can, and usually do, remain conscious of what we are doing. In that case, where there is definite consciousness of what we are doing, and no effort to deceive others, the process is ob- viously normal, and useful (primarily to oneself, or selfishly); and such a quantitative degree of reverse emotions I call make believe. In order to be normal it must be consciously and undeceptively an unbalance being balanced — it is an unbal- ance of course, and while permissible is not the highest type of either sanity or morality (it is the psychological aspect of the zone BC, B'C', Fig. 168b). The deacon and the Society leader usually are so very unbalanced that their ex- aggerated form of psychological reversal becomes so real to them that it deceives themselves, and then they try to get others to believe it. And that over-doing or intemperance in make believe is hypocrisy (the psychological aspect of the milder part of the zone of the immoral, Fig. 163b), and is a mild degree of insanity not usually considered pathological — i. e. , nature has taken control, unconsciously to themselves, and is trying to balance their brains : but as the deacon and the Society leader mildly fool themselves in only a few activities when they are hypocrites, they are mildly and tolerably insane — are just partly killed off by the universe or God. When the deception becomes general, so that there is a more or less systematized misconception in most activities (or when there is an intense misconception or seeing of things as they are not, in one or a few activities), then we customarily as- sert a pathological insanity. The "glad game" or Christian Science carried too far — not on appropriate occasions bal- anced by a reverse 'sad game' — is truistically a mania. e. Therefore, a general test for the mental sanity or balance of a person, which can be readily applied, is to note whether he is conscious of what seems to other people to be his most pronounced make believe — whether he is sane enough to know where he verges on insanity (the man who is certain he is quite sane, that he knows it all and knows it right, is usually at least close to pathological insanity). E. g., that test of sanity may readily be applied to me:- In this book I emotionally pretend a calmness and commonplace conventionality that may sometimes not be in strict quantita- tive accordance with fact. I am quite aware of it: the method of make believe I use is that in every case of reason- able quantitative doubt as to the fact, I incline to empha- size its commonplaceness. That is what is recommended as rhetorical understatement; as a matter of fact it is admission of lack of sufficient strength to get along without that bias (cf. §149i): I do it for my own protection, so as to stay bal- anced with certain quantities. So make believe is the explicit process that is sometimes vaguely called mental self- control. To admit that we need to control ourselves — to be temperate — at a certain point is to admit that we are too weak to go beyond it (§159). And this make believe has been neglected because men object to admitting weakness explicitly (for obviously good reasons). So I have definitely shown that the man who disclaims any weakness in any respects, and consequent need of control, is really so weak as to be in imminent danger of a lunatic asylum. The direct result of avoidance of this subject of needed control, in the various special points we each need it, has obviously re- sulted in numbers of people passing the limits of normality into hypocrisy. An enlightened public opinion on the mat- ter will largely stop it — and I judge cut our taxes in two. f. The recognition of make believe has possible practical value in enabling us to play consciously (and hence sanely and rationally) a general mental balancing process instead of the theoretically one-sided glad game, or Christian Science, or proceeding in heedless and unwarned ignorance and be- coming hypocrites. Such a practical "serenity" game is described by Dorothy Canfield Fisher in "Fellow Captains"; this section gives the theory which shows its ultimate rigor (cf. §170jm). And in addition to its practical value, make believe shows truistically that even in the man who superfic- ially appears the most unbalanced mentally there is an actual close approach to a balance. It appears that hypocrisy ordi- narily begins in a normal man as a conscious pretence — and then is not hypocrisy. But his unbalance for various reasons (for them, cf. the description of Fig. 163b) tends to become so great that his make believe becomes imperceptible to him 185 UNIVERSE Three XVII §156e — and again strictly is not hypocrisy from his point of view, and so from a general point of view is a mild insanity. But he was responsible for his hypocrisy when it was on the verge of leaving consciousness ; and in practical life we continue to hold him responsible until he passes into the zone of definite pathological insanity (§§157, 163). It therefore fol- lows that everyone's intentions are always good. It is truis- tically impossible that anyone, from his point of view at the time of the action, can have an improper motive (§25) — on the same principle that man can not make a real error. That follows also from the theory of responsibility, and will be made clearer in §157 and the next chapter. §156. a. This section sums up the quantitative prin- ciples of psychology. The Weber law or the Weber- Fechner law (I shall make no distinction; see "Ency. Brit.," "Weber's law,' or James's Psychology," I, 533-49) as- serts, as presumably stating the results of psychological ex- periments, that in order that the intensity of a sensation may increase in arithmetical progression the stimulus must increase in geometrical progression — it being explicitly noted (l) that in all cases there is a limit at both ends' (usually called the upper threshold and lower threshold) of the perception of sensations; (2) that there is frequently a very perceptible time lag in the building up and dying out of the sensation (especially with "chemical" sensations of taste and smell); and (3) that usually those progressions are perceptibly inex- act near the thresholds. For experimental details and discussion, see the authorities cited. b. If we take Emotions... X Intellect... — Will as being explicitly a standard universe, referring to the summed up sensations or sensation of an individual at a given small time interval, we may write it Emotions. . .XIntellect. . . = The given summed up arithmetical increase between the thresholds. And the Weber-Fechner law asserts that those summed up sensa- tions are roughly the result of geometrical progression in the stimuli [the Emotions... X Intellect...] — which obviously is a truistic way of stating those equations (the X,or the inverse square law, in the first members indicates such progression), and is in agreement with the argument of this book. Or, the Weber-Fechner law is orthodoxly stated thus :- the dif- ference between any two stimuli is [as the Will, or as a One sum] experienced as an equal magnitude if the ratio of the stimuli remains unaltered (subject to the inexactness stated in the last paragraph). That is obviously identical in prin- ciple with Richards's general corrected gas equation (§82), p...X»...=^ constant — and hence is the assertion that psy- chological experiments are in agreement with all our general equations. It is thus proved in a directly experimental way that psychology orhumanics is identical with "exact" science. c. And it is directly obvious that this Weber experi- mental (psycho-physical) interpretation or truistic assertion of our general equation Emotions. .. XIntellect. .. = Will is also an assertipn of harmonic periodicity in a 'reverse' or time way, thus:- We saw that in the case of atoms (structures of the same order) in general only certain fairly close approxi- mations to periodical "elementary" sizes could survive in the same environment for a given duration of time. I. e., each surviving elementary size has an upper and a lower threshold beyond which the structure becomes unstable as a whole (be- cause of its reactions with an always incommensurate environ- ment). Now, in psychology there is a recognized periodicity inside the thresholds (which of course implies the reverse :- a similar periodicity of the thresholds). The Weber-Fechner law asserts just that perceptible periodicity inside a higher- order structure like man — a 'spectrum' inside the thresholds, and a different order of 'spectrums' of thresholds, in infinite regress. E. g., upon all humanic spectrums inside the thresholds there is superimposed a quantitative periodicity of normal and abnormal, pleasure and pain, good and evil, with their thresholds again subject to inexactness (as are all differ- ence surfaces), and to the same time lags (§163). That threshold periodicity is probably anatomically observ- able. Thus we saw in §152c that there were seven (etc.) perceptible sorts of nerve endings. Theoretically, those of course indicate a periodicity of senses (hearing, temperature sense, muscular sense, etc.) — each sense being a psj'chologi- cal atom' (higher-order structure) analogous to an atom. d. The proper mathematical statement of that quantita- tive theory is omitted. I have not formulated it, although a good mathematician could readily make an abstract formula- tion. But a somewhat definite mathematical statement would take me years to hammer out, as I know only enough details of mathematics to see that an explicit revision of calculus would be a necessary preliminary step, so that all conven- tional zeros and infinities may be handled consistently. But a general mathematical statement may be made similar to the mathematical theory in Marshall s Principles of Eco- nomics" (6th ed., 838-58). His (economists') "marginal utilities are thresholds, and his demand curve" xy a =c (840) more explicitly is x... Xy. . .^Universe. In that place Marshall shows fairly definitely the final infinite regress of superimposition of one spectrum on another. But before we get far on that infinite road to accuracy (as Marshall's eco- nomic equations show), the pains of complexity become more than the pain of a slight quantitative gamble or guess. e. The general reader will nearly surely not understand the foregoing remarks in this section about the ultimate quan- titative mathematics or measuring theory or periodicity of science. I am quite aware that I do not grasp it myself; i. e., at some stage of the game of going from That to This to see just what is the complete expression of the two I become confused with the details and quit the process with some re- sidual inaccuracy. Any mathematical statement of it, re- gardless of the cleverness and ingenuity of its nomenclature and logical consistency, must do the same quitting at some point. Thus it appears that the difficulty of this section is not a difficulty in essential knowledge, but one of grasping infinite detail in detail. It simply can t be done perceptibly. But we sum up the details as a One readily enough. In short, in this section I deliberately got aboard the infinite re- gress, and kept persistently at describing it, implying the attempt to get at and seize the dots by mathematics, and the inevitable result is to me a perceptible quantitatively baffled confusion. If the reader has had enough mental endurance to follow on that chase (analogous to a kitten's chasing its tail), he too will feel baffled. But we need that ex- plicit, conscious experience so as to know what to expect in the infinite regress. I used to be pained by it, and many people have been pained to the extent of making despairing qualitative errors about this fleshly prison, ignorabimus, etc. ; but obviously, there is no need of feeling that way and we automatically will not as soon as we really understand the matter (it will probably take most people months to get over previous bad mental habits). The thing to do is to judge how far along the details on the infinite regress will do us any appreciable good — have any marginal utility, or in or- dinary terms, are worth the trouble (of getting, using, etc.). As soon as we get that far, then truistically we should at once get off the regress by summing it into a universe or a standard universe (i. e., acting on the sum or Will, as implied in the next section). If in that process we have not had enough endurance to follow all the appreciable details (if we have not had enough mental integrity to perceive that it is raining, and that ordinarily we have to come in out of it), §156e XVII Three UNIVERSE 186 then we can rest peacefully assured that the universe will accumulate enough effects of the overlooked details to force us at the proper time either to see them and react on them in a way to preserve our lives, or die. We all truistically finally die of the accumulation of such stupidity. But it would kill us even more promptly to hang on too persistently to any infinite regress ; so we exhibit wisdom by reasonably guessing at how much stupidity to exhibit. This para- graph is the general psychological statement of the essentials of what is valid in pragmatism (see Jordan's Introduction for a better one). Any attempt to grasp too many of the Many is painful, and hence from our points of view as individuals is wrong and foolish (but cf. §159g) — even if the attempt be disguised in the mathematical theory which I indicated and even though all the mathematicians assert that they can fully grasp such quantitative details. Finally, Fechner, like other German materialists, substantially asserted that he could grasp the ultimate quantitative expression of his law. James ("Psy.," I; 534, 549), as a sort of germ of his future prag- matism, sarcastically repudiates the possibility of Fech- ner's being quantitatively so omniscient. — ■ The Puritanical conscience consists largely of an agonized hanging on to the infinite regress. Some of that — some serious- ness ' — is obviously needed to avoid reasonable possibility of overlooking something important, and as a means of expand- ing limits of perception and increasing mental endurance and strength (§159). Such persistent "worrying" (or the up- to-date names for it are psychic complexes, Freudian repres- sions, sense of inadequacy, etc. — in everyday terms it is modesty) made able, fine, useful men of the early Adamses, Lincoln, and others who had the strength to stand it and who had something to do, thus stopping that mental effort at a healthy, wise, balancedly modest point, summing it into Will and thus getting a mental rest. But too much of it without the balancing doing made Henry Adams a querulous snob. §157. a. We now consider Will, in Emotions... ^Intel- lect... = Will. That term is the mental term that probably is most often used (both in everyday life, and in formal psy- chology) to name the summed up universe or personal stand- ard universe from the mental or subjective point of view. Perhaps the term for the same thing which is used nearly as often is ' thought" (or one of its variations). But as seen, nearly any psychological term may be used in a One sense. Obviously, anything which we find applying to Will also ap- plies identically to any term which replaces Will in the equa- tion: the only difference is that the various terms in a vague sort of way indicate standard universes of varying sizes when such standard ones are being used. b. When we receive a nerve stimulus the energy travels through parts of nerve cells toward the cortex, and probably acts as a trigger to release more energy from the cells them- selves (i. e.,the jolt starts considerable secondary formation in the cells [they are "irritable" to such]: they renew that en- ergy or structural loss from food). At any cell or cells in the path the energy may be very largely (or entirely so, as far as is perceptible in the cortex) collected together or focused (just as small asymmetries accumulate to cause a whirl to be given off); and then (equivalent to secondary whirl formation — this time in larger quantity) that energy from that 'focus' or ganglion is sent out in more or less branching nerve paths to muscles, which in their turn react with the environment (it may be some internal organ). As the environment gave the original stimulus the cycle is complete (but not exact in any finite space). Truistically (by the principle of continuity), all such energy cycles must affect in some degree the nerve cells that give conscious sensation (I shall take it that such cells are in the cortex — a quantitative fact supported roughly by observations). Those energy flows that go out to cause the muscles to move, will also in some degree irradiate and affect the cortex ; and the movement of the muscles will also do the same. Obviously there is an infinite regress of reactions. All those sensations which only vaguely get to the cortex, and there are, each of itself, below the threshold of perceptibil- ity, are usually named emotions or feelings. Those emo- tions as an accumulation are perceptible. From them, truistically we are clearly but roughly conscious of our identity with the total universe; for obviously those conscious emotions necessarily include reactions with everything. At the same time other stimuli from the environment are strong enough to travel up to the cortex and be perceptible there. Even those stimuli are a collection; e. g., we can not per- ceive by any definite sensation a single atom, but get a sen- sation accumulated usually from many thousand atoms. The sensations which we (arbitrarily, as just seen) consider sep- arately perceptible are obviously Intellect... . Now, as seen above in physiological detail, those perceptible sensations, together with the emotions in general, are focused in some cell or cells in the cortex (we can see now that the phenom- enon is truistic with continuity). And as before, that energy must be discharged. We perceive that focusing and discharge and name it will. c. Or, if the discharge does not at once take place to voluntary muscles, but first discharges partly to involuntary muscles and partly to other nerve cells, then that first focus- ing and discharge is usually not called will, but is named thought, or reflection, or consciousness, or nearly any other spiritual term. But obviously, even that phenomenon is identical in principle with will" : merely quantities are dif- ferent between a discharge mostly to one set of organs (vol- untary muscles) and one to another set (involuntary muscles and perhaps chiefly to other nerve cells). It is truistically impossible for the discharge to take place absolutely com- pletely to any one part of the universe ; in all cases some of it goes to other brain cells and involuntary organs and is re- flected back as further emotions, etc., in regress. (There are no absolutely involuntary" organs, but merely organs which can not be directly and with fair precision controlled by the cortex.) So the difference between will, thought, etc. , is quantitative. And this paragraph obviously implies the principles concerning "men of action" or executives, thoughtful men, meditative or contemplative men, etc. The only one I need state is the obvious general one that no man can be wholly one sort, and that the normal, wise man will keep a fair balance of being the various sorts (cf. the evils of Adams's thinking," stated in less precise terms in §156e). d. In strict logic it is evident that the act of will (or of thought, etc.) is either definitely (l) the 'process' between the accumulation of nervous energy and its discharge ; or (2) the whole process of accumulation and discharge (the whole pro- cess is obviously identical in principle with an electrical cur- rent). Truistically, in the first case there actually is no finite or pluralistic process "between" the accumulation and the discharge; the term "will" in such a view is a pluralistic- ally non-existent limit or division between the two, or is a zero term. And the second case makes the "will" the con- tinuous name summing all the infinite details of that accumu- lation and discharge in really unending cycles, and "will" is then infinite (possibly as a formal standard universe). In either case, will is obviously consistently Will in our equation a One in full agreement with our whole argument. e. And that gives the complete solution of the age-long squabble about the freedom of the will. We may look at the solution in two ways (the first in this paragraph; the second in the next). (l) The introspective observer 187 UNIVERSE Three XVII §158c sees what he calls his will (or mind, or thought, etc.) appar- ently as a continuous and hence infinite affair, and promptly and consistently says it is free. Clearly, from such a point of view it can not react with anything as it is everything, and hence can not logically be in any chain of cause and effect. Various systems of philosophy and ethics have been based on vague statements of that way of observing the will as infinite, or as at least a formal One. But on the other hand the ob- server notes that if he considers the universe divided into the Many (even if he takes that pluralism as being roughly per- ceptible parts of merely his own mental action), then his will is not any of those parts, but is a sort of limit to them — is perceptibly zero. In brief, a tangible Many "will" persist- ently eludes him ; — as proof, try to touch it yourself, from that point of view. Then he in some way asserts that his will is nothing — that it is "worse" than "determined" :- that he (his will) is the sport of circumstances, or that he is ' predestined," or in the absolute clutch of fate, or not as I will, but as thou wilt," or in Nirvana, etc., etc. This first way (with those two aspects :- °° and 0) of looking at the solution is obviously two One views of the uni- verse — one aspect calling the will everything, and the other substantially calling the universe infinite pluralism so that everything which, like the will, then becomes a relationship or a zero limit between the parts is 'nothing" with respect to the Many. Or, the second aspect calls the universe itself Nirvana or zero or nothing. There is a wide choice of ex- pressions as to just what that Buddhistic or fatalistic or non- Anglo-Saxon view is. At any rate it is obvious that those two possible ways of viewing the universe give different names to the condition of the will; but clearly both classes of those names mean the same:- which in Occidental everyday language is that the will is free. (If the will is zero, obvi- ously it is just as free as if it were infinite — as it is a truism that nothing can control a zero.) I have above com- bined the discussion of the relationship form and the One form of the three Trinity forms of the term will. That per- mits the use of clearer familiar terms. From a logical point of view it would be clearer to give the three views. f. (2) The second and more common way of considering the Trinity puzzle of the will depends upon whether will is considered used in the One member or in the Many member of the equation. Obviously, by our Anglo-Saxon verbal agreements, if in the One member then the will is free. If a man observes himself (his will), so far as he can perceive at the time he does what he wants to (even when he says he does not want" to do something, he obviously stiH prefers to do it for some remoter reason — to do it rather than accept the result of not doing it) : he makes of will a standard universe and it is free. But he (l) can later on recall by memory his actions, and then see them as being his reactions as an indi- vidual with the other parts of the universe; or, he (2) can at any time observe other individuals reacting with other parts; and in each case he readily perceives that what formerly to him, or what at the time to the other individuals, was or is the standard universe free will, is, in his now wider, and per- haps whole, universe, a unit of the Many — that those standard Will's now come over into the Many side as being parts:- as Wills..., or more explicitly, Intellect.... And of course, from such a point of view the individual will is determined. But with final accuracy, the person is really the total uni- verse (§47) ; in that case his will is finally absolutely free (by Anglo-Saxon language) — for the obvious reason that there is nothing besides it to control it. The Oriental "pre- destination," although it apparently speaks of a determined will, now clearly means a free will (par. e) . g. That gives the general solution of the problem of th e will, of reason, mind, thought, God the Father, etc. Obvi- ously, the practical, everyday solution of the problem is that if we see enough of the universe — seeing that it as a whole works consistently and along the path of no resistance, — we ourselves completely will to go or be carried along that path. In that case, from our point of view, the will is free. But from a Many point of view our finite will is completely de- termined. If we fancy we resist going in that inevitable path we are merely suffering from stupidity. §158. a. In this section we get the explanation of mem- ory. In objective science our quantitative or Many agreement is that space is a fixed relationship which remains or endures. I. e., London and Chicago are in certain rela- tive spaces which can at any time during a considerable per- iod be objectively viewed in such fairly steady relationship by anyone who cares to verify such an assertion about them. Or, we can and do experiment objectively by observing space relationships or coincidences; and at any time the experi- ments with such space relationships can be fairly accurately repeated. So we say that space endures — or just is, and re- mains so; — that a structure or unit of the Many is objectively verifiable by anyone because of the formally fixed and con- stant space relationships. We can in theory perform an experiment" in any part of space — and in practice, if we take the trouble to go there, etc. But, we commonly say that with time it is different — that we can experiment" only in the present. Now, the obvious truth is that all of that concrete" relationship of space has been asserted by means of using time, so that the space endured, and we could go about in it anywhere — if we had the time — and experi- ment. In short, the arbitrary, concrete" invention space is the exact counterpart, formal opposite, or reacting part or symbol or mechanical balancer, of the arbitrary mental" time. We do not conventionally say that there is any men- tal" space — our' thoughts" do not conventionally occupy" space. And in the same way our thoughts do occupy finite time, so that there is no objective time in the way there is objective space. Space is outer memory or object- ive relationship, and time is inner memory. Obviously, without memory or an arbitrary mental agreement of inner duration" (just as space" may be said to be outer dura- tion"), there can not possibly be an arbitrary enduring relat- ing space. All that gives the abstract or relationship meaning of memory — its more usual sense. The real present is either 0or<» — a One term and-or meaning. Nothing plur- alistic or Many can possibly happen in it. So we can not really perform any experiment in the present. All experi- ments are performed in the past and remembered. Clearly, by classic logic it is impossible to have any experiments. b. To get the Many meaning of memory in perhaps the simplest way we may write the infinite pluralism equation Many =0»e, and note that we have been considering it objective. The subjective form (the form that emphasizes T of the implied L and T) is obviously Memories =Meaning. (If we put a Many term memory in our usual psychological equation it conventionally would be an explicit name for part of Intellect. . . , and implicitly a part of Emotions. . . ; see rest of section : to devise a definite psychology with an equation ... X Memories. .. = Will would obviously require mostly a new nomenclature.) So truistically Memory is the psychological term that corresponds to the physical" mass or M... . Therefore, when we use M in any science which implies the use of L and T (and all sciences do; IV) a part of its meaning is memory (cf. pars. c-e). Therefore, in all our measuring members M(varying with)I?T~^, the M rigorously and precisely means mass and-or memory. c. The mechanics of our memory, as a matter of truisms, §158c XVII Three UNIVERSE 188 are obviously as follows :- Any structure is the result, or "record," of what has previously happened to it in infinite regress. Evidently, every asymmetry in the universe has left its mark in any and every structure — has in some more or less minute degree modified that structure. So any pres- ent asymmetry of the structure exhibits in some degree all those past records. And that inclusion or identical relation- ship of the total past in the present" asymmetry is memory — stated mechanically or physiologically, and giving memory primarily its relationship form. As all M^s truistically are such relationship, or (using conventional Many terms) are entities in such relationship (Part One), we see again that a memory is an M. So truistically all M*s have — are — -an infinite memory. To assert that any structure has the ad in- finitum record or memory of the past is identical with saying that its structural parts have a certain L and T relationship— both L and T being with finally correct equal emphasis in- cluded in the assertion. That, and the last paragraph, is hence essentially a repetition of §150d-g. The real difficulty in explaining memory is that its meaning is so glaringly obvious and continually used that there is the usual troublesomeness in disengaging, so to speak, the know- ledge of it from ourselves and setting it off a little ways from under our noses, so as to look at it objectively." d. So truistically, if anything happens to a biologic cell (if there occurs an asymmetry in it) the cell tends to act in the same summed up way it did in the past, subject to modi- fication due to the fact that the present happening does not exactly duplicate anything in the past. Hence there tends to be a rough general fixity of function and-or of structure on the one hand, and a balancing modification of it due to changes in the environment on the other. So in a fairly steady climate (environment) there goes on side by side a rather steady balance of (l) remembered' form and function and (2) a slight change to meet slight changes. e. When such a monistic memory is exhibited by nerve cells in a degree that is objectively perceptible to us, but is not perceptible as a memory to the individual exhibiting it, we call it instinct; or if it is in a still lower degree of per- ceptibility to us we name it reflex action, or tropism, etc. And there is a vague degree of memory which so far as I can de- termine is experienced at times by everyone, that might be called an emotion of memory. I have that emotion of memory as an occasional vague feeling that some present incident and a great deal more like it happened to me in the far distant past — whereas if I examine into the matter I find that nearly surely it didn t. Apparently, the frequent occurrence of that emotion of memory to various people accounts for the belief in transmigration of souls. Truistically, in a One sense we do have a 'memory' of "past existences"' — actually of all such existences. But the usual orthodox quantitative belief that one individual" soul goes or transmigrates as a con- stant unit to a later one is obviously wrong dualism of the Maxwell-atom type. For years I have occasionally experienced memory-emotions when stimulated by some French word or phrase — particularly old names of places. It obviously would be quite easj T to make an exaggerated quan- titative guess that I am a reincarnation of a Frenchman, al- though so far as I happen to know I am over 95 per cent British blood, and no French (for the benefit of the anthro- pologists :- I am definitely Nordic type, cephalic index about 68 — a marked long-head). Obviously, as it is theoretically possible for our emotions to dig out the most ancient memo- ries in a vague way, almost any sort of queer belief (even the insane" man's belief that he is Caesar) is based on adequate psychological cause, and is correct in a One sense. But us- ually such queer beliefs rest upon rather silly quantitative judgment. All the mystics are qualitatively right; but the average mystic states a preposterous quantitative hash. f. Memory commonly means perceptible memory. Any nerve cell consists of whirls which are moving in certain paths ; and that activity of the cell is normally probably just on the threshold of perceptibility. If a stimulus (asymmetry) comes along and speeds up some of those whirls the activity becomes (say) perceptible. That stimulus obviously does not change the total of the whirl paths much (the structural energy of the cell is enormous compared with it), but does probably change a few paths considerably. Now, if another stimulus of sufficient energy comes to that cell, as a general quantitative truism the whirls speed up to perceptibility in about the same paths as before, and hence the perception is somewhat of a repetition, or memory, of the first one. The second stimulus is somewhat different from the first, and so gives a perception quantitatively different from the memory also produced. Hence, the feel of the memory is differ- ent from the feel" of the total perception — and also the "feel" of resulting irradiations (which result analogously to Huygen's law) is more or less different. So using that second stimulus as a standard, the partial result of it which is the memory is recognized as such a memory or repeated reac- tion. Obviously, the infinite regress is included in that defi- nition and truistic proof of the existence of ordinary memory ; and it is a circular definition. It is readily seen that memory can not be consistently defined or asserted by classic logic. E. g., by that logic a child's first perception can not be a memory, and he has no perceptible memories ; then the second perception can be in part a duplicate of the first, but as the child has no single memory, he has absolutely nothing to serve him as a standard by which to judge that the second is in part stimulating a memory — and so on forever, he never having a memory. In practice the classic logic in effect en- dows the child s mind with absolute creative power, making the child God, who then in some unstated way manufactures out of nothing a standard memory, by which to know he has a memory. So classic logic essentially assumes memory (§35) — and can be shown in precisely the same truistic way to as- sume everything else. Therefore, the existence of memory proves by intimate evidence the argument of this book. g. We now look at that memory process from the re- verse point of view. As the whirls of a cell are moving in a certain general arrangement of paths, truistically only a cer- tain stimulus (a certain general field asymmetry in the form, say, of an electric current) can readily "go through" it — be conducted by .the cell in the stimulus's cyclic path from the environment through will and moving-muscles back to envi- ronment, and in or by that conduction stimulate the cell to perceptibility or consciousness. So a given stimulus 'searches out' its paths, and selects those made of cells already moving in 'periodicity' with itself. If the stimulus is very novel (is due to something unfamiliar in the environment — as the gi- raffe was to the man who saw one for the first time), there is no adapted path or memory rut for it to go through, and it is likely not to go through perceptibly ; for it gets rapidly dif- fused by the resisting cells it comes to (the man in that an- cient story showed that fact by his exaggerated assertion that there was no such animal). Hence, we fail to see some thing consciously and perceptibly until literally millions of practically the same stimuli pound and pound at our nervous systems until they (the stimuli) finally get "high" enough up or far enough along to be perceptible. E. g., an aristocrat any hereditarily or otherwise "privileged" or "divine" person — is as such truistically "narrow" minded even to the extent of paranoia, and is hence correspondingly violent or coarse in his actions (is in an unbalanced degree an exquisite 189 UNIVERSE Three XVII §159b or do-nothing and oppositely crudely active: e. g., Oscar Wilde, the Medici popes, and parlor radicals) ; yet the race for centuries took such aristocrats to be really the best be- cause their actions were sufficiently unbalanced in both direc- tions to furnish stimuli that would pound through nerve paths to attention. Those stimuli from the aristocrat were in fact uncommon or noticeable; but such easily noticeable unbal- ances are not the best, but tend to be pathological. Prob- ably that fact as to the defectiveness of aristocrats, militarists, and all varieties of privileged persons has got up to the con- sciousness of the majority of people in this country, now that another and worse war has pounded it in ; we now take such mental red pepper when we feel we need it by reading of the crimes and scandals of the aristocrats — in low life and high life — in the newspapers, with a saving knowledge that they are pathological. And we have the opposite aspect of the same thing (which is what makes us need such red pep- per in varying quantities and form) :- a stimulus may be so very well known that it goes through deep memory ruts so smoothly and continually that it causes no perceptible change and as a usual thing we do not notice it. That is another way of saying why it is difficult to express the obvious. Also, when stimuli go through thus easily we say we be- lieve" whatever it is that they assert, whereas in fact we usually don't notice whether it is nonsense or not. h. The conclusions from the last paragraph are obvious :- Unless we already have fairly definite memories of a certain sort of stimulus, such a stimulus will not reach perceptibility unless it is comparatively violent or comparatively long re- peated (or both). In either case the learning of the new thing is obviously likely to be fatiguing — perhaps painfully. Also, unless the learner has a thorough grasp of the One (i. e. , actually has, at least vaguely, indefinite memories of anything which could be presented as a stimulus), the new stimulus he is to learn" or incorporate into his nerve cells is likely to be so thoroughly unknown to him as to cause fear; and the learner" may be one in a negative direction by taking act- ive measures to get away from the stimulus. Fear is obvi- ously merely the structural nerve resistance to a new stimulus that is violent enough to force itself painfully through partly into perception (so persons who are so dense as to be sub- stantially impervious to an idea are "fearless"; §170r). On the other hand we may wear memory ruts so deep that conscious resurrection of the memories is difficult. In either case there is truistically a nerve unbalance or instability. The live person neither partly runs away nor partly dies by deep ruts, but is balanced by grasping the One. i. The technical word that asserts that stimuli thus seek out their paths and cause perceptible memories, is association. Obviously, we could name as many sorts" of association as we like (doing that used to be a favorite indoor game among psychologists); but all those names would be in effect equiva- lent to "cause and effect" or "relationship." Association is the psychologists' usual name for God the Holy Ghost. But often there seems to be, as an unfortunate legacy from the old dualistic faculty psychology, the dualistic idea that memories are distinct, constant-atom, exact things that are as such stored in pigeon holes in the brain to be taken out at any time, in perfect preservation. Truistically, all stimuli in part cause "new" ideas or perceptions (i. e., cause some ideas so novel that no perceptible memory accompanies them ; e. g., breakfast this morning is perceptibly and uniquely this morning's breakfast, and not any other morning's breakfast) ; and in the remaining, usually much greater, part all stimuli cause "old" ideas — cause memories. So truistically memo- ries of the Many can not possibly be preserved unchanged, or even brought to consciousness after a certain time (during which they have worn considerably). Quite likely anyone can resurrect a few apparently trivial memories that have been apparently unchanged for a comparatively long time : but only a small percentage of such memories can be resurrected — in proof of which try to make a list of what you ate at each dinner for a month past. Of course, in a One sense memo- ries are all there"; but quantitatively most of them can not be unchangedly stimulated enough to be perceived. j. It is perhaps already obvious to the reader that it is possible to keep on and describe the whole universe in detail in terms of memory. It can readily be done with nearly any psychological term, because most are customarily used as each part of the Trinity. But the foregoing will have to serve, instead of the explicit volumes, to imply the expansion of the details, and to show that the expansion is identical with the expansion of the description of anything. §159. a. It has become obvious that there is no essent- ial difference between any two so-called faculties. Ideas and perceptions and concepts and memories and sensations, etc., are all essentially the same; the difference is quantitative :- some of them contain more of quantitative time and the im- plied space, and some contain less. Usually that difference takes the form of collecting some whirls (formally at least: nobody has measured' the actual facts) into a unit higher" structure (and such quantitative difference will have to be considered by the laws of periodicity, inverse square, etc., when such measuring is made). Thus, a concept is usually taken as » collection of ideas (some sort of nerve struct- ures) organised together; a law is a higher order of concepts, etc. But obviously, when we say That... X This... = Mean- ing we have asserted that always there is such an organism or relation. So our psychological equation Emotions... ^In- tellect. . . = Will asserts all those possible quantitative variations in psychological terms. Such quantities are in detail usually considered to be ethics; — the development of the measuring member would definitely be psychology, until such time as that naming of measures also took on a definite meaning of normal or abnormal — right or wrong. So I shall not verge further on ethics here, but close this chapter with this sec- tion, which gives a general quantitative summary of the psy- chological equation by showing its application as (l) the mental solution of any problem, and as (2) the statement of the character or properties of genius. b. Obviously, if we have a problem it is expressed as That . . . X This. . . = z Meaning, and has its mental counter- part as Emotions... ~>i Intellect... =^ Will. As we have seen (index, "Explanation"), the problem is solved" when we have so many dots perceptible that some of them are familiar to us, and we recognize that the dots with unbreakable rela- tionship run in infinite regress. So the mental method of solving any problem is to keep on looking at whatever it is we want to know about until the various stimuli from it force enough perceptions or sensations into consciousness for us to see their unbroken relationship and to see that they are familiar — and hence may be correctly fitted in to our living. Of course, all the stimuli or dots which do not become percept- ible are related — as we know after we have once grasped the solution of the One and Many. But sometimes in order to get a surely familiar (i. e., fitted,' useful, applicable) one it is necessary to make those stimuli from the thing keep on coming in for years before the right stimuli will get through to perceptibility. There is no need to try to relate or connect the perceptible ones into a system or organization — into concepts or laws or those pernicious baby-pacifiers called hypotheses. They are so related — as parts of the uni- verse, — and the object is to keep struggling until we see the details and hence truistically their unity or relationship. That §159b XVII Three UNIVERSE 190 of course indirectly amounts to trying to relate the percep- tions; but the emphasis is different:- when we try" to make concepts that are those pernicious hypotheses, we have our attention on the matter of relationship, instead of keeping it on the thing itself (men in the past then usually got ex- cited and tried to "prove" the relationship — which in practice means irrelevantly to clamorously assert its existence, and is worse than painting the lily). The relationship exists; and if we are intelligent we know it exists before we start: so we should put our effort on seeing the thing as it is. When there are enough details perceptible they automatically snap together into an obvious relationship in our brain — the nature of the universe makes them do so (it is a truism that they do) and not any effort on our part. And until there are enough they truistically will not systematize — and that is all that can be said of them. The man who tries to force" them to do so, calling the result a hypothesis, thereby shows that he is innocent of making or discovering" any laws, and does not even know what such a process may be. We do not formulate laws or great" generalizations as if we were the capricious God of the dualists : we pound perceptions into our minds — observe and observe and work to observe some more — and the laws formulate themselves.' c. That is the whole of the method of solving prob- lems. Every man truistically is competent to solve any problem (even if he is a congenital idiot) provided he can keep on pounding in stimuli long enough and hard enough. The idiot quickly gets tired of paying attention and quits (that is what an idiot is in psychological quantitative terms — an early quitter"). The man who formulates laws also gets tired of paying attention, but he does not quit so soon as the idiot, or confine himself to an eight hour day (although of course many persons are too weak to work well even eight hours). As a general rule heretofore, the man, who by some means more or less accidental so far as he "purposed" or an- ticipated (and always those means resolve themselves into sufficiently intensely and persistently pounding stimuli in) — the man who by some means had once got a grasp of the One or whole realized that a relationship did exist between the things he was observing (and also between them and him- self, so that he was "interested," or knew that they mat- tered, or that his work was worth while, and hence worked vigorously with no energy wasted on considering "what's the use?"); so he was able to take his mind off the effort to see relationship, and put it at seeing the things. Naturally such men were able afterwards to solve many problems, and were able to avoid getting so tired that they practically had to quit. But it is now definitely proved that such a grasp of the whole is highly useful, and how it is; and it is shown just how to get it. So it is possible for anyone consciously and with a positive and correct method to go at solving any problem — and solve it if he does not get so tired as to quit. Some men have tougher brains than others, as we shall see. Religiously or qualitatively men are alike — are essentially alike and abso- lutely equal.. Quantitatively, or in a skin-bounded sense, no two are equal — just as no two atoms are equal. d. The last two paragraphs are rigorous theory. We may now look at the Many aspect of solving any problem. There are, so far as I know, only two quantitative tricks that are of much importance in solving problems (perhaps other men will find others of more importance for them). One is to learn the feel" of persistently grubbing down into our vague ideas and memories — into Emotions..., or the modern subconscious, — so that we can tell when the perception feels as if it were coming up clearly; then we are able to keep on at just the right time until we yank up into perceptibility the sensation (observation) we need. That sensation is always there and will come up if kept after long enough, and if we keep on taking in additional observations from the outside to reinforce it as may be necessary. It is difficult to keep on when the perception with vague consciousness first comes — there being then a strong desire to call it finished or observed, and to spout the resulting half-baked ideas as a lot of senti- mental mush (often called "idealism"); the trouble with Woodrow Wilson was that he indulged himself by usually quitting important things on that last hard but essential lap (hiding the indulgence from himself by polishing phrases and performing other trivial and easy austerities) ; all aristocrats become so by indulgence on that last fierce lap — as I happen to know from having tried it for a while. That digging after perceptions can be made more successful by getting into an environment that makes the worker mentally uncom- fortable and irritable. Apparently the best way to achieve that emotional irritability is to overwork (that can be con- trolled and irritating associates usually can't) : of course the solver has got to pay for that irritation in decreased health. That discomfort, like all quantitative things, can be over- done (§163); at a certain stage the solver's digestive appa- ratus will get out of gear, and fail to feed his brain fast enough, thus counteracting the irritation s good effect of shak- ing ideas loose from the bottom. A minor trick I have used is to eat much sugar and a little chocolate to make my brain work vigorously and also irritatedly. Tea and coffee and to- bacco happen to work too violently for me; and I think the present version of the book is made much more balanced and reasonable by the war's having habituated me to a normal consumption of sugar — although I doubt whether I could have done the preliminary rough work without it. The second general trick of solving a problem is to go at it in the reverse way when we get too tired of one direction. All our everyday formulas have two terms, That... and This...; when the brain is so tired that it will not work well to pull up more dots of That..., then start on This... and dig up a few dots of it. Any normal person, by applying those simple principles, devising quantitative means suitable to himself, can solve any problem if he can keep at it. But he will have to pay for it by wear and tear of himself — which as a general rule will be replaced by better growth up to a certain point of 'reversal' — of "elastic limit. " And I have unavoidably above given the impression that digging out this book was 'hard work." Being interested, I have considered it play, and have for so many years automatically used the phrase 'when I finish the book and goto work,' that my associates adopted it. So solving life properly is fun. e. From an objective point of view genius consists of the genius's having a body, particularly a nervous system, strong enough to stand intense work for a long time. Or, put in terms of the psychological equation, the genius is a man who can endure an unusually large amount of both Emo- tions... and of Intellect. . . (of vivid feelings and perceptions), and keep on standing them without becoming so painfully fatigued that he quits. Obviously, that is merely a quanti- tative, unessential difference from the average man. That man is of precisely the same quality as the genius — is funda- mentally and in principle the genius's equal, and so can use himself as a standard by which to judge a genius ; he also, as a truism of the biological equations, can train himself, by reacting with the environment, to endure more and more work and thus acquire nerve strength and irritability — there are no measures as to how far the average man can go in such training in his available time. The average man can see that he himself ultimately, and in a real, accurate sense, is God : his definite perceptions of that identity quantitatively include a certain part of the whole infinite regress of possible ones. 191 UNIVERSE Three XVII §159j The genius has more numerous perceptions and more vivid ones ; but clearly his can not be essentially greater. The genius is not so much of a quitter as the average man ; so he lives more of life in a given calendar time. f. The insane person also has vivid departures from the normal balance. The important quantitative difference be- tween him and the genius is that the insane man is not suffic- iently conscious of his departure from the normal balance to be able to come back to a balance and compare his departure with that, and also recuperate. In short, the insane person has gone so far from the normal that he has structurally dam- aged his nervous system (or vice versa, if preferred ; the act- ual process is usually small cyclic steps in a vicious circle") ; so he can not really do the work required of genius. The genius can stand the same departure without perceptible damage — just as one person tears a muscle with a load that another carries with ease. So the insane person truistically shows exceedingly poor quantitative judgment about some things — usually not about many things. Unless his insanity quickly kills him his nervous system achieves a "natural" balance by having some part of it become very narrow in the limits it tolerates, to compensate for the wide vagaries of the damaged parts. In those narrow parts he is truistically ap- parently saner than the average man — is radically conserva- tive or is reactionary or stand-pat. The real genius on the contrary can shoot out to wide limits in any subject — to limits perhaps wider than the insane person's — and do it at will; and then return to a normal balance, and judge with fair accuracy how far he went, and the quantitative propor- tions of all things he observed on those excursions from the normal. So this proper sort of genius would be a better bal- r anced man than the average man — would live a more normal and steady life, and his opinions or judgments would be con- siderably more sane (i. e., more accurate). Well; as a matter of fact, so far as I have observed, the men who have been usually named as the world s great geniuses have failed to reach that theoretical superior balance in at least a few things. They apparently all shot out so far in one or a few respects that they damaged their brains and did not have good judgment in such matters afterwards — were fanatics in them. Generally speaking, the average man has taken a few similar flights in genius, and has become mildly fanatical or a practically permanent crank or eccentric. But he is still better balanced, even as an individual, than those acclaimed geniuses, as he didn't usually shoot out so far (cf. §171k). I am quite aware that on whatever subjects I happen to be, unconsciously to myself, a fanatic, in those subjects I am unable to recognize other similar fanatics as being fanatic : and I would consider as being fanatic in those subjects those who are not. So in strict principle I am incompetent to judge whether those acclaimed geniuses have all failed to reach a superior balance. This application of the principle that there is no exact science is respectfully urged for con- sideration by those who are cocksure in their opinion that others may be fanatics and cranks, but they themselves never. g. So obviously the man who insists on his right to be erratic, or unconventional in many minor things — upon his right to have an "artistic temperament," or to have any sort of special privileges (he usually disguises that crude demand under some such queer phrases as living one s own life, "the new freedom," having a "career") — the man who in- sists on such "rights" is demonstrating his own inferiority; is demonstrating that his brain is too weak to avoid that mild degree of unbalance or insanity called fanaticism. So truist- ically it follows that all the pre-war Teutonic chatter about the superman is ordinary fanaticism. For, to repeat, there can be no man essentially superior to another; and the quantitatively superior man exhibits his superiority not by an unbalanced, peppy," noticeable departure from the normal, but by a closer, more delicate adjustment to the normal, and by his temperate preservation of average standards. That genius has to make wide departures from the normal in order to gain experience and judgment as to how to keep more bal- anced; but he makes those departures so far as possible at his own risk and expense, and as a necessary evil instead of a praiseworthy performance, and does it unobtrusively, and goes as little away from the normal as will serve — with the clear knowledge that it is insanity and death to persist in those departures. On the contrary, the aristocrat, particu- larly the exaggerated superman and artistic" type, consid- ers that just the opposite conduct is proper. The ordinary socialist and the red" type — the contract-breaking, output- limiting, class-conscious workman — are precisely like the other kinds of aristocrats in persisting in departing from the normal. I think an intelligent child can see how wrong those two sorts of aristocrat or radical are. h. The genius receives impressions from the environ- ment and those cause him to work to get more, and so on until he has a very full life — lives more. Most other people note that sort of life and want it. But many decline to work to get it; so they fail to get enough exercise for their abili- ties, whether they be muscular or mental (or both). Hence they develop a chief make believe of verbally railing at what they call their monotonous, uninteresting, meager, unsuit- able, etc., environment, and at their narrow circumstances and lack of opportunity, etc., etc. — you probably have heard it ; labor leaders will demand shorter hours and then in the next breath thus bewail the natural result of loafing. It of course has become easier for those make-believers to talk that way than it is for them to go to work and use the infinite op- portunities for seeing and living that lie right at hand, and the talking widens their horizon a little — balances them some, as we saw in discussing make believe. Obviously, truistically that talk sets up all aristocracy — miracles, some- thing for nothing, privilege — as a desirable goal. Then some of their neighbors who are more energetic (such as kaisers, popes, demagogs, and all grabbers and grafters whether of academic honors, Society leadership, fame, or cash) take that guessed-at goal of mediocre make believe as being the real thing, and go chase it. Thus the upper ten" and the submerged tenth" actually directly mutually support and cause each other — the numerous stupid weaklings formulating the ideals" ; as the tramp and the kaiser are both after the same thing (dualistic miracles, something for nothing), it naturally is needful to give them the same name :- aristocrat, i. Mostly I have verbally taken the conventional point of view that genius refers to mental ability. Mental endur- ance is of course truistically the representative" ability of the whole individual, and is also the rarest in the direct form of Intellect... . But obviously, anyone who exhibits the same delicate, conscious balancing or poise in his life, is equally a genius. As a matter of obvious truism, the real genius can not be so one-sided as to exhibit merely good Intellect... — a fact shown best I think by Howe, who has an extraordinarily well balanced intellect and hence knows its place ( Ventures in Common Sense," and "E. W. Howe's Monthly"). He must also exhibit a balanced whole life. I am convinced that a good mother needs and shows the highest type of genius, j. All that quantitative description of a genius — a per- son with excellent organs — is clearly general, and is indefinite as to what structures, etc., constitute such organs. No one knows very much about that. But I have given a wide circle of truistic description of the genius, and in principle anyone can enter himself at any point in that circle that comes easy §159j XVII Three UNIVERSE 192 to him, and by sticking consistently to it, make of himself in his own environment his own particular sort of genius — which in the end means mostly a person sufficiently widely and vividly experienced to live, and to enjoy living, an ex- quisitely temperate life (which by no means is an ascetic life ; XVIII) ; then secondarily he adds to that as great perform- ance according to his special capacity as he can. Breeding is perhaps the best name for such genius, that produces the only sort of useful and enduring work — except that in prac- tice breeding" has been somewhat grabbed by the aristo- crats as a name for coddling, emasculation, and subsequent hysterical forays into imagism, cubism, or whatever be the fashionable cult of the day. I should call Lee, and Ford, and Rockefeller well-bred, and the latest New York Society leaders mild boors. k. The foregoing description of genius has been mostly from the objective point of view. Many geniuses have said what genius is, from the subjective point of view of their feel- ings. Those avowals mostly divide into two sorts:- (l) that the genius they exhibit consists of the fine frenzy of creative work; (2) that the genius exhibited consists of the delightful peace and sense of belonging properly with things and hence of getting all of life, which follows that fine frenzy. Both sorts of geniuses are in substantial agreement that the frenzy comes from outside" — naming it inspiration, revelation, etc. 1. Their agreement that the frenzy comes from without themselves tacitly takes for granted that they are bounded by their skins. Thus they assert that they themselves did not create any of the relationships that they saw — that those relationships existed. That much of their avowals is consist- ent (par. b). The rest of the conventional implications of inspiration," revelation" is truistically nonsense. Those geniuses observed the universe and saw that it was beautiful or completely fitted together; and that gave them a rebirth (§153), which ultimately consists of the consciousness that they themselves are an inseparable part of the universe — a beautiful fit, reacting and hence useful. That part of their revelation was usually so vague with them that they in general effect verbally contradicted it by implying that they personally were apart from God or the universe so that the revelation had to be handed down to them. So far as I know, Christ was the genius most definite about the fact that the essential truth is that he too was an inseparable part of the whole — a Son (§162e). Any fairly intelligent person can readily see that the general agreement of geniuses is essentially that they had a rebirth in some degree. And any person with a fair amount of mental endurance can readily experience a rebirth, and thus subjectively experience in some measure precisely what the geniuses did. m. Most geniuses seem to hold that frenzied creative" work is a desirable departure from the normal. We have seen that such unbalances are not themselves good (par. f). But so common is that defective view that insane persons are sometimes mistaken for geniuses. But as noted, others hold the opposite view that genius gives a sense of peace, and of a blissfully calm and finished universe or God. n. Clearly either way is correct as a One view. In a practical or quantitative view, the temperate conclusion is that the genius will avoid exaggerating or overdoing either the peace aspect (which may expand into Buddhistic or Oriental quietism, or European mistaking of laziness and inert self-indulgence for cosmic leisure") or the frenzy (which may expand into mania, or the New York pained hur- rying to nowhere in particular or wearisome punch" at nothing special). So you have to decide for yourself what is a temperate, exquisitely adjusted balance of the two for you. Christ seems to have recognized the two classes of genius and their tendency to exaggerate their partial point of view, and for himself to have adopted an excellent balance. So again, in the next most important fundamental point in full living, Christ was correct. And Lincoln was explicit both in word and deed about the need of such balance in life. CHAPTER XVIII. Ethics and Economics. §160. a. Ethics is the branch of science which chiefly expresses whether or not we as persons like a given thing — the science of happiness. It expands, according to vague general agreement, into the applied science of how to get what we want or like, and avoid what we do not like. We vaguely and indefinitely call what we like moral, and what we do not like immoral. Sometimes with even more conven- tional vagueness we put a neutral collection of unmoral things between the moral and the immoral — those being the things that are almost perfectly balanced as far as is perceptible to us. So ethics is frequently said to be the science of morals. The moral and the immoral commonly tend to be named thus from a "subjective" point of view. From a more or less "objective" point of view the moral is termed the good, and the immoral the bad or evil or sin. So from that view ethics is the discussion of the problem of Good and Evil. But as "objective" and "subjective" are ultimately identical and are necessarily both included in any science (XVII), and as everyday ethical conclusions tacitly agree with that conclu- sion by making no definite distinction between inner" and "outer" good things, I shall not bother in this brief discus- sion of ethics to make such formal distinction, except to show (§161b) that those two great technical schools of ethics, hedonism and idealism (which respectively go after or ap- prove objective morality or pleasure, and inner morality or ' ideals" or virtue"), are identical in meaning, and not opposing and dualistic as often conventionally held. b. Ethics as such a science is emphatically a collection of quantitative or Many judgments — as we see definitely as we proceed. All mental and material things are ethically judged from the point of view of our personal Many selves as criterions. If those things have no unbalances or asymme- tries perceptibly affecting the survival of ourselves, then tru- istically with that neutrality we say they are not news," not interesting," practically negligible," or, formally, are unmoral. If— emphasizing L — those things are a little further away from the exact balance, we perceive them, and like them because they are within the limits of asymmetry that conduce to the continued existence of our structure. If they go a little further from the balance (Fig. 168b), they come into a questionable zone, in which we do not know whether they are more pleasant or more painful ; they are startling news, and are of dubious or questionable mor- ality. Still further away things become unquestionably pain- ful or damaging to our organism, and we name them bad or immoral. E. g., under ordinary conditions, to drink a drop of water is negligible; a glassful, pleasant; two glasses, per- haps doubtful; and several gallons of forced drinking, prob- ably fatal. And the same quantitative variation in the goodness of a thing occurs when we emphasize the T point of view. Thus a raindrop hitting us is usually unmoral ; speed it up some and it gives a "stimulating" tingle; but speed it fast enough and it will be fatal. So obviously, to get a comprehensive idea of what is good and what bad, we have to be explicit as to L and T — something that conven- tionally is only vaguely done (e. g., we then see in §165 that economy of time" is an important ethical law that is conventionally sometimes ignored even in practice). 193 UNIVERSE Three XVIII §161b c. All such conventional ethics expand still further into asking why. Or, that extension may be called an expansion into the One — to infinity ; or to its logical equivalent, zero or Nirvana. That expansion of ethics is ordinarily called re- ligion. I. e., conventionally ethics refers to the Many, or science, or pluralism, or quantity; and religion refers to the One, or what is formally non-science, or monotheism or mon- ism, or quality. Or, if we write our ethical equation in the form Idealism. . . X Hedonism. . , = The Good, or Morality, the Many member conventionally is ethics, and the One member religion. By our total argument the two are essentially identical : there is merely the formal difference between them that there is between the Many and the One. And I shall make that formal distinction just as I have made the same general distinction throughout the book (§89). Ethics sums into religion. It is obviously not possible to state any valid ethics or any valid science which does not. d. Theology, to be definitely consistent, must include as being identical, ethics and the sum of ethics into religion (cf. §89). Thus theology would omit the summation of other sciences into religion. But orthodox theology purports first to be a science (it actually tries to be logic, taken far enough to prove the existence of God). And at the same time it du- alistically purports to be not science but religion ( Ency. Brit.," xxvi, 778; cf. remarks of Ryan, footnote 49b); e. g., the average theologian seems determined that the warfare of science and theology means the warfare of science and re- ligion. So theologians are broadly inconsistent as to what they are, and as to responsibility for what they say. (1) As a science, all of conventional theology that is called Christian which I can find holds God to be essentially a dif- ferent sort of being from man — a sort of superior, divine (as absolutely opposed to human), aristocratic potentate like a kaiser, who by fiat created the world, and by his autocratic will now irresponsibly rules it, etc., etc. That dualistic the- ology is obviously, by this whole book, wrong. Also, as Christ seems to have held as being his fundamental observa- tion that he was inseparably connected with God and man (§1591), then orthodox "Christian" theology is not Christian but is flatly anti-Christian, as it contradicts Christ fundament- ally. (It may be held that Christ is in places reported to have held opposite fundamental views. If Christ did hold such opposite views, then I flatly repudiate Christ's funda- mental teachings as being wrong: and this whole book is verifiable proof that they would be, in such case, wrong. But what Christ actually did teach is obviously a quantitative or historical problem that can never be absolutely solved.) (2) Further, so-called Christian theology for centuries was largely based on the doctrine of apostolic succession — which is still held by many theologians. That basic doctrine is in substance this:- essentially, the ecclesiasts have been (in some claimed mystic way) given a dualistic divine" right to rule the members of the church (and others, if the others will tolerate it) — an aristocratic privilege which clearly agrees essentially with the claim to rule made by kaisers. The world has had probably more trouble with the churches' du- alistic "divinity" — with that ecclesiasticism which perhaps a majority of theologians claim is religion — than it has had with kaisers' identical claims. In so far as conventional theology quietly tolerates such essentially wrong ecclesiasticism, to that extent theology is nonsense. If Christ did give any such power to church authorities or meant to give it (as he is reported to have done by one writer, Matt. 16, 18-19, in a weak pun made in a language unknown to Christ— and for that reason alone probably a forgery), then it is proved by the total of this book that we either have to repudiate such an error, or be irrational aristocrats ourselves, and like the theologians who hold the doctrine, set ourselves up as being essentially better than ordinary folks. (3) Further, as a last fundamental doctrine, the theologians tend to claim that the Bible is ' inspired" in some essential sense, and hence is correct. The claim is logically completely wrong, in any definite, positive sense; of course, in a One sense man can not make an error, and it is fairly easy to see that the Bible is the inevitable result of certain conditions, and hence accu- rately displays an ultimate chain of cause and effect, and so is ultimately right in a mystic, ineffable way. But it has been so often shown that the Bible repeatedly actually con- tradicts itself, and gives many evidences of having been in spots forged by grafters and deluded fanatics, that it would tend to be a calumny on the mental integrity and enlighten- ment of the fairly unbiased reader for me to assume that he needs to have it explicitly shown him here. There- fore, as on those fundamental things orthodox theology is so obviously self-contradictory, stupid, and disingenuous, I can not decide just what theologians think theology is. e. The final general remark needed in the introduction of ethics is that the tacit verbal agreement underlying all of ethics is that good consists of activity or life, and evil or bad is the absence of activity or death — the basis of quantitative guess- ing as to the amounts of such good or happiness, or evil and unhappiness, being their perceptibility or consciousness. §161. a. Fundamentally, we consider that to be good which is — which exists. Ultimately, unless we commit the silly self-contradiction of asserting a defective, wrong universe or God, we believe and assert that whatever is, is right — is, from a universal point of view, good. Possibly our word God etymologically simply means good — the sum total that is good. Words for God in other languages mean Being in a general sense — like our phrase Supreme Being. In still other languages the word for God seems to be etymologically an assertion of human striving to expand consciously into uni- versal being — by prayer, etc. So it seems to be a historical fact that in a One sense the Good is that which exists, and is otherwise verbally called God. By our solution of the One and Many, truistically the One is absolutely good (also, any- thing else), so that whatever exists is good. If we say the One is good, we can not by the same language agreement say it is evil, or that any part of it is bad. But if we wish, we can change our total language agreement, and say that the One is absolutely evil. That would not agree with con- ventional verbal names ; but it has been repeatedly shown in analogous cases that the final meaning would be the same — Evil would simply be what we now name Good. b. We thus see explicitly, as a truism of the One and Many, that our whole basis of ethics or good or God is the observation that they are synonymous with existence, or be- ing, or life in general. "Really" or monistically good, right, morality, God, existence, being, energy, Meaning, conscious- ness or reason, and life in general or activity, are synonyms. In the last paragraph we have seen that not only is the equivalence of good and life and God a principle tacitly ac- cepted by men for ages, as is more or less clearly evidenced by etymology of words, but that it is in agreement with all the proofs in this book. So far as I can judge, all the many schools of ethics in general effect accept and start from that One principle ("Ency. Brit.," Ethics"). As stated in the last section, those schools divide into two sorts:- (l) one is verbally "objective," emphasizing L or outer space' more, by preferring to call Being energy or life or things' ' ; and its adherents are called hedonists, epicurians, utilitarians, evolutionists, biological evolutionists, and various other names denoting shades in doctrine; and (2) the other school is verb- ally "subjective," emphasizing T or the inner life" more, §161b XVIII Three UNIVERSE 194 by preferring to call Being reason or conscience (a synonym for One consciousness), or the ideal; and its adherents are called idealists, rationalists, intuitionalists, and various other names indicating minor differences in doctrine. As is clearly recognized in conventional ethics, the idealists or intuitional- ists are vague but comprehensive or extensive (thus empha- sizing Emotions...); and the utilitarians are concrete and definite or intense (emphasizing Intellect...). So obviously we have the ethical schools united in the equation Idealism. . . X Utilitarianism... = God, or Good, or Life. Clearly the two schools react oppositely verbally, but actually supplement each other, and are not contradictory as is orthodoxly held by classic logic. — There are many books of controversy between the two schools. The total battle is essentially identical with that over the problem of mind and matter, and it is perhaps unnecessary to repeat in further detail than just given the solution of it in technical ethical terms. We could go ahead and expand ethics in terms of that equation. It theoretically would be an excellent way of grasping ethics. But there is the practical difficulty that our ideas of that equation are decidedly messed up by the dualistic Paul in the Bible. He recommended (so far as I can pick a consist- ent statement out of his self-contradictions) that this present evil world (or Hedonism... or Utilitarianism...) be made zero, and that the world of the spirit be made the total goal — be made infinite. Paul s logic in the matter is very confused ; he was continually tackling the problem of the One and the Many (e. g., I Cor., Chaps. 12-14), and usually expressed' his form of solution by denying both essentially and formally the Many which he had just the minute before been using to express the ineffable — a form of obfuscation still a favorite among doctrinal theologians and other aristocrats. So if I were to start expanding that equation in ordinary intelligible terms the reader probably would shortly be in a nearly help- less and highly irritating maze of verbal contradiction be- tween his long familiarity with Pauline stupidities, and things as they actually are when named by the same names. Paul and Kant are very much alike; both vigorously deny in effect the need of paying serious attention to the Many, which both vigorously use to express themselves. Paul's remarks were influential in producing the Inquisition and other ecclesiasti- cal atrocities which still continue (cf. footnote 172c); and Kant's, the nearly equally unpleasant world war (Dewey, "influence of Darwin on Philosophy, and Other Essays," 1910, p. 65). Both men were too unbalanced to get along well with the Many; Paul, in practical terms, seems to have had an overdose of learning in youth, to have been unfor- tunate in love in about all the ways possible, and so fond of eating and drinking as to exacerbate his epileptic tendencies; so he messed up the Bible with cures for his own ailments, erroneously assuming that all humans had 'em. It seemed to be unnecessary in this book to give more than that general citation of the evidence that Paul asserted an er- roneous dualism and ecclesiasticism which is the opposite of Christ's, and brief mention of evidence in other places that Paul's doctrine is in general wrong. I judge that such brief evidence will convince the good observer. But since I wrote that, an excellent book of detailed proof that Paul contra- dicted Christ has appeared :- I. Singer s The Rival Philoso- phies of Jesus and Paul." A number of articles showing Paul's wrongness have appeared in the last twenty years. c. The point of the last paragraph, from which we are to proceed, is that there is general agreement that the One is to be named Good, or God, or life, etc., and that we need pay no direct attention to whether we take a material" or a "spiritual" name for that good. The reader may take his choice, and we shall obviously go along together; personally I have no preference in the matter so far as I can perceive, and without especially noticing which I am using, use both sorts. But that agreement that activity or life in gen- eral is good is a One statement. We must, to say anything definite about any part of that ineffable good, shift to science — use Many expression. The first direct truism is that as no unit of the many has any but arbitrary "existence" (and-or as the Many is formally opposite the One), then the Many is evil; or, we have the infinite pluralism, Evils =Good. We could just as truly write it Goods =Evil. But such a formally correct infinite pluralism is not consistent with our usual language agreements. We require an explicitly con- trasted machine That...X.Tkis... (§100c), so that we shall not fall into materialism. So we may tentatively write :- Evils... y.Goods...= = Good, or etc. And that is the everyday form we use in asserting whether a given thing (any part,' whether an idea" or a thing") is a good" or a bad." So obviously, in our verbal practice the opposition" between good and evil is merely language mechanics. It is also obvi- ous that our language varies the Trinity form of the terms. d. But that equation Evils... X Goods... = Good is of no particular use to us, as it definitely represents little more than our bare verbal mechanics :- our standards of dividing the Many into good and evil are only truistically implied by that equation. But it is the great human equation used by everybody, rather than the formal That. . . X This. . . =Meaning. And that ethical equation is equally a formal or verbal affair in which the Evils... and the Goods... obviously require defi- nitions (standardized measurements) before they have particu- lar meanings. Yet that obvious fact is usually overlooked by people (a point which explains much that is otherwise strange in history) :- it is so vivid to those people that they mean their standards of measurements that usually those standards and the theory of them (the theory of periodicity in ethical terms) remain unstated and confused in their minds and their hearers . The result is, of course, sooner or later a verbal squabble (polemics), which truistically is interminable so long as the need of explicit measures is not met. e. Obviously, in no other way than by considering the experience of the race (and making more measures if needed) can the question of just what is right for a given man be set- tled fairly well :- the solution is to take ethics explicitly as a science, as definitely measurable as any science. That popu- lar ethical equation shows the ethical solution of the One and Many ; and with that we may stop using it. §162. a. As existence or activity is truistically the ulti- mate good or happiness, and is historically so accepted, it follows as a further truism that the ultimate or greatest or absolute happiness is the knowledge or infinite perception that everything is connected together absolutely or organized or related together "personally" as the One or the universe. Obviously, that is in agreement with the ordinary ways of naming the greatest experienced happiness as :- ecstacy, in- effable joy or felicity or peace, rapture, etc., or a rebirth or religious experience (§153f): such happiness or general ethi- cal good is "seeing God," or being God, etc. 162 " Also, it 162a The mildest evidence of a rebirth may be said to be a laugh —a sort of spilling over of nervous energy that has been set flowing by humor as a trigger. As we have casually seen from time to time, anything is humorous (witty, etc. : I am using humorous in a rough way) if it makes our perceptions of relationships spread out consider- ably wider (usually, also implicitly in a shorter time) than is usual. Thus the barbarian or the child finds it humorous to see the discom- fiture of another person: it causes him to see that by his (the bar- barian's) having a wider balance or relationship with the universe than he was conscious of having before he noticed the other's failure to have it, he avoids such discomfiture. If the barbarian sees a little more extensively he observes that the other's discomfiture is a failure 195 UNIVERSE Three XVIII §162e is a further truism that the object of life is to live. Further, the truism agrees with the usual intimate desire that God be a person" — with the rather general idea that a person or any real God, or that true spirit" or soul," is more than the materialists' supposed arithmetical addition of hard, separate atom or thing to hard, separate atom; or the phil- osophers' arithmetical pantheism. Quite obviously, the ulti- mate truistic necessity of there being such a real One, or an actual universe, is that there be inseparable relationship. When that relationship is perceived, truistically it makes us see that we are not lonely, not unneeded, not separate and apart, but are joined inseparably to everything. In ethics that relationship or force is called love. So our rigorously ultimate ethical good is equivalent, to use the God the Holy Ghost part of the Trinity, to the usual conventional assertion that God is love. Finally, it agrees explicitly with Christ's One statement which he said was the first and great" law (Matt. 22, 37):- "Thou shalt love the Lord thy God with all thy heart, and with all thy soul, and with all thy mind." b. The last paragraph rigorously shows, by all the evi- dence of history, and with explicit logical consistency, that this book, in its destruction of agnosticism and establishment of a unified science, is in common phrase a means of giving life more abundantly — shows that religion in a real sense is synonymous with life. Further, the paragraph definitely proves that whether we consciously know it or not, we are ultimately God, and do love him absolutely — that being merely the conventional ethical way of saying that we are organically One. So I do not issue any law in the sense of a command, commandment, or fiat, handed down as by one in authority : I merely say that the facts, which may be readily verified by the reader, are to the effect that he does "love God" that way. ■ / am no "authority" except in so far as I am comparatively an extremely minute part of the universe — one "fact." The whole universe, all the facts, is the authority, and it issues, is, principles that are obeyed — not principles that may be followed if a stiff-necked and weak-brained generation of fools fancies it will kindly conde- scend to obey them, paying for that stupidity by having about a half-life. c. To express that infinite, ineffable good, happiness, or God positively, and 'apply' it with more or less definiteness to our personal lives, we divide it into parts or the Many (Part One). Probably the most usual everyday means of doing that are these two:- (l) We shift the One term Good or God (or any of its synonyms) to a Many or God the Son form in perception of relationships that actually in a wider sense is his (the barbarian's) own failure (§47); and it then is not funny (neither is the barbarian longer a barbarian). But truistically, any compara- tively quick perceiving of a wide fitness of things (which is often given by the observing of an apparently or superficially contrasting state of affairs, which we see we can overcome or change— of which we see the deeper unity) gives us a surge of nervous energy, a mild rebirth. That flood naturally irradiates to all the organs of the body, and when it is in mild enough measure it produces, apparently as a sort of summing of a speeding up or increased living of all parts of the body, various muscular rhythms that are laughter. It may pro- duce weeping, but not often in a person unaccustomed to weeping. Or, if in greater measure it may more or less paralyze temporarily : it can, by variation in intensity, produce numerous sorts of biological phenomena— to the extent of trances, manias, etc. The universe may obviously be described in terms of humor— quantitatively ex- tended from conventional measures into such increased ones. The danger that exists in being explicitly humorous is that jokes usually involve the use of some contrast to heighten the flood of per- ception of relationship, Many people fail to see that such a contrast is a contrast, and intended as one, unless it is carefully labeled "con- trast" or "joke"— and the label truistically spoils the trigger action. So it is especially dangerous to put jokes in a scientific or other com- munication that purports to be usually straightforward rhetoric. There are no jokes in this book. and use the general equation God the Sons... X Our selves... = Good. (2) We tacitly take it that human beings are the uni- verse which is of primary importance to us (that they consti- tute our standard ethical universe), and use the human form Neighbors. . . X Ourselves. . . =Good. d. That first equation, God the Sons... X Ourselves... = Good, or God, is often expanded so that God the Sons... is explicitly Christ, the Virgin Mary, the apostles, and all the saints and prophets. Clearly the equation is right, provided its circular, identical logic is understood and used — provided it is understood that Christ, and the saints, etc., are essen- tially the same as ourselves, and (on that side of the equa- tion) are not One or perfect or divine." Consistently, God the Sons... includes Carlyle s heroes, our friends, etc. (see §166m). But obviously, often the equation is not used in that valid way :- at least four deities often are used as absolutely dualistic or essentially contrasted with our- selves. And just as aristocratic and dualistic as that, and patterned on such wrong usage, there conventionally follows substantially a. fixed classification or caste of saints, prophets, popes, cardinals, archbishops, on down to the yellow dog — which last Christ, in his effort to dis-establish such aristocracy, too emphatically logically, but with perhaps justifiable emo- tional disgust over such stupidity, said would be first. e. The second equation, Neighbors... X. Ourselves... = Good, or God, is obviously a valid That... X This... in human terms. This total book proves its rationality. Also, as we shall see in detail as we proceed, it is obviously the formula for democracy; it is the formal and more accurate expression of the "Golden Rule," do unto others as you would that they do unto 3'ou ; and it is the formal and more accurate expres- sion of Christ's statement of the second great commandment on which, together with the first, hangeth the whole law, and the prophets" (Matt. 22, 89-40):- "Thou shalt love thy neighbor as thyself." Christ stated that the two (see par. a for the first :- love God) are alike — as obviously by valid logic they are, one being the One assertion of the universe in ethi- cal terms, and the other being the identical Many expression. Christ also asserted correctly that the Golden Rule was fun- damental general law (Matt. 7, 12). 162e 162e In my opinion the remainder of Christ's probable sayings in- dicate rather clearly that he (1) actually did distinguish the One and the Many, (2) had a general knowledge of the valid logic (e. g., when he shifts expression from the usual Many terms to a One form, he often indicates the shift by stating something to the effect that the saying is for those with "understanding"), and (3) as a general thing used the valid logic consistently, so that his definite recogni- tion of the general ethical and religious law was based on competence and ability, and not upon a happy accident, so far as he was person- ally concerned, of largely subconscious cerebration. Many men hit upon and state correctly ultimate general principles: everyone's brain works out such all the time — it really being unavoidable. E.g., Luke (10, 27) puts the general ethical law in the mouth of a lawyer, and not in Christ's — presumably as having been distinguished from the trivialities in the Jewish law (Lev. 19, etc.) by the lawyer and people in general. And then the lawyer promptly asked Who is my neighbor? — showing that his stating of the fundamental law was ac- cidental and parroting (or it raises a doubt as to the reliability of Luke's reporting). The able, competent man is the one who recog- nizes what he has done or said, asserts such recognition, and (unless by more facts convinced of a mistake and explicitly acknowledging such) thereafter consistently adheres to it. That last requirement is the one on which most of us fail; we usually have not the strong grasp on the truth which enables us to stick to it. It is easy to find the truth, but hard to "live" it, because in living it we must always avoid getting confused by the actually present infinite regress. So it appears definitely that Christ recognized the essential truth (cf. §1591), stated it correctly in a rough way, and probably managed to stick to it pretty well. And he did that in the face of dualism and autocracy on all sides of him (the pre-war militaristic Prussian was a meek lamb, with a gentle and gentlemanly Kultur, compared with the scoundrels in Christ's day) ; and he did it clearly enough to get §162f XVIII Three UNIVERSE 196 f. Obviously, in both those equations the extensive factor (God the Sons... in the first, and Neighbors... in the second) is in practice liable to be confused or misunderstood, although logically by our total argument both are equivalent simply to Environment... . We just saw that God the Sons... is grossly confused. And the ordinary meaning of neighbor is not defi- nitely inclusive of environment. In fact, the lawyer asked Christ to define neighbor (footnote par. e), and Christ accord- ing to report responded with the parable of the Good Samari- tan, which as an answer is (as it is written in Luke) irrational, irrelevant, and dualistic. (I. e., the parable shows that the Samaritan acted — perhaps exaggeratedly- — as a man who is conscious of being a neighbor to the man who fell among thieves would act in order to show that consciousness — to be moral. That is obviously irrelevant to the question Who is my neighbor?; and the point is further confused by the de- tails of the men who passed by; for obviously, in principle they were neighbors, which is the point, but were substan- tially asserted not to be.) The Bible is very full of such irrelevancies — logical evasions of the point. The same problem is in the even more ancient question :- Am I my brother's keeper? And it is nowhere positively answered in the Bible, so far as I can find, and is not fully answerable without explicit solution or the One and Many. So we may more precisely and intelligibly combine our two equations into this one:- Environment... X Ourselves... = Good. The equation then explicitly includes everything, and shows that atoms, etc., rigorously are neighbors. The total evidence set forth by this book obviously goes to prove that the equa- tion is valid : that all things are related to us (that we act- ually do love all things as being our neighbors — are in some degree our brother's keeper, even when that brother is an electron in another galaxy). That is a definite and inclusive answer, and proof of the answer, to all possible questions of principle in ethics. It remains to discuss some of the quanti- tative aspects of the equation. g. A more convenient form of that explicit equation would obviously be one stated in more conventional ethical terms. Perhaps the simplest and most directly intelligible is this:- Unselfishness... Y,Selfishness...=Good; or, Unselfish acts or phenomena... X. Selfish acts or phenomena... =Good. That equation obviously means that we are a machine reacting with the environment, and shows that primarily we should consider that the environment is attracting or related or lov- ing, and that we give to it (are unselfish to it), so that it in turn gives to us so that we, still retaining ourselves as the point of view (the intensive factor), thus get, or are selfish. Obviously, selfishness and unselfishness are then merely points of view of the Many; Selfishness... is ourselves or the intensive factor; and Unselfishness..., the environment in general or the extensive factor. We could say that we and the environment are mutually repulsive, or opposed to each his solution stated fairly well by dualistic reporters who had but lit- tle knowledge of what they were really saying. So it seems reason- able to regard Christ as an unusually great genius — or saint, or prophet, if you prefer those terms. But that is a quantitative judg- ment, and is merely my personal opinion, for which I have given considerable evidence; there is much in the Bible that is explicitly attributed to Christ which is grossly wrong both quantitatively and qualitatively; and it is not possible to find out absolutely what he did teach, as it is a quantitative question. So if you consider that Christ was about as wrong as right, then I have to agree that possibly it is so; if we take the Bible literally, as many theologians say we must, then I have to agree that assuredly you are right. But, it is unessential whether we regard Christ as an extraordinarily fine man or not: it is rigorously proved that he is essentially the same as any other unit of the Many, and his quantitative size is unessential as a matter of principle. As a matter of practical living, we ought to be able to estimate him quantitatively, as will implicitly appear. other with "force," or fight. Even then truistically each is transferring or giving something to the other (in physical terms, transferring secondary whirls); so in ordinary lang- uage we might as well call that giving a loving one. h. The quickest proof of the validity of Unselfishness... XSelfishness. . .=Good seems to be this:- If we are absolutely selfish — are real Nietzschean supermen, — so that we totally separate ourselves from other things, obviously they can give us nothing; we would be in an absolute vacuum and would necessarily become zero ourselves. On the contrary, if we were absolutely unselfish — perfectly altruistic, as the extreme socialists and the I.W.W. and Tolstoy and parlor intellectu- als in general theory seem to pretend to be, — then obviously we would totally give away all we had, including ourselves, and would become zero, or absolutely go out of existence — another impossibility. Clearly, the Many statement of selfishness and unselfishness is like that of all other machines or That... X This... 's of the universe:- both Many parts must remain finite, and the sum total will actually be a perfect balance of the two (which two spread out to include ulti- mately the whole universe). So that balanced reaction must consciously be striven for (it ultimately exists, whether we are alive enough to be conscious of it or not, as shown in §114c: the profiteer who tries to grab something without giving adequate return pays for it by having his brain die some). It is the same solution seen repeatedly heretofore. For an excellent statement in detail (and with no obtrusion of technical logic) of how selfishness and unselfishness should be balanced, see Lee's "The Lost Art of Reading" and "Crowds." A definite application of the principle to actual industry or everyday living or economics" is made by Tay- lor under the name "scientific management" (§168j, etc.). i. Christ's Many statement of that ethical solution (and a number of men anticipated him in making it) is :- do unto others as you would that the}' do unto you; or, love your neighbor as yourself. Clearly, that is vaguely a statement of Unselfishness... ^Selfishness... . But equally clearly, 'if it is a Many or quantitative statement, definitely interpreted as such it is not true — is illogical. I. e., Christ s form of state- ment verbally tacitly assumes that you and your neighbor are quantitatively equal, and such is never the case. Practically, if I loved one neighbor as much as I loved myself, I quite ob- viously would not have much love left to lavish on neighbor number two — for love is definitely chemical affinity and grav- ity, and as a Many individual I have a certain limited quan- tity of it. (Of course it is unlimited, if I lapse into mystic, One expression : but we are speaking scientifically, or in everyday quantitative terms.) Or, if I definitely treated a baby in the way I wanted the baby to treat me, obviously he would have cause for grave complaint. In short, the conventional quantitative statements of the ethical equation are only rough implications — they are glaringly wrong if taken explicitly. The reader may say that they are intelligible — that we under- stand what is meant by them. I agree that if we are not in the defective upper ten or submerged tenth (who usually do their grabbing under a verbal aegis or bluff" of the Golden Rule), in ordinary routine circumstances we know pretty well what we ought to do; and when we do it we are likely to say that the doing did agree with the orthodox rules. But those rules are obviously such an uncertain mixture of One expression in a Many guise that we are practically nearly without any valid quantitative ethical theory. But of course much of valid existing economics and allied subjects are act- ually ethical and serve in the place of the direct ethical rules that the theologians have failed to supply although it was their duty to do so: e. g., Taylor's principles of management are a precise and workable statement of those defective and 197 UNIVERSE Three XVIII §163b missing ethics. As a One proposition all men are equal, be- cause each man ultimatelj' is God. But when we react to- gether as skin-bounded men we are by no means equal, and can not possibly work by a rule which tacitly asserts such non-existent Many equality — as the Golden Rule and its usual theological and grafting (e. g., socialistic or red") inter- pretations do. E. g., even the coarse statute or lawyers law does nothing else but define and handle individual inequali- ties. A murderer is treated by it quantitatively differently from a minor, and a murderer has effectually asked, by his deeds, for such quantitatively different treatment. Sound law does nothing else but divide people into classes depend- ing on their actual size, as measured by their acts, etc. ; the unsound law to which we object as being class" legis- lation unnaturally and never really successfully tries to divide men into fixed, constant, exact-science classes, instead of recognizing that men are unequal and are continually by their own acts and merits fixing their varying classes (XIX). j. So Christ's Many law or Golden Rule is inaccurate, although as a rough general approximation it probably was needed as a first step in democracy (or perhaps it is more precise to say that the One implication the law correctly gives was first needed). The more accurate law might merely have confused men in that crude age. But now we have bet- ter nervous systems, and can go beyond that child's step in democracy — i. e., perhaps the majority have strong enough nervous systems. So we shall explicitly consider our equa- tion or law quantitatively, and get the statements of what we ought to do, expressed in terms of what we actually do do. For we saw in the last paragraph that we do not follow the inaccurate Golden Rule. By thus becoming conscious of what we do, we very perceptibly get a more abundant life, and can also anticipate the future somewhat — make states- manship a science, instead of having it as in well known hist- ory, a sort of black art that rarely works, and so partly in pursuance of an instinctive sense of decency that make peo- ple hide defects and shortcomings from the pained gaze of others, conducted as much as possible in secrecy. §163. a. We have seen (§ 160b) that within certain nar- row limits of reaction of Environment... X Ourselves. .. = Un- selfishness... XSelfishness. . .=Good, or Energy the quantitative summation or standard universe of Good or Energy is so little perceptible to us as to be considered morally indifferent, or unmoral. I. e., a perfect or nearly perfect balance or mor- ality is not directly perceptible to us (see par. b). A con- sideration of that fact shows why what we call happiness, or a fair balance in life, is so elusive, and why there are so many conflicting opinions as to what it is and how to get it, and why as a usual thing if we deliberately and consciously "seek" for happiness the very seeking is an unbalance that causes us to fail to get happiness or a fair balance. Obvi- ously, in our daily small acts with the environment (whether they be "spiritual" or "idealistic" acts with our fellows, or even "spiritual" reactions of parts of our own selves or nerv- ous systems; or "material" or "utilitarian" acts with "things," such as wearing clothes or eating), a single act is usually not accompanied by any perceptible pleasure or pain —to us the act is simply unmoral. But evidently each of those acts actually does tend (l) in a direction towards a vital or moral or "good" balance, or else (2) away from it. And if those acts, instead of being temperately rhythmic (first in one direction and then in the other), tend steadily to accumu- late in one direction (either in the direction of zero activity or doing nothing, an intemperate parasitism; or in the direc- tion of infinite activity, an intemperate hurry, mania, radical- ism, fanaticism, etc.), then it is evident by simple arithmetic that we shall run into a painful unbalance, and as a truism achieve unhappiness. — little things" or trifles, Those unmoral acts are the or tnries, and in many lives sum up arith- metically to more than the big" things, and so have the greater effect on happiness. A man moral in the big, per- ceptible things can readily accumulate great unhappiness by being in sum very immoral in unmoral things. And many men who are noticeable scoundrels in some big things have kept themselves well balanced in the unmoral or little things and so have been on the whole rather happy — in spite of the fact that the big immoralities inevitably subtract something from their sum of possible happiness. Truistically the un- moral things are not perceptibly indifferently moral in sum: each one is a dot in Emotions. . . . But if a man seeks happiness, he in practical effect magnifies each of those un- moral acts into perceptibility, and thus becomes a sort of ex- perimental laboratory of morality instead of a live person : he takes out the wheels to see what makes life go round, and it truistically largely stops going, and the world correctly labels him over-conscientious, pious, a neurasthenic, a prig. He does not gain happiness, but often imagines that he has committed the unforgivable sin (the dualistic, fancied abso- lute zero" in ethics). The truistic remedy again is temperance. Instead of nearly totally neglecting the un- moral acts, or of trying to force each to a perceptible morali- ty, we take a middle course of letting them accumulate for a while (a week, a month, ten years — it is a quantitative prob- lem, and primarily needs good judgment by each person for himself), and then take out the wheels temporarily and ex- amine them, and correct tendencies as may be necessary. It is not likely to hurt anyone much to go to (say) a dance once: but a hundred times might. So obviously there is no mystery about getting happiness, nor any injustice in its be- stowal. The rain does fall alike on the just and the unjust. But there is the additional fact that the unjust in the long run never have sense enough to take advantage of the oppor- tunities thus afforded : they merely complain of the weather, b. We saw further (§160b) that beyond the amounts of Energy or Good which are unmoral, there is a range or zone or spectrum of amounts in which the acts are perceptibly pleasant or right or moral. Beyond that is a doubtful zone; then an immoral zone; then an unlimited zone of destructive but imperceptible immorality in which the individual is killed as such — changes to whirls of a different order. I may most clearly show those zones, with their limits, on a rectangular hyperbola, analogous to the hyperbola used in Fig. 104b to show the forms of That... X This... = Energy. This human- istic naming of the parts of the hyperbola serves to make that more general equation clearer. We have the equation Unselfishness... X.Seffishness...=Good, or Energy. Let the axes of Fig. 168b (see next page) show the two factors as in- dicated. The points of perfect balancing of all structures are on a line at 45° to the axes — one point being at O as shown, this point being for a given Many man (compare that with the physics statement of balance, §114c). The rectangular hyperbola through O is for the equation Unselfishness~KSelf- ishness= Energy (a constant standard universe) — a perfect equa- tion (no dots or regress). Truistically, the man will be in a rigorous monistic Nirvana if he stays on that perfect hyper- bola at O. In a Many existence, a slight departure from the balance destroys some of the man and makes some other part grow, the change being a decrease of (say) extensive factor and an increase of intensive — the unbalance not being great enough to cause a general change to some other order of structure. I. e. , if there is too violent or extensive a change in some part of the man, other parts can not perform an equally reacting change, and the man dies. So we can take it as being a rough approximation that so long as the §163b XVIII Three UNIVERSE 198 man remains organically a man he oscillates back and forth from O on a curve which on an average may be represented by the hyperbola from D to D'. Beyond that, on the dotted portions, the man as a whole structure changes definitely and ' Zone of imperceptible \Limit of perceptible pain or destructive pain- °r. death , of Employes. -Wages] Employer - That difference in names is an implicit commonsense recognition of the fact that no finite cycle may be exactly reversed (index, Cycle"), and is the same as the theory of direction of reaction in thermo- chemistry. We may write W...XM.,. in terms of value:- W...\ y T _ \ M... ; or the democratic formula, thus:- <— Love Other men and things. {Reaction^ ) <— Action ) Given men. The Reaction— > <— Action love W gives to M is quantitatively different from the love M gives to W; in the same way the quantities or measures on the two sides of the relationship in the democratic formula are not identical, which agrees with the last section. (Bas- icly, that is the principle of incommensurability ; §50.) c. The last paragraph gives the theory of values explic- itly and rigorously. "The volumes of its expansion are mostly omitted at this point, there being below merely a few gen- eral suggestions as to that expansion. I shall use values mostly as Many terms, as that is more definite and simple. d. The general value-equation is obviously :- Fame or money... X Work, or worship, or loyalty, or service... = Happi- ness. In short, we name the reaction to our activity :- fame (good repute, honor, respectof the community, 'face," etc.), or money (wealth, or any material or other thing which we agree to let money symbolize). If we acted and could per- ceive no reaction, then truistically we would not be able to know that we acted, and so would be in a monistic Nirvana — or, in Many life, would stop acting, and be dead. So, as ultimate truism, we are paid' for all our actions; the im- portant things of life are measured by those payments, or are made perceptible to us by them (that statement substantially makes payments into relationships, though our formula is using them as Many terms). Of course, we can and do make a standard universe of our skin-bounded self, and get numer- ous reactions or much pay as the reflected emotions which follow each act of will. If we act morally we truistically get such reactions — as sense of well-doing, peaceful conscience, virtue is its own reward. ' But if we deceive ourselves, lie, suppress the truth, or fail to react fully to things, prosti- tute our brains by pretending to believe self-contradictory theology and other inconsistent stuff, refuse to see or admit our mistakes, or otherwise act in an aristocratic manner, it is ob- vious that we shall primarily cut down those reactions that are emotions, and deprive ourselves of some happiness. In short, the punishment of the liar, profiteer, or other sort of aristocrat, is that he contradicts or opposes his own nervous system until it fails to act, so that it partly dies — or comes to believe his own lies, or commits piecemeal suicide by stupidity. The liar can often deceive other men into making payments to him that are too great for the work he did ; but obviously the liar pays for such over-payments' by partly de- stroying himself with the lie — literally takes it out of his own skin. And the persons who were so foolish as to let them- selves be deceived by the liar get the rest of their money's worth by being painfully partially destroyed as an automatic lesson (which even an idiot will consciously or morally profit by if accumulated enough) to observe actual facts for them- selves when they are of direct importance (and not be easy marks or boobs that furnish a constant temptation to vigorous men to become exploiters). It is therefore directly obvious (and in agreement with our total argument), that it makes no difference in principle whether we measure morality by inner' or by outer' payments — by spiritual or by mater- ial measures (§§167k, 114c). Obviously, the temperate and most moral man balances the two sorts of measures, circu- larly, so that each serves as a check or measure on the other. Clearly, the man who "idealistically" professes to think that there is nothing of appreciable value outside his skin in the material" world is a trifle insane — as is his brother crank who Scientifically" fancies his nervous system is a vacuum as to Emotions. ... So for brevity I pay no explicit attention to whether value is inner or outer, but tacitly include both, e. Whether we are conscious of the fact or not, we measure our happiness by fame and-or money. We may work for our own approval, in which case we have fame as inner self-respect or self-love. Some people claim they want only that (e. g., all highbrows and "Artists," etc., who talk of art for art's sake," "knowledge for knowledge's 215 UNIVERSE Three XVIII §168h sake, ' etc. , ad nauseam). Clearly, such talk is equivalent to the dualistic assertion that their skin-bounded self is the universe or God, which is so obviously wrong that it shows that those Artists" are make-believing that they are suc- cesses — talking as if ordinary outer fame, especially money, were sour grapes. But, though inner fame may be thus exaggerated, some is essential; e. g., all initiative is the re- sult of anticipating to ourselves that a certain action which people do not know they want (or which they even emphati- cally deny they want when they first see it — as, for instance, sometimes happens to this book), will first please us, while we wait for their later approval and their then giving to us praise and-or money. In such initiative we have to take a chance on being right. And while we normally value the inner self-respect some, we also by ordinary commonsense want that confirmed (§17ljk)— which is proved by the fact that the promoter charges high prices for his services :- he has to take a chance that he is right, and has seen better than prac- tically all other people in a certain detail ; usually he is wrong, and gets negative instead of positive pay. f. And just as there is a normal limit of extent of activ- ity (Fig. 163b), so there is a limit beyond which either hav- ing fame-money, or the effort (ambition) to get it, is painful and immoral. Fame-money is the re-action. Clearly, when we work or play we should primarily have our attention on get- ting our acts performed : we are at the time not directly con- cerned with fame-money or payment, but are concerned with sending our energy or pre-payment in the contrary direc- tion. So it is truistic that if we get too much fame-money, or if we attend to getting pay primarily, or exaggerate pay by collecting all the traffic will bear or the value of the ser- vice" (i. e., use a practical monopoly to gouge the other fellow until he is pained into legal rate making — an evil to everybody, but one which inevitably follows such gouging), then we must take or have taken our attention in some de- gree off the work or play and naturally do it unsatisfactorily. g. Only by primarily attending to getting fame-money is it likely that we shall get more than is good for us (the only other way of getting too much that is at all common is by inheritance). And although the direct effort to get fame- money is wrong (just as the negative aspect of it, rate fixing, is wrong), an indirect or secondary effort to get it is essential. I. e., in our resting half of the cycles we should observe whether we get it or not; and if we do not get it, then we must come to one or both of these conclusions:- (l) our act was rather worthless to others; i. e., is "wrong"; (2) the other persons' reaction or pay is wrong. Then we must in- directly go after fame-money by modifying our future action. And that obviously is another way of stating democracy, but I need not repeat the details in those new terms. We may note the reverse aspect of that:- We should examine at times the fame-money we are getting to see if it is actual, and examine the people who pay it to see if they are moral in awarding it (to see mostly whether they are competent to judge whether they are getting their money's worth). In short, we are morally bound to examine the gift horse and the donor. Willingly or appreciatively to receive praise or money (particularly a "tip") from an aristocrat for any serv- ice other than such service as a defective may estimate fairly well is to make oneself an aristocrat in some measure. E. g., a grocer may safely give an aristocrat a standard food and willingly receive the standard price (maybe not in the present disordered market) ; but if the late kaiser were to approve my remarks on ethics, I should promptly begin to try to find out why. Or, if a child of ten said that this book was fine, I should value his good will towards me, but would not think his judgment of the present form of expression of much value (though he could easily judge the book when put in his lang- uage). But I would value the general judgment of this book by the average college student of twenty, as being consider- ably more competent in my opinion than that of the pope, or the average lawyer or theologian or business gambler, or of practically any radical or materialist. To be more specific about the foregoing generally stated principles :- The practice of tipping is a mildly aristocratic one, which however damages democracy by its extensiveness — being a training school of economic and ethical vice. A man gives a waiter a dollar, and expects the waiter to judge him to be superior" — to return the money in measures of fame, good repute. (That is the case when the tip is willingly given; in the case where we are forced to tip or suffer worse consequences, it is in a mild degree blackmail.) The essential character of a tip is that it is money paid which is over the price that it was implicitly contracted to pay for a certain thing; so truistic- ally the only way the receiver of the tip can pay for it (all things must be paid for; §1 14c) is to give fame to the giver (for otherwise, the receiver implicitly says that the service which he was implicitly under contract to give was to be an inferior and careless sort — which even by such coarse morals and economics as the legal law is equivalent to his breaking the contract). That reaction (of the receiver giving fame to the donor) could be moral ; but in practice the pay for the tip which the tipper gets (when it isn't blackmail paying for the tolerable performance of a contract otherwise paid for) is almost necessarily a cheap, dishonest sort of fame; for the receiver obviously ordinarily has not data enough on which to form a reliable judgment. And that amounts to debasing personally the receiver of the tip — amounts to his admitting that he belongs to a class which is essentially inferior; and to his saying that he will sell his opinions even when he can not properly form them (which truistically is some destruction of his self-respect). Also, the donor is debased by willingly receiving such servile abasement — even paying for it and thus showing that he thinks it a fine thing which he himself is willing to do when the tip is a bit larger (or else uncom- fortably shows himself and others that he is weak in some degree by submitting to such minor blackmail). Ob- viously, in order to be very precise about the principles of tipping this should be extended to several pages. A suffic- ient practical proof of the truth of the above rough quantita- tive statements is that a self-respecting person does not take tips. Also, the best business men will not tolerate tips; e. g., Filene does not permit his employes to accept tips, and his employes are usually not the sort who would debase them- selves to get them. The intelligent reader I believe will agree that I display a proper sense of proportion in giv- ing a half dozen lines to showing the principles of the large and important" subjects of monopoly pricefixing, rate making and regulation, etc., and dozens of lines to tipping. If our very children have their innate honesty or sense of correct price principles warped and distorted by such common prac- tice as tipping, we had better talk in their terms of cents, as the same simple principles apply in large terms of mil- lions. I try always to begin at the beginning. h. Money (or any other material thing) is obviously a part, and hence a symbol, of the total universe or God, and hence of our "real" selves or souls, considering them mon- istically. And ultimately, real value is relationship (pars, ab) — or in human terms is love. We really ultimately do every- thing for love — which from usual points of view is named fame, good repute, honor, respect, recognition, face" by the Chinese, etc. But that love can be expressed definitely only by symbols of the Many (Part One) — to express love or give payment is again the problem of the One and Many. §168h XVIII Three We give another person love or actual value in a Many or practical or everyday way only when we give him some of our lives or activity in terms of L and T. We can not absolutely give another person such Many love (for absolutely, love is inseparable, and he already has our love) ; the giving of it is merely symbolical — involves L and T. So truistically, any part of the universe may be used to symbolize or measure that part of our life we give to another. By ordinary conven- ient agreement we select a part that is as durable as possible, which as a small and hence easily transported unit represents considerable human work in its original production and as nearly as possible a steady (and preferably equal) amount of actual work to reproduce at later times ; a part which is homogeneous, readily dividable, and readily recognizable as itself and not a similar substitute, and which has an actual usefulness or intrinsic value as a "raw" material in industry. Such a standard Many part is usually what is actually meant by a unit of "money" ; and the best substance yet found to meet those truistic requirements is gold (for details see En- cy. Brit.," "Money," or modern economic texts). The es- sential characteristic that would make a part of the universe a unit of absolute money (a constant for the measurement and- or relating ["exchange" is the technical term] of human life or work, like physics's exact constants) is its acceptability as a symbol of a constant unit amount of life by everybody on sight, without question, at any time — so that the unit symbol has an "absolute market." There obviously can be no such absolute money — no exact science. If we could rely on a person's promise to give a unit of life on demand, and could agree and stay agreed on what a unit is, money would be un- necessary — a nuisance. But men's brains are entirely too lacking in steadiness or durability, from many obvious causes of which dishonesty is but a trifling one. So we need a dur- able symbol of a man's brain condition at any given time, and the barter of any Many parts as such has disadvantages (see "Ency."). And obviously, if gold is agreed to be mon- ey, then anything else by logic, form, or agreement is abso- lutely not money ; and, dropping the agreement, then by physics, anything less enduring, steady, and certain than gold is in a less degree available as a money. A simple promise to pay is not money, but is the real thing (relation- ship, love, "credit") which money is used to symbolize. The equation is:- Parts of human life, or Human effort or work, or its Products... (^Credit— >)Money [actual physical parts, such as units of gold, apart from agreements]. . .=Standard or whole universes of living, or Certain transaction, or the sum of Money where it is the agreed-upon standard. The principles of money are obviously the solution of the One and Many. The usual befuddlement about money, from which comes most financial panics, etc., consists in or arises from confusing money and credit (cf. footnote 28b). That covers the principles, but some practical details of money are in the footnote. 168 I68h j_ The meaning of the proverb that money (or love of mon- ey) is the root of all evil is that questions of money are the practical ways of stating the problem of the One and Many, and obviously lies in two practical difficulties we have with money:- (1) the standard unit of money or Money... constantly changes with reference to what it "buys" or evaluates (that change is commonly implied by the phrase "high cost of living," and is the economic form of the law mass varies with velocity, and is practically due to the fact that the truistic requirements of a good money are imperfectly met by all sub- stances, gold in particular having been rather continually relatively easier to produce for some centuries) ; and (2) the psychological or human nature aspects of the same difficulty, which we may consider under two heads:- (i) when men do agree that (say) gold is money they rarely stick to the agreement but actually try to make the ab- solute error of having credit money (we consider that below); (ii) it is so hard justly to measure human acts in terms of money (the Su- preme court practically gave up the problem of saying what is "fair value") that people have often made the One assertion that life can UNIVERSE i. So in a fairly civilized or moral society, money will serve as a roughly accurate measure or symbol of all values. Words of love, or fame, will constitue a "spiritual symbol, and at the same time a proportionate measure of money will be given as a "material" symbol, for each work or service. not be measured, and so have refused to try to use money consist- ently except as a measure of the most concrete things (e. g., aristo- crats for centuries have substituted more or less careless tips and "patronage" for definite and considered payments). The more pre- cise statement of that proverb is that the root of all evil is the dual- ist's stupid effort to get something for nothing— to get something for too little payment; to get something for one of his "kind" words or careless promises, which he thinks costs him nothing, but which when insincere costs him (truistically destroys) a part of his nervous system. So the sentimentalist's objections to such a "vulgar," "ma- terial" thing as money are practically invariably the aristocratic ef- fort to get a "privilege" (to get something for nothing); or else his objections are more or less thoughtless parrotings of the aristocrat's objections. As a practical rule, when anyone is so "refined" that he avoids mentioning the precise price he wants for something, it can usually be correctly judged that he intends to try to get a money price that he himself, at least subconsciously, thinks is more than the buyer should pay. ii. Those practical difficulties with money can easily be theoreti- cally obviated. The natural or truistic law that the unit of economic mass, say the gold in one dollar, varies [in value] with velocity may be analyzed into two practical parts:- (1) that a unit of gold meas- ures, originally or as a nominal static measure (the 'nominal' means that 'we neglect in economics the fact that the physics mass of that gold itself varies with physics velocity; the economic law mass varies with velocity is a higher order of the physics law, as I had to indicate by the bracketed phrase in line 3 of this paragraph) the amount of average human effort or life (love) required to extract it from the environment; and then (2) that its continuing or dynamic value after that depends upon the cost in effort at which it can be passed from buyer to seller, and the average effort required at that particular time to extract a similar dollar from the environment. I. e., the gold unit "wears out" (is partly lost) on passing, requires effort to care for and pass, requires effort to recognize, requires even more effort in case a symbol of the symbol gold is used to "recognize" or verify that actual gold is represented and maybe had (but in theory, though not so in present practice, as implicitly appears, the greater effort in recognizing that secondary symbol is more than compensated for by savings in not having to move the actual gold; see textbooks for details) ; also, with increasing knowledge, so far a new unit of gold can be produced with usually less effort. Obviously, those things (which I have so roughly stated as to cause some expert economists to tear their hair — but I shall keep on endangering hair in order to get essentials clear of the numerous details that litter up men's minds) — those things truistically cause the gold dollar to vary in value — in the amount of human effort it pays for. And in theory, all we have to do to make a gold dollar constant in value is to com- pute those changes and apply a suitable correction at any one or more of the infinite "number" of steps in the process. We note be- low some suggested ways. Of course those variations are in infinite regress, and can not be in a finite time accurately provided for. But the worst objection to that theoretical stabilization of the gold dollar is that it doesn't touch the worst difficulty with finances:- that after agreeing on a dollar we then try to make the absolute error of abol- ishing it (by using credit or relationship direct, instead of that Many money). Of course, we could also undertake to include in the com- putations an estimate of how far we shall daily succeed in throwing away our money unit. But it is much easier to decide whether we want a money or not and then exhibit a little elementary intelligence by sticking to it — sticking to A=A financially and morally (§22). iii. If promises of possible gold (in some degree representing actual gold, and the rest credit — what we shall call fictitious money, as it is partly pure fiction), such as printed notes of any sort which do not actually represent 100 per cent gold, pass so rapidly or in such volume as to show clearly to most people that the actual gold does not exist, the value of the fictitious money truistically decreases- such money becoming worth only the fraction or per cent of its face value that represents actual gold. If the bearer of the fictitious money is fairly sure he can in time get the actual gold, the value of his "money" will perhaps lack something of decreasing that much if he can compute how much interest he may lose. But it is truist- ically impossible on the average to keep the value of such fictitious money above the human effort it in fact represents. I. e., in plain language, if we have a 40 per cent gold reserve, in the long run our fictitious money issued against that will theoretically be worth 217 UNIVERSE Three XVIII §168i Obviously, then words will begin to have a definite conscious value. As it is now, the customary opinion is that mere words" are practically valueless: talk is cheap." It is the most expensive thing there is; but the fact is that by the classic logic, and in practice when used by aristocrats or dual- ists, words are unreliable and nearly valueless to us except as showing how not to use them. The selfishness or stupidity of the aristocrats, which makes them unable to say A=A with a dollar and stick to it, also makes their words in prac- tice unreliable and unstable, and has considerably dislocated all measures of humans. But that unreliability with words obviously costs the aristocrat some destruction of himself: he pays in pain and in loss of some of his life for what he spoils — his selfishness and get-rich-quick schemes with words as well as money are simply stupidity or ignorance :- he pays for them, and pays much more than an intelligent person cares 40 per cent of its face value (a little less in fact, to provide for cost of printing it, etc.). That is a simple truism, and inescapable: the fictitious money is 40 per cent money and 60 per cent not money but credit, and nothing can change that fact; the credit may be good, and worth nearly its face value, in which case the gold miner exchanges his gold for the fictitious money with but a slight loss from the nominal pay he gets for producing it; but just now in this coun- try it costs about an average of §1.50 of presumable gold to produce $1 actual gold (probably most of the loss of gold producers is hidden in the long run as underpayments for their improvements in method). And truistically everybody who accepts the fictitious money is gam- bling, and in fact does not know what actual gold is worth in terms of (say) food (a fact that is glaringly true just now, and always at rhythmic intervals with fictitious or "watered" currency). I. e., when there is fictitious money all actual money truistically ceases to exist; or, we have destroyed the unit of money we agreed on (by as- serting that credit is money, when in fact it is not — although credit is absolutely indispensable: it merely should be correctly named); the gold still exists of course, but is no longer a standard of money, but merely partial security of often widely fluctuating value; or, in technical economic terms, Gresham's law (good money drives out poor: people keep the poor, and circulate, give to their neighbors, any legal money which is nominally but not actually worth so much) — Gresham's law goes to the limit, and the nation possesses no actual money, but merely printed promises, hopes, dreams, "blue sky," or what not — you accept some of such money, and become a creditor (not an owner), and by the inevitableness of facts have to figure on what you will lose if you keep it long enough to give somebody a chance to fail to pay. And that that is true practically is proved by the notorious facts about panics, "reserves," etc. iv. This country, in spite of repeated resulting disasters called panics (we are in one now — a long-drawn-out sort — the change from our customary rapid panics being due to certain features of the new banking laws: the Roman empire got in the habit of having our new sort, and naturally there shortly wasn't any Roman empire)— our country issues all sorts of things which look like real money but which are pure-money-substitutes and actually fictitious— so that by what we may call the ultimate Gresham's law, which works by facts and not by congressional fiats, we usually have no actual money at all, but a governmentally conducted credit system or bank, run by people who are often densely ignorant of money or the One and the Many, and who are mostly financially irresponsible for results. No man and no government can possibly make fictitious money real money, because truistically it is not. To issue fictitious money which looks like real money, and is intended to, is obviously the same sort of stupid dishonesty as mislabeling and adulterating our own food and expecting it to fool our digestive apparatus. v. We saw in the text that there are a number of practical or perceptible reasons why an actual gold dollar varies in value, and that like any other unit of the Many it varies in infinite regress in value— in relation to, buying power of, reaction with, any other thing or set of things. Irving Fisher has shown that the unit of value can be stabilized by varying from time to time the weight of gold in a, dollar to correspond with the variations in work required to get gold and the other usual needs of life. Obviously, if the work required to get such a variable unit of gold thus varies precisely as does the work required to get other needs, the value of the dollar truistically does not vary for those other needs, and insofar as that stabilization is accurate a dollar may be accepted as a steady unit. Fisher gives a good short statement of the practical proof and details of it in "American Problems in Reconstruction" (Frieoman, editor), (and he has a book, "Stabilizing the Dollar," which I have not read; I to pay. But words have thus been debased so much that now neither what a man says nor the word of praise or cen- sure which he is awarded for it is regarded as of much conse- quence unless definitely accompanied by money measurement. It is right in principle that money can measure any kind of value. Money actually does talk — honestly and definitely (except the part that is water). Even the aristocrats' money talks far more honestly than their words do — for they vary the value of their words infinitely and they can t juggle gold so violently. Words ought to talk much more precisely than money does; the present greater reliability of money will help to rehabilitate words if both are used consciously and consistently. Those principles practically show the average characteristics of government officials and other per- sons who occupy nominally important positions — who have more title than work, like the imposingly gaudy doorman of don't know whether he proposes to stabilize the fictitious or the act- ual dollar). (Other methods of stabilization have been proposed in the past which are ultimately identical with Fisher's, are theoretically as sound, and have more or less the same practical objections; two are mentioned on p. 227, Gide's "Pol. Economy" [2nd Am. ed.], one of which is to water the currency — issue fictitious money — in amounts as are needed to correct the varying gold value; my §123 implicitly shows one way of stabilizing the dollar — and the unfortunate results of a too stable dollar in such a millennium.) As noticed before, Fish- er's method can't accurately stabilize the dollar, as it deals with the infinite regress (his method is substantially the economic equivalent of Einstein's theory, §66, with a jelly-fish dollar — financial papers call it the dancing dollar). But although that theoretical difficulty is readily obviated in the same way that we live in everyday life, it includes two practical difficulties (in addition to that of guessing how much the next congress will water the currency), that make the stabilization in my guess undesirable:- (1) It is impossible to change even nominally the weight of a gold dollar continuously; it can be changed practically only occasionally, and the intervening time in- tervals will allow unequaled opportunities for grafting, "leaks," and almost sure-thing gambling at the expense of the government (I have seen an analogous thing done). (2) But the worst defect of such stabilization is that substantially all the people of the world would have to accept the gold standard and change the weight of the unit simultaneously and equally to make the method safe. If they did not and just the United States stabilized the dollar as far as was practically possible, then truistically we would be forced to buy or sell all the gold supplied or demanded by the other peoples with their different units (theoretically the present more or less natural laws of foreign exchange would prevent that; but practically they wouldn't, for the simple reason that our unit would move in appreci- able steps — or if the changes were arbitrarily restricted to stop that, then we would have a fictitious stabilization superimposed on a ficti - tious money, a double attempt to say A=A and A is not=A identi- cal with our "free-silver" stupidities). It is doubtful if we have enough gold and other commodities thus to meet such world supply and demand and thus stabilize it at our unit. We might be able to do it successfully materially; but the psychological side then comes in, to the effect that it would put a terrific strain on the honesty of some men (to say nothing of the worse strain on their intellectual knowledge of prices), so that if those men crumpled our condition would be far worse than now. In our present state, if all men were fair minded there truistically would be no painful price variations except as a result of intellectual ignorance as to what are fair prices (inability to gauge supply and demand); and in our present state no great temptation to gouge is ordinarily loaded on one man, so that all but the few defectives are fairly honest; also, now the majority tries to work out what are fair prices, and the intellectual result is sure to be far more accurate than the guesses of the wisest, best in- informed stabilizing committee. That present state, I judge, is pref- erable; further, for most of the people to be engaged perforce in often estimating values — even concrete money prices — is the best of educations, and a paternalistic stabilizing board, or any sort of rate making commission in theory deprives them of such real living. There are flabby minded people who would be glad of such an ex- cuse to avoid more of the work or really vigorous life of getting their money's worth; they sit in apathetic, half-dead sloth and yelp like a whipped puppy to the government to protect them from foreign or some other sort of competition, from the middleman, or, in short, from having to live. They need a nurse — not a government. vi. So it appears that besides some ordinary self-reliant work, the practical thing we need financially is an actual dollar — a Many §168i XVIII Three UNIVERSE 218 a department store. Such persons chiefly get fame as pay : and that is largely what they work for. And as just noticed, fame unaccompanied by, or unmeasured in terms of, money is an unreliable guide. In a business, ordinarily the money profits are a reliable measure of the worth of the fame re- ceived ; the pompous business title-bearer works for casual words of fame, doesn't do much worker the business, and so profits fail, and in the end he loses his job and has acquired ill fame as a final result of that failure to make money. But obviously, in politics, as ordinarily viewed, there is no such money check, and the fame which is worked for is un- reliable. Or it is even worse than that:- a government offic- ial is often given money-measured fame for the money he takes from the whole people and gives as nearly gratis as possible to his fame-bringers — is rewarded in the degree he succeeds in financially ruining the country. So truistically the average official tends to be irresponsible and incompetent unit that is fairly steady and so serves rather definitely to symbol- ize human relationship or credit or promises to pay. Promises are credit, are dealt with by banking, and perceptibly include the es- timating or measuring of thousands of human characteristics and of material possessions; banking is the relating factor, the coordinator, the Holy Ghost of finances or "business." Every transaction in credit obviously is a perceptibly unique quantitative problem. And the pay which is promised is finally money : in sum it is a standard universe or One, and is made up of unit Many parts or dollars. The total problem of "money" is to agree that a certain mass of (say) gold is a dollar — that gold itself is the dollar, and not the chance of getting it, — and then to stick to that agreement definitely. If we like we can have that mass or weight of gold vary by certain stated rules; that is a mere matter of convenience, and in my opinion is in- convenient; but the essential point is that we be definite about sticking to that agreement; which means in practice simply that all money be the actual bonafide gold, or a secondary symbol of such actual, possessed, available gold and that such symbol be so defin- itely and easily distinguishable from promises to pay if the gold hap- pens to be available that a child can tell which is money and which is some species of mortgage or promise. vii. And the solution of that problem of money itself is obvi- ously child's play. The difficulty is fundamentally to get men to stop trying to fool themselves as to what they own and what they hope to own, and the only cure for that is education, or in numerous cases, death. A practical partial cure for it is to take the govern- ment out of the banking business. Our government has so thoroughly demonstrated its inefficiency in business in the past few years that there seems to be no need to state the evidence and reasons why the government should not engage in banking, which when properly conducted is the most difficult of all businesses and the most indis- pensable — the flywheel of all business. The government would then simply make fair rules for the bankers (a job more than enough for the wisest government), fix the weight of a gold dollar, issue sec- ondary symbols of the gold it stores, see to it that nobody else is- sues anything that can be easily mistaken for such actual money, and in particular keep itself from doing so. I am aware that there will be the customary protest that that will make the currency in- flexible, restrict it, etc. Naturally: it eliminates the fictitious mon- ey which never nourished us anyway, and truistically never can, and which we with painful offensiveness vomited up at frequent inter- vals. And that clears the way for bankers to do a real business with credit — issuing any sort of credit instrument that works well, so long as it does not deceive its holder as to its nature. If bankers or any- body else try to do business on make-believe, deception, lies, they truistically will fail. If the bankers and other people haven't the slight intelligence to see that we can't correctly estimate the value of anything with a fictitious unit which isn't a unit, with a dollar which is largely and in an unknown degree water, and next (which is where the rub comes) haven't the strength or moral courage to drop such wildcat currency, then the simple answer is that the nation has gone to the devil. Our method of fooling ourselves by is- suing fictitious money as to what are hopes and what are achieve- ments (real money) is the economic or business form of a continual Pollyanna "glad game" (§149f). Naturally human nature, espec- ially that of the "tired business man," can't stand the strain of such continual ecstacy or departure from a sane balance, and we neces- sarily have revulsions from such abnormally optimistic, price-raising, speculating tensions — those sick-spells, forced upon us as resting periods by the absolutely just universe, being panics, depressions. and more interested in attending to getting fame for himself (note the plethoric plethoricalness of their speeches) than to working for the government, the whole people. There is no general remedy except education — especially in sizing up men, and in considered, careful use of words in praising the able officials. There are one or two minor practical helps which are obvious:- As the business of government, in terms of money, is to spend money for the greatest good of the greatest number, then the available money check consists in rating the success of government officials by the smallness of the percentage taxes are of peoples' total income; if they can buy mental and material improvements with double the sum of taxes which triple the people's income, they have been highly successful. My rough guess is that we pay about 25 (twenty-five) per cent of our incomes, if not more, for gov- ernment (federal and state and county, etc.), and that a fair business man could supply better for 5 (five) per cent. Of course that guess includes an estimate of actual cost of in- direct taxes: good officials would have to abolish those (they are immoral on other grounds; §l76d), in order to per- mit themselves to be judged by a reliable money standard. And, as there is no definite money check on him, the good official will exhibit both good taste and ordinary fairness by endeavoring to keep the government from engaging in busi- ness, or from interfering specifically in any private business, except to restrain defective individuals from violating general laws. Other details are given in appropriate places. j. It also follows that in principle Taylor's doctrine of scientific management (expressed briefly in The Principles of Scientific Management") is perhaps the most explicit and extensive advance in ethics or the science of living that has been made since Christ (§163j). Taylor required (l) co- operation or democracy, as it has been explicitly described above. That basic conscious human Many machine" or loving society is then (2) to be maintained in a delicately adjusted balance by careful and explicitly conscious measur- ing of its reactions — by a deliberate application of science or measuring to humanics, with a conscious economy of time. Obviously, only such a continually adjusted human machine is the maximum democracy or maximum life — Taylor had no get-rick-quick scheme or hocus-pocus panacea, but would definitely measure and consider each quantitative or Many problem in accordance with its perceptible facts — a glaring exhibition of commonsense that has irritated the shirks, sen- timentalists, quacks, and bright wonder-workers and sys- tem mongers ever since (we have 'systems" in business now, instead of in philosophy ; the philosophers have learned better). And then, as the final general principle, Taylor showed (3) that a definite money value could be given a democratic reaction; and that the actual use of such a symbol or measure did give all the theoretical benefits of democracy — in definite practice did give life more abundantly. Of course, Taylor's work is so extraordinarily extensive that it has been perverted by some smaller men, and labor in gen- eral has not had enough intelligence to grasp it. Ostwald, for instance, took it up and perverted it considerably, to fit and agree with the pre-war German materialistic idea of "ef- ficiency," which bids fair to make the word efficiency join the word pious. Taylor was a supremely great man. He was a democrat more beautifully balanced than Lincoln. There is no space to go into much further explicit detail of his principles (§I74g). Essentially such detail consists of the establishment of human measures— is the science of hu- manics. And that science will develop just as has physical science, having for its goal the continually more accurate ex- pression of human measures in terms of money, k. So men play or worship for inner fame, or self-respect 219 UNIVERSE Three XVIII §168o or self-approval; and work for money or for outer fame. But in both play and work the primary attention is on the game or activity; and on the rest side of the cycle the attention goes to the payment, which is the reaction. So when we name what men play or work for, we have to name the re- action or payment, and do not state the character of their activity. The equation is:- What the play or work is for... X Work or play. . . =Meaning. Usually we incline towards con- fusing the parts of that equation in our minds. But obvi- ously, no intelligent man works for fame or money as an end. The end," or the One Meaning, includes the pleasure of his own activity or living; in a continuing society that is neces- sarily supplemented and completed by the perceptible ap- proval of others whose opinions he values, expressed in fame or money (preferably in both, as checking each other). The fame and money, combined with the work and play, give the man some degree of rebirth, or a Meaning. That Meaning is conventionally named power — which thus really means ener- gy, or universe, or God. So we again finish the circle, get- ting the truism that the use of living is to live. 1. So truistically men work or play for the sense or feeling of power it gives. The man who wants to work or play so that he gets his pay from somebody far off is correct in thinking that getting it increases his life (the L or ex- tensive factor is increased) ; but he often makes the practical mistake of neglecting his own affairs or family to care for the heathen" or make love to another man s wife, so that he largely loses the intensive factor and by doing so destroys much of his ability to enjoy the wider L. And the "ambitious" man who strives to pile up more fame or money as a sort of end in itself is merely more or less fnsane (power- mad); probably it is kinder to him to agree that his brain is defective in a pathological degree. The sane man who strives for power, the properly or morally ambitious man, is clearly conscious that the equation has two factors {Fame or money... X Work... =Power), and that the intensive factor — the one he primarily sees, and chiefly tries to get directly — is the work. Obviously, this working and playing to get power is identically the same as striving for activity or life or happiness, or getting religious experiences or re- births, or the same as being a genius. And clearly, the same principles apply ; power is Meaning, or the springs of ac- tion," or God, or energy, or the universe, named from the point of view of value. So a man works for power because it essentially is religion. But as we saw (§§153, 162), a rebirth can be too violent, and easily drive a man mad (cf. §173e). And it is even more easy to get too much power, which is one sort of rebirth (one which is 'reinforced' by perceptible "objective" things), and go mad — become unbalanced or overloaded to perhaps the degree of pathologi- cal insanity. We consider the details of power-madness in various places. We may note here that the selfish grab- ber of power, either in money or fame, usually gets it if he grabs a little vigorously — and then he pays for it by its de- stroying him in a just degree. He always pays. m. As the money or fame acquired should truistically be in fair balance with the work delivered (because the two are a cycle, Money... X Work...; §167k, 114c), it then is an equivalent truism that if a man is given more fame or money than he can use, both he and the people who give it are wrong and immoral. (As verbal love or fame is so carelessly given, for brevity and precision let us confine this discussion chiefly to money.) Clearly, if the man is given so much money that he can not use it all before he dies to pay for things he can actually perceive for himself (including of course fair money payments for all the services he receives, especially for the reactions of his immediate family), he then can not take the money with him, and truistically has been shown by such reaction of the universe to have been over- paid. Carnegie discovered that the man who dies rich dies disgraced ; clearly that is a first class discovery, that makes him a peer of all the great prophets. He also made other first class discoveries (see his ' Problems of To-Day," which is surprisingly valid, the only logical error of much import- ance being his idealization of woman substantially to infinity). And he handled men in a first class manner, which is a good deal harder to do than to make first class discoveries and shows him to have been a great democrat in character. So I judge that Carnegie fully earned all the money he got — which is something I think can not be justly said of many manual laborers. There are of course numbers of rich men who are just as bad grabbers as are loafing workmen and ex- treme socialists; the first step in the process of dealing with them is to learn to distinguish one when he appears. But there are many rich men who have thoroughly earned their money, and are peers of Carnegie:- Rockefeller, Eastman, Ford, Hoover, Wanamaker, Edison, Schwab — to name only a few well known ones. n. The principle obviously is that a man gives work or energy to others on his catabolic swings from the balance; and then as a just reward (in physics terms, a necessarily equal reaction) should receive as much money as he can use to get him in return an equal amount of energy on the ana- bolic sides of the cycles. If he labors prodigiously for others as those rich men named above have done, then by all laws and morals he must consume equally prodigiously to keep balanced. There can be no exact science; so it is not possible that the man die with exactly no money left. But if he is highly intelligent or moral, after paying his fam- ily what they have actually earned, he obviously would have left (or owe) but a trifling fraction of what he earned. So it is an absolutely rigorous principle that if a man has wealth left when he dies, it belongs to the people and should be re- turned to them. Or, no man can morally bequeath wealth nor can others morally permit him to. As a fact, our com- mon law for centuries has held that principle and it is vaguely enforced as inheritance taxes. A man is disgraced if he dies wealthy, provided he hold that in principle he ought to die wealthy. But of course his family and others may have act- ually earned some of the money that is merely nominally his and should be awarded that part (as a right, and not as a gift or "bequest," in whatever amount or percentage the majority thinks just). Clearly, to give a child wealth so that he need not ' work," or may have advantages, or op- portunities" (or whatever else the euphemism may be), is (1) to cheat the people out of money that they overpaid, and (2) to cheat the child out of a chance to live just that amount of life (for in order to got rid of that wealth he has to rest" and die inwardly in an amount corresponding to that wealth — he truistically having to pay for it, and that being the only way left him to earn it). The son who inherits his father's wealth is as pitiful an object as a son loaded with his father s surplus fat, assuming the foolish father could devise means of fastening that fat on him (the simile is grossly vulgar: so is the inheritance of wealth). There being no exact science, obviously there will never be any general agreement as to how much the family of a deceased rich man has earned and how much infancy' care his children should receive, and how much ought to go back to the state. If the simple prin- ciple is accepted, I think it safer to let each rich man decide his own case, subject to revision if much disagreed with. o. It is obviously just as immoral for a man to want to die in debt, and without paying his family (especially his wife), as it is for him to want to die wealthy. Most men §168o XVIII Three UNIVERSE recognize that side of the truth. Sometimes society decides that it has not paid the man enough, and morally discharges the debt by pensioning the man or his family. Truistically, the man should not have permitted himself to be thus under- paid, and society should not make a mistake that requires such correction. But it is obvious that these money measures are in such a primitive state of uncertainty and vagueness that it is scarcely just to criticize anyone for making a mistake of a fairly small percentage of his total earnings in either direc- tion. Problems of fame are even more uncertain than those of monoy. The outstanding qualitative one is of course obviously solved rigorously :- that it is immoral for a man to desire to leave a hereditary title to descendants; his descend- ants are immoral to accept it, as are the public who approve. Such titles are an attempted dualism. p. There are some people who fancy the world owes them a living — owes them money and fame enough to permit them to survive, regardless of how they work. Truistically, such people in effect assert that they have a right to rest all or most of the time, and do no work or little. That is para- sitism, being an assertion of getting something for nothing — an absolutely wrong, immoral, impossible principle (§§88, 114c, etc.). Frequently the delusion that the world owes him a living takes the form:- that one man deserves as much fame and money as another — that men are quantitatively equal ; that is obviously wrong and impossible for the same reasons (it is considered in detail, as a form of socialism, in §175). My observation of the world have been that those who hold such delusions are the submerged tenth" (or are becoming members) — people who are so nearly worthless and unreliable and generally obnoxious that they richly deserve to starve to death (which they usually do do, in a slow way). Further, the submerged tenth are so callous, unfeeling, and generally defective in nervous action that in my best judg- ment it hurts them much less to starve than it does me to have to notice such unlovely beings. It is quite true in a wide sense that nature, including us and them, has made those nasty beings what they are ; it is also equally true that nature, with finally beautiful consistency and justice and fit- ness, is now eliminating them without much pain to them by starving them. The fairly correct judgment or meas- ure of the deserts of those dregs of humanity is:- I see the process of their elimination, and in my nervous system there is pain from their squalor; they themselves are considerably more comfortable in their condition than I am in seeing it (else truistically they would struggle out of it). (They all the time have the very mild pain of degenerating, and I have it only when I have to notice them; hence, although my pain is more intense, they have pain and its causes longer (T), which kills them more effectively than it does me.) So be- cause I can not practicably help being always in indirect contact with those slum-dwellers and lazy casual laborers and shirking dregs (they breed crime, and disease, and dirt in general, which can not be even perceptibly isolated), I desire to give them enough money, love, etc., to make their condi- tions fairly tolerable to me, in return for my trouble. But, obviously that is a selfish activity on my part. Those dregs are so obnoxious that I selfishly slow up the rate at which nature is eliminating them. The good which I get out of that selfish action is that I keep my perceptions keen and uncalloused by avoiding subjecting them to the sight of too intense misery (misery from my point of view) : those dregs have to pay for my improvement by dying more slowly. They fancy of course that by their whinings that the world owes them a living, and other misapplied One conclusions as to the equality of man, they get desirable pay. In the same way there are some men on earth who richly deserve hanging. We are selfish when we do not hang them; for the real ob- jection to capital punishment is that it badly destroys the nervous systems of those who have to do the killing or see it; so tee, for our benefit, avoid killing when we can. I am aware that this paragraph sounds a little unconventional at first. But I think the reader can readily see that it is a point of view that conduces to the widest grasp of facts as they are. Of course, it is correct to take the other point of view that theoretically we can ultimately lift any given hobo or all present hoboes (in several generations, if required) to a quantitative level with ourselves. Certainly we can; we can also make a Venus of Milo of mud, and then turn it into marble. But by using marble already available, or working with more promising human material, we can do much more. While we were uplifting the given hoboes a new crop would grow from our neglected children. We simply have to do what we can to keep those dregs from damaging us : to re- move from them all hope of patronage' will itself in con- siderable degree stop such damage (§l76g). Given a steady climate the standard of living steadily rises. The submerged tenth (as a result of the efforts of geniuses who entertained no parasitic delusions) now live physically as comfortably in this country as the wisest people did three or four centuries ago (and those dregs do not profit by such op- portunities). But truistically there must always be, as long as there are men, a zone or difference surface of mankind, composed of men merging into organic structures of other orders (dying off): it is merely the infinite regress. Such a difference surface, by absolute principles, is at (or is) each end" of society:- being the aristocratic upper ten" at one end, and the aristocratic submerged tenth" at the other end. So regardless of how much we raise the standard of living, in the very nature of things those two degenerate or dying zones or ends or difference surfaces of society re- main — that being a truism. It is absolutely impossible to remove such zones. If we rescue" one hobo, or one finan- cial pirate (i. e. , educate him as well as know how :- make his brain of mud' grow), and get him thus into normal hap- piness, we have to neglect rather painfully and unjustly to them perhaps a dozen fairly normal persons so that they start slumping into one of those dying zones. q. This section gives only the outlines of the theory of values. The last paragraph would require a volume to notice merely the details we use daily. E. g., it implies that the principle truistically is that "punishment" should be auto- matic or natural (the offender's attention being called merely to that automatic reaction), and never be the formally capric- ious fiat which punishment is dualistically supposed to be by aristocrats (§173b). And that shows that the top scum and the bottom dregs — the two aristocratic ends — are not essen- tially evils: they are. the natural results or punishment of certain sorts of living, and are useful in teaching us how not to do it. We have to pay something to learn, and we pay by being annoyed by their presence. §169. a. We have seen that morality consists of con- sciously maintaining a balance from a Many aspect, that re- sulting in more or less vivid religious experience or Life or gain of power in a One aspect. But obviously, that point of view of ethics is mostly a personal or subjective one — a state- ment of how we view our own happiness, or get it. We now see a short equivalent statement of how we view such morali- ty in others. Such 'objective ethics' strictly is sociology. b. We first judge the morality of others, and then com- pare that morality with our own. That truistically amounts to putting the appropriate conventional names into our ethics equation Unselfishness. . . X Selfishness. . . =Happiness. c. As there can be no exact science, it follows that no 221 UNIVERSE Three XVIII §169g one can be perfectly temperate no matter how hard he tries to keep balanced. So truistically we should tolerate in various degrees a quantitative failure of others in temperance. As a One proposition or principle, as all action in the universe is finally balanced (§114c), we should, as a truism, tolerate any quantitative departure from temperance in others, as it is only local (§25c). But such departures have for us zones of pleas- ure, pain, death, etc., just as our own acts have (Fig. 163b). So we in Many practice must (if we care to preserve our- selves) limit our toleration in quantity by the principles of §168. But so long as the other person does not consciously intend to hurt us by his departures (except perhaps for what he thinks is for our benefit), we must in principle tolerate his acts if (l) we have any available means, in case we disagree with his judgment, of separating ourselves from him by enough space (making L greater), or-and (2) can make T brief enough for us to endure:- for obviously, the extensity and intensity for us of his acts can be lowered by such with- drawal on our part until they are easily bearable by us. So the general Many principle of toleration is to increase L and decrease T with respect to the acts of others who try to be temperate. If the other person is practically unable to con- trol his acts even though intending to do so, and we ourselves are practicably unable to move away from him, then we effect the needed increased L and decreased T by putting him in jail or an insane asylum, in accordance with the guesses at measures of the majority (§171k). In the case of married partners such a needed change obviously may, and in principle must, be provided by divorce. And so on. Clearly there is a vast science of toleration (of the best ways of getting a balance, Others' actions... (<— Toleration-^) Our actions... =Happiness of society) omitted at this point. d. We shall next consider toleration from the One point of view. If any man consciously asserts that he pro- poses to make either factor of any That. ..X This... formula become either zero or infinity, then he verbally is absolutely wrong in principle — he asserts that the One is something other than what it is, denies God; and his assertion is abso- lutely intolerable. In short, he in effect asserts that we must stand from him some infinite action, and he is verbally infin- itely intolerable. As an actual fact, he cannot perform any such infinite action: his logic is silly. But of course his conduct is then formally unpredictable, and in principle intol- erable. Formally or in principle or from a religious or One point of view, any dualism is intolerable. There can be no compromise with formal error. That is absolute. And when the dualist insists on acting so far as he can according to such lawless assertions, we are absolutely justified in killing him, and are morally obligated to do so if it is not practicable or convenient to restrain him otherwise — that being a truism too obvious to need explication. But of course it is usually easy to restrain such foolish or insane persons, as their weak brains make them generally weak : for our own well-being we ought selfishly to avoid killing except as a last resort, as it is too crude and violent— as I happen to know from direct observa- tion of numerous killers and killings, and as the reader can readily verify from history if he suspects the obvious theory and hasn't made the observations. e. It therefore follows that socially we have a balance of rights and duties, of pay and work, of privileges and obliga- tions, thus :- Rights. . . XDuties. . . = Privileges. . . X Obliga- tions... = Ethical or natural law {or Legal law, if those are legal rights and duties)= Liberty, Equality, Fraternity , Freedom, Law of humanity, etc. That equation indicates the general prin- ciples of those much-discussed terms; those principles are merely various points of view of the general That...X This... formula, and I shall give only a few further suggestions about them, putting those suggestions in terms of freedom of speech, — the principles clearly applying to those other terms. f. In a One sense we obviously in our ultimate capacity as God can say anything we like. So truistically we have One freedom of speech. In a logical Many sense, compared with the One sense, there can be no freedom of speech — it being determined absolutely, by the same prin- ciples that the Many will is (§157). We practically use the equation Freedom of speech... XDuties or obligations of speech... = Law, or Contracts. There, of course, free speech by technical logic is not free ; but practically, obvi- ously by that equation (or natural law) we as individuals have complete freedom of speech if we want to tell the truth and also want to tell such truth as is quantitatively tolerable to the majority as well as to ourselves. (E. g., it would be painful to our skin-bounded selves to talk all the time ; so we do not want to. But obviously, if we stop to sleep we personally have not absolute freedom of speech — although we do not regard such actual restriction as any restriction on our Freedom of speech... .) If we do not want to be truthful and temperate in speech in that way (or haven't the ability to be so), then inevitably the other men (if they are to sur- vive, be moral, etc.) must constrain our speech in some de- gree—for they, like ourselves, have a One right to a just or balanced sum of speech into Social contracts or unification. Speech from us that is tolerable to others and fairly accurate under given conditions of L and T, may become painful to others or-and somewhat untrue with different L and T. That principle is usually tacitly accepted — definitely and glaringly so in time of war, when men have neither the energy nor the time to bother with much intemperateness of speech in an obvious minority. The principle is simply one way of say- ing mass varies with velocity. So we, from our point of view, are as a general rule (are, except when we use initiative) moral when we conform our speech and want to conform it to the limits of toleration of our neighbors. If it pains them to hear certain assertions, over or below certain amounts of speech, or certain speech in certain places or times, then (l) courtesy or minor kindness, (2) good morals, and last (3) the statute law, make us want to conform, or constrain us to conform, to their measure of nerve toleration (Fig. 163b). But, there is the other side of that Many balance. Our neighbor may be badly wrong in his estimation of the truth, and so narrowly tolerant of any speech but his own as to indicate brain defects (cf. the lese-majeste laws of the late kaiser). All aristocrats — Bourbons, reactionaries, autocrats, incompetents, parasites, hysterics — consistently hate criti- cism to such an abnormal degree as to try to restrict the speech of others, while trying to retain for themselves the right to speak recklessly. So at times it is desirable that the moral man take the initiative, and with carefulness and tern- perateness, exceed somewhat the traditional limits set up by those defectives, and pain them by his speech, if that speech is designed to be useful to the majority of people. g. There is another aspect of the problem of measuring the freedom of speech. We may consider that aspect in readily grasped concrete terms, although the principles will be obviously general :- If the authorities of a college hire a teacher, they evidently have the right as a rule (unless there is explicit statute law which asserts that it is not to the best public interests — and there may be such law in places, and it is an interesting quantitative question whether the Constitutional provision for freedom of speech is such a law) to require of the teacher a constraint in his speech that is in their opinion in keeping with his official position, and also in fair agreement with their own views of the truth. They pay the teacher for his speech, and the}' clearly have a right, §169g XVIII Three UNIVERSE \f they demand it (and if the majority have not decided by law that it is against public interest; §17 Ik). (The teacher does not have to accept such a contract, and of course should not if he does not agree with the authorities ; etc.) But, if they demand that constraint in speech they should put it explicitly in the contract that they do; for the teacher obvi- ously has an equal right to take it for granted otherwise that he is constrained only by the usual laws about speech, and there is a presumption that the authorities are the high-grade tolerant men described in the next paragraph, and are not too cowardly to put any such requirement in the contract or so stupid as to forget to. Also, although if they de- mand it they have an unquestioned right to require such re- stricted speech (subject always to what the majority say is to the public interest: it is possible that the public will soon hold that the Constitutional requirement of free speech applies definitely to a quasi-public institution like a college), they truistically have to pay these prices for the exercise of that right:- (l) No intelligent person can believe that such a restricted teacher is always stating what he believes to be the complete truth (as a truism he has no right to, and his credibility can not extend beyond his restrictions). (2) The teacher to be comfortable may not inquire or observe beyond the limits of his restrictions. If he does go beyond the authorities limits he is in danger of finding that he is not speaking the full quantitative truth. So he is often narrowed to those limits — not necessarily so, of course; unusual men have energy enough to take a chance on being uncomfortable and resigning or being discharged. (3) The authorities form- ally set a limit on their own growth or lives, and forbid any useful criticism (perhaps they may welcome" private or secret criticism — which is easily pigeonholed), and similarly in effect forbid any progress in their school. (4) They in some circumstances (not in all : it is a quantitative matter) in clear effect assert to the world that they are not strong enough to bear the possible truth about things ; and also that (under some circumstances) they haven't enough sense to select a teacher who will talk with judgment, discretion, and courtesy — or the courage and will power promptly to admit the occasional mistake the wisest authorities will make, and discharge the temperamentally unfit teacher. Clearly they have to pay those various prices, subject to the various actual circumstances, whether they wish to or not: there is no way to get something for nothing. h. Also, there is a price automatically extracted of those who insist on too much freedom of speech — of the teacher who fails in fitness and courtesy. If his words are of so little weight, exert so little force, that he can expect to speak them quite freely, with no appreciable sense of responsibility, then he has advertised them as being in his own view practi- cally worthless. Truistically the highly moral person (the genius; §159) conforms to the following rule, which de- fines what freedom of speech (and analogously, any other liberty, right, or privilege) means to him :- He has such a wide personal limit of toleration that he pleasurably receives all the words that others wish to say, on the basis that none of them can exert enough force to go beyond the limits of what unduly pains and unbalances him, but that all he has time to attend to, especially the adverse ones, can teach him something — even if no more than that the author of them is pathological. But with respect to others, he will carefully weigh his words (without overdoing it and becoming n pre- cisian or other variety of prig who underrates his audience by fancying that they are unable to enjoy an occasional stiff jolt), so that they will serve to give pleasurable and healthful activity to normal people. In short, the moral genius allows others all the freedom of speech they want (he may point out but he will- 169h that careless freedom will harm themselves) ingly and enduringly severely restricts his own. And the aristocrat is opposite :- He allows himself intem- perate, exaggerated, dualistic speech — swearing (§43k). But as we saw, he wants others to restrict their speech, and above all to refrain from any criticism or verbal opposition. The aristocrat is "touchy" and personally secretive, like an old-style diplomat, and inordinately sensitive to criticism of himself — which although superficially contradictory to the fact that his brain is narrowed, is seen to be consistent when it is considered that what brain he has is strongly exercised on his own ego. The aristocrat is often unable to recognize his neighbor's existence until his neighbor makes a slight criti- cism that would not trouble the normal person; but then the aristocrat observes the criticism with painful intensity. That queer but consistent susceptibility of the aristocrat or parasite accounts for the curious thing known as Society," which with superficial paradoxicalness runs on the they-say s of servant girls, waiters, and rumor. But at the same time it is quite possible that (say) the authorities of the col- lege could properly consider that they had not time or ener- gy to attend to any sort of disagreeing views. A censorship is desirable in certain circumstances. But in most cases a censorship is probably immoral, and indicates that those who establish it and those who docilely and weakly submit to it are aristocrats — at least that is what the Constitution implies is the view of the majority in this country (§173). §170. a. We saw under biology that the race has auto- matically in its progress and as a marked part of the progress divided into, reacting sexes, Female... X Male..., which are quantitatively perceptibly different. We saw under ethics (§166) that the conscious reaction of the sexes then truistic- ally gives the maximum of life in normal cases, and hence the maximum of morality or happiness. (There is no abso- luteness about that quantitative proposition, which is a state- ment applicable to present conditions ; under conceivable conditions perceptible differences in human sex could disap- pear.) And as a further ethical truism, we saw (§167k) that maximum morality or democracy requires that in all reactions we consciously recognize the quantitative differences of the two parties or factors. So as an obviously circular or rigor- ous truism, we need a general theory of quantitative differ- ences of human beings as a general basis of being moral — as i69h e, g_ t this book would have been easy play to write if I could have written as many words as I thought of — letting loose without regard to a complete fair balance and emphasis. But often it re- quired painful nerve tension or concentration to condense and save the reader's attention while at the same time making no omission of important points, and getting what seemed to be a fair balance of emphasis. The degree of success with which I accomplished that general quantitative balance while at the same time avoiding inflict- ing any of that tension on the reader is the degree in which the book is "literature." In my judgment that degree is low. But the point of the example is that the principles of freedom of speech give the standards for determining what is "literature." Incidentally, the only way to conceal that tension from the reader — to make the book seem easy, simple, natural, and true as a matter of course — is not to have it. And the only practical way not to have it is to keep thinking hard just what you do mean — if anything— and rewriting it; after enough of such work you are really thinking clearly, and naturally can say it easily, with no tension. The difficulty with this book (or with any similar scientific book) which stops its being liter- ature, is that as fast as I work out something clearly then I intro- duce the next step, which isn't clear and shows tension and lack of "finish." There are numbers of sentences in this, the umpty- somethingth, version which have no appreciable meaning; so if you strike a doubtful one it is not safe to judge that I meant something or that I didn't. A thought for literary experts:- nature is never neatly finished and dead like Henry James, or largely full of crude raw material like Whitman, imagists, futurists, impressionists; nature 'tries' to be finished enough to still keep going; so maybe this book is a species of literature. 223 UNIVERSE Three XVIII §170d was also shown in §1671. We have implicitly seen that such a theory is the application to humanics of the law mass varies with velocity, or is an application of harmonic periodicity ; or more definitely, the increased use of money as a symbol of human measures is the application of such a theory (named economics) ; and finally, in practice such a theory of quantita- tive differences in human beings is given by jurisprudence (XIX). Obviously, those various aspects of the theory of human quantities imply its complexity — the numerousness of its perceptible details. But it is imperative if we are to suc- ceed in life that we not only have some clear knowledge of that theory, but that we apply it. b. So throughout this book I have been trying to show clearly the general ways of estimating human characters. To do that I have used three rough classes:- (l) The first class comprises those who successfully try to be temperate and balanced — moving in cycles of activity and rest so that the activity and rest perceptibly balance. (2) Then there is the fringe or zone of dualists or aristocrats on each side of the first class, made up of those who go too far in both rest and activity, acquiring a steady accumulation of either too much rest (parasitism, loafers), or, at the other end, too much activity (egotism, power-madness, hysteria, etc.) — and some- times both, in succession, like manic-depressive insanity ("Ency. Brit.," xiv, 60S). This class is not normal, but is not usually considered to be pathologically abnormal ; so its members are in practice considered to want to be unbalanced and hence to be responsible for their unbalance — although in a broader view nature is merely killing them off, and ulti- mately the universe is concerned and responsible. (3) And last there are the definitely pathological persons on each end of society, who are insane and considered irresponsible. Those aristocrats in class (2) and the pathological varieties of them in (3) are the same sort of people Christ called scribes and Pharisees (Matt., 5, 20; 12, 38; 16; 23; Luke, 7, 30, etc.; 20,46; 11; Mark, 3; 7; 8; 12). I have merely been more definite about them, used their modern names, and shown the biology of their defectiveness. I have not "condemned" them, but I have shown that the universe is simply destroying them. And I have been more accurate in my descriptions than is the Bible. We saw that truistically there must be those abnormal classes at the two ends" of our race (§168p), just as there are painful zones on each side of normal activity (§163). In a wide sense it is beautiful that those abnormal classes exist (§25c): for as we saw, they are needed to show us how not to do things, furnishing evidence of what would happen to us if we became intemperate. I know quite a lot about those abnormal classes from direct ex- perience in being intemperate in numbers of ways myself. c. But the statement of those broad measures or classi- fications of people may be profitably extended here by a brief practical application of the theory of human measurements or character judgment to normal people. Our perceptions have to be keener in judging such balanced people, for truistically there is less variation in L and T to be observed in them. So we may note the general differences between woman and man, as a general example of normal human measurement. d. The basis of all measurement is L and T (Part One). So we observe man and woman with the purpose of finding in what fundamental way their activities have a perceptible difference in L and T; and when we note a definite variation that holds for normal persons we have the total theoretical solution of their quantitative differences. Obviously, that same principle applies to the finding of the differences m all other human classes: the principle is merely the truism that a property or characteristic is an L and T difference. Or, we can take this view of what we are about to do:- The foregoing ethics has in general been static or abstract," or theoretical' in the conventional sense of not being directly used as a whole. We are now going to summarize concretely or get some dynamic ethics (in popular estimation, I am defi- nitely rushing in" — dynamically — where angels fear to tread). The obvious L and T variation between man and woman that always normally occurs (also, in principle the variation is a truism of the theory of sex, §146), is that the sexual cycle of woman is longer or slower in T than that of man (or physiologically definitely involves more biologic L). The total normal cycle of woman obviously includes copulation, pregnancy, and birth and suckling of the infant — a matter of months; — whereas the cycle of man is, so far as is similarly perceptible, surely not more than a few days, and is practically only a few minutes. 170 So it is obviously truistic that as a whole the nervous system of woman normally works more slowly and hence less intensely than that of man. Therefore, woman's nervous system as a whole is more inte- grated or strong, is more stable or extensive, or extensively unified, so that she is of a more child-like or undifferenti- ated" type than man, and does not react so violently with the environment as man, but can endure more of a long- continued reaction with the environment than man. Clearly all those general traits of women are merely truisms of our original observation of her slower sex cycle. And those dif- ferences between woman and man are I think usually agreed by most observers to exist. E. g. , the final and most remote truism we just got is that woman can endure a longer reaction i70d That of course implies that copulation for a woman is not of itself what might be called a practically satisfying act — implies that she has no orgasm in the sense that man has. I know of no di- rect proof that such is a fact, although it is obviously theoretically a truism; appropriate measures of physiologic processes, such as blood pressure, would probably give such evidence. But there is ample indirect evidence that copulation perceptibly alone, does not satisfy the normal woman; some such evidence is given, e. g., by various nervous abnormalities of prostitutes — or by the very fact that prosti- tutes are female rather than male. The proposition is clearly quanti- tative, and what is quantitatively true of it in the present age by no means was fact in the past, or need be in the future: e. g., in many fishes the sexes would theoretically have a practically equal (and 'fin- ishing') orgasm; and man was once a fish, and theoretically can again be one. It seems probable that just now man and woman are tending to become less dissimilar in immediate results of copulation (more "human," or alike, in the terms of popular man-woman dis- cussions) ; but that is a rash guess, which even if correct now might not continue to be true in slightly changed conditions. I men- tion those vague suggestions, for which there is slight direct experi- mental guidance, to show how much variation is possible. E. g., it is probable that for twenty or thirty centuries women have been de- veloping more and more a definite orgasm; some trends of history seem to show such a change — a comparatively rapid one to be thus perceptible. And if that is true, then the most important quantita- tive change and hence cause in history — the chief "key" to history — for that period would be that relative change in man and woman . As a fact, some historians think that the most important key for that period is the rise and decay of religious systems; it is shown (par. h) that woman is chiefly responsible for man's perception of religion (the theory of the morality of marriage, §166, implies it); so truistic- ally religious changes are themselves due to relative changes in man and woman. Thus sex biology may serve to show a clearer history. — — Truistically, any That...Y.This... formula may validly serve as a base of history, or quantitative description of the past of this earth (which usually includes mankind as the chief object of interest). The "best" history is the one which uses the most vividly familiar and perceptible terms ("facts") for the two factors (provided they are not too vivid). It is generally agreed now that history should be more vivid and familiar or "real" than it has been made — especially that Kings..., Generals..., Priests..., and such terms are rather frothy (are merely the scum that implies the deep, important, familiar flows of history), and hence give history that is not especially relevant to the actual understandable factors, such scum being only superficially vivid. Also, history based on kaisers and such scum truistically is pathology; so necessarily it is as unpleasant as listening to a poor hysteric detail her symptoms — and analogously, mostly isn't so. §170d XVIII Three UNIVERSE 224 with the environment: and that is usually in quite percept- ible agreement with comparative death statistics, and with the generally accepted fact that women are more patient. e. Those immediate general truisms are obviously easy to get. They refer to the whole nervous systems of woman and man. But when we estimate a person's character we divide it into parts — analyze' it. So we must now make a step often confused in people's minds. We change the point of view from the total or the large standard universe of Environment. . . X Woman. .., or Environment. . . XMan. .., or Woman... XMan..., to the smaller standard universe of Other parts of woman {or man)... yCGiven parts of ■woman (or man)... . As soon as we do that we note that we may use the ordinary psychological equation for woman (or man), Emotions... X Intellect... =Nervous system. We have observed that woman's nervous system is comparatively stable as a whole. We have seen that the larger part of the nervous system is concerned in producing emotions, and that only a small part (perhaps a part of the cortex) is concerned in pro- ducing conscious intellect or perceptions. Now, because it is a truism (the total argument or thesis of this book) that any That...y.Tkis... does ultimately exactly balance, then Emotions. . . X Intellect... must theoretically balance in a given person, regardless of which of the factors is most easily per- ceptible. So it follows that as woman's nervous sj r stem as a whole is slow, then the larger part, her emotions, must be slow and steady and sure and stable, etc. ; and then that her intellect, in order to balance that in the long run, must be fast — or is intense, weak in a broad sense, jumps at conclu- sions, sees details excellently but begins to be unable to see details when they extend widely. f. In precisely the same way, man's emotions are fast, intense, unreliable or undeveloped over a long time (com- pared, of course, with the average woman's), not so enduring as woman's, not very perceptibly unified or religious, fickle, violent, etc. And his intellect comparatively is slow, strong, steady, controlled, extensive, "thoughtful," "reasonable," unified, cold, hard, persistent or reliable, or philo- sophical" or inventive (i. e., abstractly religious). g. Clearly, man and woman are in general the reverse' or complement of each other. As soon as we consciously follow the theory of quantities by using specific That...Y. This... formulas with definite observation of just what sort of universe we are considering, it is easy to keep consistent even in such a puzzling problem as that of the nature of man and woman (and below we proceed with more details). In fact, it is almost too easy, for I readily get verbal contrasts between the two which sound as if man and woman were as different as night and day; but actually the two are so much alike, just as all human beings are closely alike, that it is often impossible to perceive many of these quantitative differ- ences in a given couple. So the reader is requested not to take these clear verbal differences too emphatically quantita- tively, and to note carefully that all the practical conclusions I draw are obviously based on my clear recognition that the differences in man and woman are quantitatively slight usually. h. It is clear that woman, by slow, steady, reliable uni- fication of emotions (in practice, by the application of them to the holding together of the family and the property of man), has in actual effect had more to do in directly establish- ing religion or civilization than man has had. (E. g., it was seen in §gl55f, 166r that women today are foremost in expressing in a directly applicable way [par. j] fundamental advances in religious practice. Even Taylor's scientific man- agement is not such a direct or humanly familiar and appli- cable binding together" or religion as Mrs. Fisher's books.) Obviously, all the great religious or human generalizations or conclusions have been first formulated by the emotions of woman, and weakly or "intuitively" expressed by her com- paratively poor intellect. And a superficially queer thing truistically resulted and still results from her poor in- tellectual expression of those generalizations. She was not able, because of the rapid and weak way she jumps at intel- lectual conclusions, to state or observe clearly consciously or intellectually the relationships between her various conclu- sions — she can not very well come to the point. So she used an apparently dualistic logic- — one omitting formal assertion of identifying relationships. (I. e., woman actually is formally logical in a classical sense : man does not natur- ally tend to use classical logic, but was so overwhelmed with the truth of woman s emotional conclusions that he formally copied woman's curious logic, which when considered explic- itly and intellectually, and not emotionally or vaguely con- sciously [§17cd], is invalid.) So when woman had two general conclusions, she could not intellectually or consciously directly relate or identify them ; hence she would intellect- ually ignore them, allowing her emotions to work on them, and soon they would automatically pop up into consciousness in a related or run-together condition — telescoped together, so to speak, precisely as the classic logic works it. And neither she nor man knew how it happened — could say how it happened. So man with his steady intellect objected to that unconscious method of telescoping, and asserted sincerely that woman has no soul (in recent years it has been the mild- er assertion that woman is illogical — that being asserted in the face of the glaring fact that woman uses the classical logic man professes to use). It evidently does follow that she was not conscious of her mental processes : and as soul substantially means consciousness, it superficially did follow that she had no soul. i. On the other hand, man, with his comparatively strong intellect, appropriated the general conclusions obtained by woman and strung them together (by the invalid classic logic — his very using of which is truistic proof that he didn't know how to get the conclusions he appropriated). He called that intellectual doing reason," or religion, or science, or law-making, etc., after the fashion of the day, and claimed that it is a superior process, and that he therefore is "superi- or" to woman (formerly it was the essentially identical but verbally more emphatic assertion that woman has no soul). And woman in effect accepted man's criterion of general superiority." Even yet all but a few rarely wise women (and truistically they can't express themselves clearly) accept that intellectual criterion of comparison as being correct and essential: e. g., the "advanced" woman, the extreme fem- inist, asserts her equality by specifically claiming to be intel- lectually the same as man, and proceeds to "prove" it by being intellectual" (a few typical examples are given later). It has been seen to be truistic under present conditions that in general woman can not equal man intellectually (of course numerous individual women intellectually excel the majority of men) ; the historical fact (so glaring that even some of the advanced" women have enough intellect to see it) is that there are no women intellectual geniuses who begin to be in the first class (some of those "advanced" women then whine that woman hasn't been given an opportunity to be a gen- ius intellectually— which shows that they are intellectually incapable of grasping the simple generality, or seeing the often glaring fact, that genius pays for all the opportunity it ever takes). The rigorous principle obviously is that intellect- ual superiority, which by customary meaning of words is as a rule man's, is not a complete or essential criterion (woman is superior in emotions, which, as we shall see, is a variety of genius just as important and necessary and praiseworthy). UNIVERSE Three XVIII §1701 That superiority is merely man's ostentatious, showy, some- what superficial, secondary male characteristic like the similar proud and arrogantly displayed tail of a rooster — and nobody claims that his tail makes the rooster superior to the hen, although as a tail the rooster s tail is superior to the hen s. j. The question of superiority" is the quantitative one of direction: as we saw in §99, there can be no solution" of it, as it is merely an agreement as to methods of measurement. There are no absolute directions, and so men essentially are neither superior nor inferior to women, but are merely quanti- tatively different. The same principle obviously applies to all races" of men, etc. : they are quantitatively different. Whether one is superior to another depends entirely on what is agreed as to arbitrary directions. 1703 In the case of woman and man, woman is superior in Emotions. .., and man in Intel- lect... . Woman does the usually unnoticed foundation work, patiently stabilizes the important everyday things of life, half-consciously formulates all the fundamental religious rela- tionships and turns them over to man, and gives a practical example of normal, useful rebirths. The man does the in- tellectual expressing of the further formal or logical union of that essential foundation work ; it is a less extensive work, but emotionally intense, so that man notices it and makes a lot of talk about its and his superiority. For an example take this book. I make some vivid, wide generalizations that are emotionally intense, and which require a cool, enduring intellect (I notice that even some men who merely read it can't keep cool — moderately judicious); and by bygone ideas I would receive credit for far superior work than could be done by woman. Well; nw generalizations are useful and did require intellectual steadiness; but they are substantially slight and indeed almost negligible in comparison with the vast foundations of facts and relationships established by people before me — the valid greater part of such substance being furnished by woman. I merely happen to do the spec- tacular showy part; but I personally am under no delusion that it is superior' to be show}'. k. We saw that maximum morality requires cooperation and hence fairly accurate judgment of woman by man, and vice versa, and a primary knowledge that in cooperation the two reacting parties are not quantitatively equal. It follows :- (l) that cooperation, or maximum life under given conditions, required that at first man and woman be comparatively much different so as to force the perception of the differences of W and M (in W...XM... of §167b) upon each other— that the 17 °i I judge that the differences in various races (white, black, etc.) may best be summarized by saying that they are perceptibly different in virtual racial ages. They are different quantitatively, just as a boy is different from an old woman; and there is obviously no question of essential superiority. For precisely the same reasons that children born of a boy and a woman of forty-five are likely to be not of the best inherent quality, and are also likely to receive inferior nurture, intermarriage of differently aged races is in some degree ob- jectionable—although some things resulting from refraining may be more so (§176h). However, the conditions of life of a race make the race virtually grow older or become younger, just as a galaxy fluctuates in virtual age (and as can a person in considerable degree, though not nearly so much). So it is possible to make the races ap- proach, some fair equality of age. It may become necessary to do it; for as we improve our tools it becomes more and more impracticable and immoral (a waste of life) to keep the races "pure" (§176). If the races are to be kept somewhat pure, then the earth s population must be kept less. The population in a better and wiser civilization than we have achieved will have to be consciously controlled, instead of being, as now, more painfully controlled by rain, potato bugs, power-mad statesmen's wars, etc. Those are questions largely for future men; they can best be solved by the people who are to use the solutions. We rather unnecessarily trouble ourselves when we undertake to solve such quantitative problems for the posterity that is more than twenty years ahead-and about one man in a million can make a sensible guess that far ahead; and I am not that one. man be intensely male and the woman intensely female. (Before such sex differentiation occurred, the environment was similarly intensely different from the rather undifferentiated or rather non-sexed individuals — the same principle, giving amphimixis of individuals after several generations, etc. ; cf. §146.) It follows next (2) that the perception of such wide and easily seen differences of M and W made M and W pro- gress so that they could see, and react to, less differences : then they would be pained by such great differences. So it results as a truism of (2) that M and W normally, or in the course of that progress or increasing" civilization (attain- ment of more delicate differentiation under fairly steady cli- mate), tend to have less wide sex differences. To abbreviate that complete cyclic statement of progress" given by (l) and (2) :- all human phenomena with steady climate tend to approach a balance perceptibly (that is obviously identical with the theory of genius, §159). So, as an example, the genius, the properly developed person, will more and more tend to stop bragging about his or her extreme sexuality. Stallions and some male savages have to be kept away from the opposite sex ; but in this reasonably civilized country even young men and women associate to their mutual benefit. And that tendency of the sexes to become less violent- ly different — of each sex to become more of a balanced gen- ius that includes in itself much of the other sex — is obviously accelerated by woman's make believe that man is superior because of his intellect (wise women are practically conscious that is a make-believe, and smile kindly at the man, or the womanlike Mrs. Atherton, who takes intellect very seriously), and by her trying to imitate man's intellect to some extent and to do some of man's work, such as voting and other- wise wrestling with the extensive environment (where even the strutting male frequently comes out second best; note the infant manufacturers who wail to the government for suckle and protection from bad men in a cruel world). Clearly, that makes the woman understand man better, and enables here to cooperate with him, and is moral provided she does not overdo it and really fool herself with the exagger- ated feminism of Mrs. Atherton, that obviously tends to dualism, with the practical conclusion that men and women conflict. But balanced feminists like Mrs. Fisher, Mrs. War- ren, Mrs. Vorse (§166r), who both believe in being women first, with woman's superiorities, and act on that belief, and who then try some of man's intellectualities in order to un- derstand man better, are truistically the best sort of women there can be (and incidentally, the intellectual work is good, as it has a sound, honest base). 1. The man's idea that his intellectuality makes him wholly superior is rather silly, and so mildly immoral. But the man has a sort of make believe that is the counterpart of woman's. Originally it was called chivalry, and consisted of his claiming to like to practice the womanly superiorities of emotional gentleness or patience, faithfulness or endurance, etc. That helped him become more feminine. And such pretense truistically would destroy somewhat his masculine strength of intellect. 1701 So male chivalry is recognized (in 1701 On the contrary, and as an indication of the consistency of this argument, it is obvious that pretence or make believe (§155) by woman does her less perceptible damage, as her intellect is already of a nature to pretend more or less automatically (which is shown by the fact that it is women who usually have hysteria, which is an un- due exaggeration of this normal feminine characteristic). So we usually do not expect the mediocre woman to be very truthful, though such truthfulness (especially in keeping his contracts) is demanded of the mediocre man, and is beginning to be demanded even of the casual laborer and labor leader and diplomat and press agent. But the mediocre woman is required by the majority to be emotionally stable or reliable, which in practice is translated into the demand that she be sexually chaste, whereas that is not required of the mediocre §1701 XVIII Three UNIVERSE this country at least) as being an offensive pretence or else a meaningless ritual. But men of this country have generally substituted for that chivalry a real belief that women are more or less angelic (§166o). Such idealization of woman truistically tends to make men acquire somewhat the feminine superiorities, and works better than the ritualistic forms of the decaying chivalry. m. From an intellectual or spiritual point of view we may get rid of the objectionable vagueness of such idealiza- tion, and its frequent untruthful exaggeration of the quanti- tative differences between man and woman (which encourages parasitism, and all the less evils that any considerable inac- curacy does), by explicitly recognizing their ability to exper- ience normal emotional rebirths and thus give men religion. The normal woman is angelic, and an essential complement or comfort" or partner (cf. par. p) to man, in that she does not have the vivid and shrill variety of rebirth (with all that implies) of the normal man or of the emotionally narrowed or unsexed" female (usually one who is clearly a hysteric, such as St. Theresa). That normal-emotion, feminine sort of actual genius is not dazzling or brilliant" from an intellect- ual point of view; yet it is fully as valuable in life as the male sort of genius. As a man I naturally take the point of view that it is harder to achieve that feminine genius than to make the shallow even though universally extensive generali- ties which a man can make. So like any normal man I have very little use for the glittering intellectual woman; but I have a profound interest in the talk of a woman who has developed considerable intellect on the honest base of her own superiorities. Women have trouble in grasping intel- lectually or consciously a universe that is much larger than their own family or circle of friends (men have the opposite characteristic; e. g., I have it badly enough to pass my own wife on the street without seeing her when I happen not to be thinking of people). So they tend to pick out a man who can generalize intellectually for their religious guide. So women tend to take Christ more seriously than men do. n. Concretely, man can honestly and practically idealize women, without any danger of making parasites, by under- taking to some extent to feel with his wife the importance of family life, and especially the deep and wide sort of continu- ous rebirth which is experienced in caring for children. For the details of that, see the books of the sound women writ- ers; I have the male incompetence to state them without making a mess of it. Women who use their superiorities readily make a fine standard universe out of their homes (or, of a small circle of associates, if they are unmarried), which is perceptible enough to them to be a very real religion. A man who does not want to attend to those multitudinous de- tails of woman s life thereby implies that he wants to depart from the balance instead of approach it — and hence is im- moral. Men will not have the patience to stand much of that domesticity ; it will be work ; but work is an essential part of happiness, and of course the man should not subtract energy from his intellectually-enduring work, whatever it is. That concrete idealization of woman by men will ob- viously also profoundly discourage the radical feminists and parasites who object to much domestic life — especially those man. In short, a difference in "moral standards," meaning sex standards, is, for mediocre men and women, consistent with facts as they are, and is moral. If the mediocre woman were as truthful and hence intellectually as just as is the mediocre man, she would stop complaining so much about the unchasteness of the mediocre man. That man is more just, and hence makes little complaint of the un- truthfulness of the mediocre woman. That truthfulness in man pays or compensates the mediocre woman for her chastity — balances it. Of course, both, in order to lead fuller lives — be more highly moral, — ought to eliminate their mediocre traits. who object to being personally responsible for the care of children. All female parasites are the lazy women who do not care to use their emotional patience; so practically they dodge personal care of children. They experiment more or less irresponsibly with children, and having acquired obliga- tions, turn the real care of the child over to servants. o. That explicit statement of cooperation between man and woman, with definite recognition of their quantitative differences, is equivalent to the theory, in economics, of spec- ialization (or division) of labor, or to the combined laws of increasing returns and of diminishing returns. These quanti- tative differences of the sexes, from that economic point of view, give the great natural" division of labor that produces the greatest results. We have seen that any machine must have at least two reacting parts before it will work, or logically even exist. If all persons do the same things, then truistically humanity as a whole would not be a machine, or a mutually reacting democracy : there would not be any competition" or love or friction, but merely a zero inter- action of men, and hence no economic product of such a so- ciety' (Parts One and Two). I. e., if we run what is usually called competition to infinity, the race itself merely logically disappears. (It practically would be like trying to run num- erous series-wound dynamos in parallel — and the physicist can finish extending that simile to all aspects of this problem. The dynamos would be destroyed.) If we are all alike eco- nomically, meaning that we in general all try to do the same job (suppose everybody tried to catch fish — and nobody sup- plied water, or fishing gear, or needs for cooking), the prod- uct diminishes to zero — or the race perishes. When numbers of the same sort of bacteria live together, doing the same things, they interfere and their growth practically stops, etc. The same law of diminishing returns is a universal truism stat- ing that the growth of any structure or organization slows up as we depart from the optimum balance of direct action and reaction (it is a partial statement of periodicity ; see Index). On the other hand, if some persons react with others — in an explicit machine, or That... XThis..., — then we begin to get an organism, or a perceptible or increasing product (a mere truism for growth; see Index). The product goes on increasing until there is a balance of "competition" (which does not imply "fighting," but a reaction) with organization a balance of specialization with a coordination, or general growth, or integration of social or any other sort of structure. Beyond that balance the same diminishing return recurs. I. e. , the principle is shown by the hyperbola representing That... X This... (Figs. 104b, 163b). Germany in rough ef- fect tried to make a total specialized organization of the whole state (a military, or bureaucratic, or paternalistic one), and being a vigorous people, blew up into a war; Rome, having largely weak people, went towards the zero side and slumped more or less into nothingness. It was intemperate "effic- iency, or too much organization or centralization ; it was like trying to make the digestive tract [government] extend directly to every cell in the body, which scheme would, to succeed, have to destroy all the body but the digestive tract. When we try to have the government "pass a law" to regu- late every little detail we are destroying the government and incidentally ourselves. Also, every little law adds to the tax Dil '- So obviously, we have the general economic law implied by the following formulas, which are in agreement with our whole argument :- Various organizations or compan- ies or " staffs"... X The specialised men in each... ; or, Special- ties. . . X Particular men in each. ..; or, Increasing returns. . . X Diminishing returns. . . ; or, Capital. . . X Labor. ..; or, Supply. . . XDemand... . There must be a division of labor, or a "ma- chine," or temperance or balance in economics (§§114c, 149, UNIVERSE Three XVIII §170p etc.); otherwise destruction results. I have tried in this one paragraph to give a general outline of the whole of economics. So it is extremely condensed. But as the prin- ciples are obviously identical with the principles of That...X. This... I shall not add a chapter of repetition of them in terms of economics. The reader who wishes to see directly and vividly in some detail such economic principles is referred to the first fifty pages of Reeve's "Cost of Competition." On p. 45 of it Reeve gets a general economic equation equivalent to our That... XThis... equation, although his explicit logic is wrong. The remainder of the book is, as economics, piffle, although it is a beautiful mystic statement of altruism carried substantially to infinity and contains some extraordinarily useful facts. He shows the difference in money price that exists between what the producer gets and what the consumer pays (it is a surprisingly large per cent — probably after making some needed deductions from Reeve's figures amounting now to 50 per cent); he calls that amount, which is got by the middleman, the cost of competition, and proposes that it be wiped out by turning buying and selling over to the govern- ment (which he tacitly takes as being practically perfect in all respects). As a matter of obvious fact (which shows the truistically correct solution of the middleman problem), that cost of competition ' is actually the cost of ignorance, and is borne in rather perceptibly just proportion by everybody :- the producer doesn't know just what it costs him to produce, how much, when, and what to produce, who wants it, when, where, and how much, and how to get it there, etc. ; and the usual ignorance of the consumer is too abysmal to detail in the limits of this book — he wants what he wants when he wants it, he usually resents being asked to use his mind ap- preciably in the matter, etc. The middleman is mostly en- gaged in trying to do the responsible thinking for those two — and such thinking is almost the hardest and highest priced work there is ; — so usually he doesn't actually doit (can't, in many cases), but simply gambles, and nature takes the cost out of him by spoiling his goods in some way. And for reasons so obvious as not to need statement, although the chief ones have been stated, the government is less fitted to do that thinking than are the people more direct^' concerned, and government participation in the affair will not only theo- retically increase that cost of ignorance, but in recent prac- tice painfully did do so. The only solution of middleman costs is responsible thinking — plain, old-fashioned gumption or intelligent and active self-reliance (including some in the middleman himself). Marshall broadly states the prin- ciples of this paragraph in his Book IV, Chap. XIII (he has difficulty in being definite about the One and Many — specific- ally, the infinite regress) ; but his extended application is fine, p. We may definitely come back to man and woman. Clearly, in order that there may be a division of labor so that all persons shall not try to do the same kind of work and so in practice destroy the race, it is necessary that persons be necessarily quantitatively different (that is merely the reverse aspect of incommensurability) : we ought not (as a figurative truism) put square pegs in round holes. We saw that women and men are the two natural divisions of the race for such a primary division of labor, or general specialization. So if we take a married couple as a standard universe, there is natur- ally a specialization of jobs ; but, that specialization can not be complete in practice (an attempt at it gives line organiza- tion, or too much organization, Pauline pseudo ethics, and a burned-up couple). I. e., the man must "compete" a little in being rather feminine, and the woman must exercise some in being rather masculine. So obviously, generally, and in agreement with practice in this country, there should not be any particular line drawn as to what jobs are for men and what for women. A woman would be aboutas useless and misplaced in a life job as a professional philosopher as I would be as a governess. But although some women com- plain that they are barred from industry, etc., I think they could get a job as philosopher as easily as I could one as gov- erness — and I am not aware that any cruel person is stop- ping me from being a governess. In most jobs a woman can not get as much pay as a man, for the simple reason that she is not so responsible or reliable:- her intellect is as a rule not so dependable, as seen; and also, she is not expected to stick to the job, but is expected to marry (and if she does not, or does not get some other job which mostly uses her superiorities, she is naturally correctly judged to be a somewhat wasted and spoiled human being, not of great value). Nobody would be likelj' to stop me if I experimented at being a governess; but I would justly receive an ama- teur s pay and fame. If I tried to make governess-ing my life work, I should naturally expect to be considered a fool for wasting my other abilities in order to be a mediocre gov- erness — but, if I thought I would accomplish really more as a governess, I would stick it out and prove the others to be the fools. The same principles apply to women; I should expect a woman who tried to be primarily a philosopher to fail to do nearly so much as she would in more suitable jobs; a number of practical failures are available as evidence; and I would unhesitatingly call any young woman who started out to be a professional philosopher a fool. But I would not otherwise try to stop her; maybe she would prove me wrong, and make a success at it, in which case I would conclude both that she was a biological sport, and that the female proper- ties were changing faster than I expected. In the mean- time, if I were hiring philosophers I shouldn t pay her more than about half what I should pay a run-of-the-mine male one. That general principle of utilizing the properties of people applies to all businesses and all partnerships. It is simple to use our broad, natural formula Emotions. .. X Intellect. . . to classify all persons on a comparative scale be- ginning with high intellectual strength at one end and going to comparatively high emotional superiority at the other (the difficulty is to guess reasonably accurately where a given per- son belongs on the scale; also, there is another scale of in- trinsic measures of at least equal importance — e. g. , two men may have a good balance of the two strengths so far as it is possible for a male to have, and yet one man may intrinsic- ally have fifty times the strength, power, drive, assimilative- outputing capacity of the other). I used man and woman because they naturally tend to occupy the respective ends of that comparative scale, and thus automatically enter into the widest specialization combined with non-specialization:- mar- riage (which is thus an extreme but sound type of all busi- nesses, in opposition to the unsound line organization). (That comparative' scale is the extensive factor, and the intrinsic' scale the intensive factor of the rigorous theory of human measurement. Obviously they can not be separated ; but I shall not go further into the mathematical theory ; see Index, "Harmonic periodicity.") E. g., of two men, one is more enduring intellectually [perhaps not perceptibly so] and un- stable emotionally than the other; so in a business the intel- lectually strong man should be given a thinking, planning, investigating, imagining, talking, or salesman job; while the other should be in an executive, managing, conserving, buy- ing, organizing, steadying-flywheel job, with general mild wet-blanket duties to counteract the other and make him more useful (and that obviously won't hold if the intrinsic measures of the two differ widely ; in that case the only satis- factory way to get an actual democracy or sound business or- ganization, is to put the weak man in a position in which he §170p XVIII Three UNIVERSE is not expected to give continual reactions; a pygmy can t wrestle with a giant satisfactorily to anybody, and no business title or other hocus-pocus can make a pygmy into a giant; to expect a manual laborer, who usually has the nerve develop- ment of a child [cf. army tests] to tell Ford how to run the business is a ridiculous travesty on democracy or any other aspect of commonsense; but the laborer is competent to say what he thinks about his own job, and such remarks, which he has obvious democratic right and psychological need to make, although they probably mean something much differ- ent from what they actually say, are valuable to the greatest business genius). And actual people do not fixedly occupy a constant place on those scales ; they change. That is the general theory of all business or industry, or of hand- ling men (including women). It is the definite application of democracy, which explicitly notes that men are not quantita- tively equal. Handling men is the greatest of all jobs be- cause it is the hardest:- requiring responsible thinking (of course including estimate of measures), and then application of that to men (which requires more intrinsic energy or drive than they have, at least in the affairs concerned). House- keeping, including handling a husband and children, is tru- istically just as hard. Usually the actual objection that is found by women to housekeeping comes from the fact that women who object are too mediocre to grasp and-or intrinsic- ally measure up to the possibilities of the job. q. So the fundamental practical ethical and-or economic error a person can make is to fail to find what he is quantita- tively fitted to do, and then to fail to do it. The average proper job for a man has been seen to differ somewhat from the one for a woman. So in general the economic doctrine of extreme feminists, tacitly or explicitly to the effect that wom- en ought to be given the same work as men, same pay, etc., is wrong. Mrs. Charlotte Perkins Gilman's "Woman and Economics" seems to be the leading '"authority" for that extreme feminism. The book is the sugar-coated picture of a matrimonial establishment which actually is what is now usually known as an apartment hotel (male real estate in- vestors took the hint that many women wanted thus to duck hard, life-giving responsibility and supplied them with their Utopia — at a price). Her man and woman do the same sort of work [i. e., they have vaguely a "career" — nature not specified, as it would have been distressing to be too intimate with responsible work], and return at night to glance at the children, who merely vaguely happened, and are in charge of an assumed-competent nurse [who more or less material- izes out of the nowhere, and who rather seems to be of neu- tral sex]. It is a "lovely" picture. The glaring practical defect with it is that in her grossly amatuerish way she sub- stantially forgets that the nurse and the more hidden domes- tics who run the apartment hotel and the children, are parts of the race; she substitutes them as zero-counters for moth- ers, in blissful disregard of the multitude of actual economic facts involved. Obviously, her book, as economics, is merely silly. What it means is that she wants to eat her cake and have it too ; and naturally a person showing such dense ig- norance of fundamental economic principles does not even know what real cake is — what a sound woman can get out of life. Her book is typical of many such female books. r. Finally some men may object that they do not wish to become any more like women than they can help. The characteristic which is probably most commonly named as the essential masculine trait is courage. And that is truistically correct :- for courage is the outward result of conscious know- ledge or intelligence, and can be possessed only by those who have consistent, sure, stable intelligence and the intense emotion needed at any given time to back it up — live by it, or stick to it. We are afraid only when we are ignorant; when we are not fairly sure what is going to happen we wor- ry, which is minor fearing. And obviously, a woman would not have as much courage as a man. 170r Often men admire the patience of women to the degree of holding that women have more courage, or a better sort than men ; I am inclined to be that way myself. But that simply means that those men are more or less conscious of a deficiency in patience: for precisely speaking a woman is usually cowardly with re- spect to the unknown or unpredictable antics of a mouse, or a washing or other sort of machine, etc. ; but they have much 170r Roughly speaking, a man is said to have (noticeable) courage only when he is actually afraid of the immediate unknown Many, and, with a little make believe, pretends not to be afraid — or, per- haps to speak more precisely, forces himself to go on in spite of the actual and inevitable fear. (His capacity for intense emotions truis- tically gives him that courage in a degree superior to a woman's; as a rule the woman can't concentrate her whole nervous system to that pitch of intensity, or conscious sticking point.) If we knew every- thing, courage would then disappear with all other things into the ineffable One, and we would have infinite courage or zero courage, just as it pleases us to say. So the courageous man actually intel- lectually grasps a very wide sort of God or Meaning (he may call it "carrying on," or "playing the game," etc.), and makes it work backwards, to pull him over the fear of the immediate unknowns he will never be able to know accurately (e. g., the common saying that soldiers become "fatalists" means that they thus substantially con- sciously use the One more frequently than other people use the same thing under the name religion). So it is a truism that the braggart (who is verbally a truculent, militaristic, aristocratic bully) is not especially courageous; he actually is either make-believedly whistling to hide his fear and exaggerating the hiding of it so much as perhaps to be hypocritical and thus prove that he is too much afraid; or else he is so stupid and dull witted that he is unable to see that there are unknown things that ought to make him pause a bit. Usually the militarist is a mixture of both, and too stupid to see that he is exhibiting some cowardice. But he always exhibits cowardice by expressing the earnest desire that people load themselves down with arms and armor so as to be "prepared" — to protect him, pre- sumably. That glaringly contradicts his "war-like spirit," and much- advertised courage. So it is a truism that the worst objection to the militarist is the directly human one that he is too cowardly — is not quite a man. (Or, if he is not actually afraid to be without increas- ing protection, then when he says it is needed he is either stupidly parroting someone else, or is lying for some selfish purpose of his own — both of which are higher grades of cowardice.) Of course, there is such a thing as a foolhardy ignoring of ordinary prudence — the question of armament is a quantitative one, and the reader will have to judge for himself. Truistically, the best defence against any variety of bully or militarist is to have a well balanced, self-reliant nervous system, It is now obvious that the truly courageous man is the one who in numerous things in practical life has used the valid logic soundly. So all the unusually reliable men and women mentioned in footnote 167b are obviously also courageous. Most of them have shown easily observable courage in various ways; so such objective evidence in turn proves the principles here. And clearly, the supreme courage is that possessed by the real leaders of the race —is that courage which with full consciousness of the risks run will unselfishly, without demand for, or any certainty of, payment for themselves, support others in right-doing. This book is verbally a trifle novel in spots, and I have found that it takes truly courageous persons to admit that they approve it (the argument is so self- evidently true that I have never seen anyone try to attack it; and ap- parently people accept the book as substantially correct, so it clearly is simply a matter of their courageously facing the "unknown," the slightly novel, and either standing on their own feet and taking it, or running away). So for some years I have had an unusual oppor- tunity to gauge people's real courage. And I find a surprisingly large amount of it in this country— and a negligible amount in Eu- rope: there they occasionally blow-up prominently with some half- baked radical idea, but there is little steady, hard working courage. Of course, there are numbers of persons in this country, occupying nominally important positions, who are painfully timid; I have learned to recognize them pretty well (mostly by their large and im- portant sounding talk, which is very cock-sure in tone, but vague as to specific facts) : some day I may publish an interesting list of them. It requires no appreciable courage, of course, to work out and publish or support ideas of our own. Even if the ideas are silly kind nature usually keeps us from seeing it to a fatal degree. UNIVERSE Three XVIII §171f courage" of the sort called fortitude, which is patient en- durance of the disagreeable and somewhat passive acceptance of the unknown. The equation tacitly used is Fortitude or bravery... yCCourage or bravery... =Cour age, etc. So truistically, the more a man knows about women the more courage he has, or the more masculine he is. And he can know about them only by becoming more like them — getting a better balance of that equation. The exaggerated males, with too much specialized courage and not enough fortitude, ' are the masters, superiors, bosses" of their wives (who pub- licly exhibit their condition by following their lords a trifle in the rear, like little dogs) ; such aristocratic, bullying, mili- taristic males, from the time of the over-masculine Greeks down to the pre-war Prussian military bully, have been over- emotional, sentimental, cruel, brutal, and treacherous — and have invariably been soon licked and wiped out by more bal- anced men. A person with so much male courage as to be pathological is called a sadist : with pathological feminine endurance or fortitude, a masochist (often the sexes reverse in that highly exaggerated psychological unbalance). So the man or woman who labors under the delusion that it is nice to achieve large quantities of the respective braver- ies — who disdains to be a little like a woman, or a man — should read some of that highly unpleasant sex psychiatry, and see what will happen to him or her in some degree. So we see that there must be temperance in democracy or divi- sion of labor — especially in the great natural one of sex. §171. a. The summing up of ethics or sociology or eco- nomics is known as art (when mostly outer' or objective), and culture or civilization (when mostly "inner' or subjective). b. It is generally held that art is the method by which things are best done — art being there substantially a relation- ship word. So truistically that which most perceptibly fits with its environment, is most obviously related to it or iden- tified with it, is the best art — art there being the correspond- ing Many word. The One word for art is usually beauty. Clearly the universe is completely related or absolutely fitted together, and so is absolutely beautiful:- Environment... {<^Art, or relating^)0bjects of art...=Beauty, or Art. c. Those definitions of art make it commonplace, norm- al. Any easily perceptible moral or balanced action or the result (mental or material) of such action is art by those defi- nitions — or, when in some less degree, is skill, skillful, effic- ient, workable, useful, etc. So art as a Many word tends to refer to things out near the normal limits of activity (Fig. 168b); we use other names for quantitatively less things. So obviously, if we speak of anything as being artistic it us- ually means that it stretches our nervous system so far away from the balance that the thing gives us in some more or less perceptible degree a rebirth. And hence, when used as a One word, art more or less consciously means religion, with the added meaning that art is definitely any sort of summa- tion into the One: religion actually is that (§166e), but in practice "religion" usually means only an ethical summation —the word ethical then being restricted arbitrarily to human actions. It thus appears that the almost interminable dis- putes as to what is art and what is not, and as to who is an artist, and the value of art, are due chiefly to the facts (l) that the word is used almost equally often as each part of the Trinity ; (2) that art tends to refer to matters near the normal limits, and there are no agreed-on measures of those limits (or even any conventional recognition that the disputes over art refer to such quantitative matters); and (3) that be- cause art gives religious rebirths, the priests and the artists are in competition so that exploiters in both classes have de- liberately added to the confusion (there are many examples; e. g., Mohammedan theologians forbid some arts). d. But clearly there need be no disputes about the theory of art. That theory is identical with the principles of morals represented by Fig. 163b. But until fairly definite measures are made in humanics there can be no reasonably definite standard of judgment as to whether a given thing is artistic. If art in the Many sense be taken as things in the narrow zone of doubtfully pleasant, just below the painful or patho- logical zone, then obviously there are only narrow limits of tolerance within which things are art, and what is art for one person may easily and often does lie entirely outside that zone for another. Quantitative judgment as to the zone in which a thing falls is called taste — and obviously there can be no in- telligent disputing about taste until such time as we have systematic human measurements. But by means of that theory many prattlers about art may readily be shown to be persist- ently self-contradictory and hence to have negligible taste. e. We can readily make a thing quite true or consistent with the universe (ultimately, it can not be otherwise), but at the same time make it so abnormal — so far outside our everyday balance — that we can stretch to it, vividly grasp its actual consistency or have a rebirth from it, only if we make a painful effort. It would be art to us if we grasped it. But by ordinary standards it is not worth grasping, just as it is scarcely worth while to strain to see the beauty in the late Kaiser (§25c), (four purpose is to see beauty directly; if we have a wider purpose, such as to solve the question of the beauty of the whole universe, he is an excellent detail to puzzle over and sharpen our wits on, as he is so confoundedly ugly at first sight. A highbrow drama is an example of such over-high art" that ordinarily is not art, but an offensive abnormality. I can get various rebirths from Ibsen s plays if I work hard enough ; but I have to supply from myself so many of the relationships that the abnormal Ibsen omitted or erroneously denied, that the result is not worth my work, except occasionally as an intrinsically worthless rebus in the puzzle column to sharpen my perceptions on. So by my measurement Ibsen was a brain-sick man, and not an artist. f. Because art generally implies exercise up to the pain- ful limit (C or C', Fig. 163b), the average artist seems to fancy that the more he stretches the better artist he is — that he ought to be abnormally strained. He then has the ar- tistic temperament" — and is wrong, as we saw in discussing genius (§159f). Artistic stretches are usually consid- ered to consist only of stretching Intellect... to see the One — to be 'masculine.' But obviously, it is just as real art to stretch the activity of the emotions; and truistically, by this whole book, the highest art is a well balanced amount of both (and of course it is impossible to separate the two — run either to or °°). The masculine way is commonly called artistic or literary idealism [a considerably different idealism from any of the philosophical meanings], and tends to be general, ab- stract, and impersonal. The second or feminine way is real- ism, and tends to be definite, concrete, and personal. When a man tries to be a thoroughgoing realist he obviously (to me at least, and in theory — unless he happens to be too feminine) makes an awkward, unconvincing mess of it — actually evolves a rather disconnected list of things. (There is a modern ten- dency for realism to mean any kind of obscenity — a dualistic disconnection of any things from their fitting place and use; — that is the pathological exaggeration of things, especially obnoxious in the hands of the females who do it, as they can go further.) Although it is explicitly considered by usual conventions that art should primarily be intellectual, the good artists instinctively make the balance of intellect and emotion. Then the second raters try to copy that, and exaggerate, the men overdoing being realists, and women vice versa (e. g., Mrs. Atherton's books); or, the second §171f XVIII Three UNIVERSE raters do not know enough even to try to balance themselves and so exaggerate their own sex properties (e. g. , Wilson s obscenely autocratic exaggeration of ideals in his New Free- dom," the very name of which implies that he alone knows about that ancient idea). Henry James is a good example of a "realist" — giving thousands of rather useless details, making us work hard to coordinate or unify them. And that is not realistic art at all, but masculine intellectual gymast- ics, which is usually as damaging as having to go out and aimlessly walk ten miles for "exercise"; some people do it, of course, and say it is fine — thereby furnishing considerable evidence that they have not much of importance and real in- terest to do. In consistency with that principle I have sev- eral times told the reader that he need not burden his memory with the details in this book — that they are not art, not par- ticularly fitting and useful, for anybody but the specialist whose business and interest it is to work with them. So that realism of the highbrow or Henry James and Walt Whitman type is not art, but a conscious straining after art that is over- done. (Incidentally, Whitman seems to me to be as large and gorgeous a bluffer as Paul, and not a democrat but a hobo aristocrat; I tend to become intemperate when I point out Whitman's painful abnormalities, as only thus can they be fittingly described: so I omit statement of the evidence). Extremely good examples of balanced art I think are Dorothy Canfield Fisher's 'Understood Betsy," which at first glance seems to be idealism so simple is its realism, al- though it probably inclines toward realism, and Gerald Stan- ley Lee's Crowds," which at first seems realism so fully does it show in vivid detail just what the great human gen- erality or ideal, democracy, is. The artistic equation clearly is Realism... ~X Idealism. ..= Art, or Aesthetics; and if a piece of art is sufficiently great it has both the factors smoothly joined, like the universe, and conceals its art by giving us a grasp of the infinite regress without making us work too hard. Such first class art is thus so simple and commonplace in its details that those familiar things catch the observer or reader or hearer of the art, and push him out to grasp the rest of the universe. Thus all good art is an obvious and readily graspable solution of the One and Many. A good picture makes us understand and be God by suggesting the unbreak- able relationship of the universe. And a good machine does precisely the same thing. Obviously, for both factors of that general artistic equation the formula Style.. . X Substance... (§166q) holds, and we need some training in Style..., logic, method, form, tricks of the trade, or whatever we call it, before we can fully appreciate art. And the volumes needed to expand that science are omitted at this point. g. Truistically, when a man or a people becomes boast- fully and ostentatiously artistic it is a symptom of either degeneracy or crude ignorance. The commonplaces of life are beautiful or artistic, and the normal man needs very little of what is technically art. Too much art is precisely the same as too much food, and leads to the same degeneration that too much prosperity of any sort does. The person who con- sumes' much art, and claims he appreciates it either has pro- digious assimilative capacity or is a hypocrite (§155) — usually the latter; which agrees with the well known facts as to the intemperance of dull and sodden aristocrats in art. h. Culture or civilization or progress is obviously a sum- ming up of all art, considering art chiefly from the spiritual aspect, or taking it to be relationship. So clearly culture is a continuous growth of all things (usually considered from the ethical point of view), which growth must, in a fairly steady climate, take place as the result of stretching a little more in our cycles, but no more than can be happily endured by the majority. A person who has become cultured" (who, e. g. , is finished" in a finishing the possessor of real culture. 230 school) is obviously not Because culture is such an inclusive word, naming the change in all our personalities and rather explicitly in some of the environment, it is clear that it is not very precise to say that one person differs from another in culture. Such words as culture and civilisation may be called exaggerating words, or spread-eagling words. They are so inclusive that even as Many terms they tend to mean too much, and to elude the grasp of the strongest mind; so it is more sensible to leave them to demagogs, aristocrats — vague-thinking persons who are fond of large words. The man who claims that he is highly cultured or civilized (or, what amounts to the same thing, that he is a member in full standing of a highly cultured nation) is truistically claiming that he is in a great number of things quantitatively much superior to others. Nearly all of us are superior in some things to other persons : I can wash my own face much more satisfactorily to myself than can any other person. But a sweeping claim to superiority is usually grossly inaccurate; and unless accompanied by some definite evidence of its cor- rectness is properly held to indicate egotism — a mild form of insanity in which one's self is over-estimated. i. The pre-war Germans summed up their dualistic, materialistic errors in their Kultur, claiming a high superior- ity for it, and congratulating themselves on possessing it. They considered it substantially finished, and that it was their duty to impose it on others — which is the usual theo- logical missionary spirit (see remarks on butters-in, §167j). j. And finally we see that art and culture, like religion, tend to become ritualistic — and then of course cease be- ing anything more than a comfortable, resting play or less intense imitation of the real, vigorous thing. When Homer made the Iliad" the most vigorous minds of that day were stretched and trained by it in a fine balance for that age : it made them grasp the universe or God in a fashion, starting with what they were familiar with — it was the current relig- ion. But nowadays the Iliad is so narrow that it scarcely stretches the perceptions of a child. And its former familiar or simple realisms are no longer full of implication-ghosts and so truistically do not serve as good starting points from which to grasp anything; and the poem s argument is very much out of balance when compared with our everyday morality — with our more delicately balanced standards. So truistically the Iliad is not real art now; as a fact, it bores me, as it does others I have questioned. But because it formerly was the highest art (I readily see the now practically dead reas- ons why it was), many people have been made familiar with it and now do use it as a ritual art thing, and get some pleas- ure out of it, and possibly even very mild rebirths. In pre- cisely the same way people get even more than that out of a treasured lock of somebody's hair, etc. That hair is not art now (in its day and place it was better art than any man- made technical art"). To most other people the more or less dead hair is a little offensive — "trash," from their per- sonal point of view. So, to me from points of view other than the historical and of sympathy with the people who act- ually like it as a ritual, the "Iliad" is trash. About three- fourths of the Bible is similarly trash to me — some of it quite offensive. And to me many of the "Old Masters" and other antiques are atrocious trash from the point of view of art. I see no great objection to those things being used as art ritu- als by those who wish. But reasonably sensible people are well aware that numbers of those who praise the Bible, those old masters, etc., are merely hypocrites. But in spite of the danger an honest person thus runs of being classed with the hypocrites, there is an advantage in using the old art first to develop on, "cut one's teeth on" (provided we omit the 231 UNIVKRSE Three XVIII §lTlm immoral ones such as "jack the Giant Killer" and much of the Bible). For the old ones that still remain decently bal- anced by our standards have had enough merit to survive the judgment of many men; and modern works are cluttered up with pathological puzzles such as Ibsen and Whitman. What actually happens is that the good of a great work becomes assimilated into our body of knowledge (becomes a part of our physical" bodies, in fact), and the unsuitable parts die — change into something else. No work of art in a Many sense can survive in a perceptibly distinct form (§152f). So the moral man will take his art temperately:- using what is good both of the old and of the new — avoiding spending too much time on playing with easy ritualistic art, and avoid- ing the unbalanced "Art" which, like the poor aristocrats, we have always with us — that "Art" being in fact the prod- uct and pet of such aristocrats. And truistically ethics, or what is quantitatively right and wrong, changes with time, just as does art. We have to be similarly temperate as to ethics, or its sum :- culture. k. It therefore follows, as the sum of this chapter, that the majority, which rules in any sort of democracy (and act- ually rules throughout the universe, as a principle; and perceptibly rules among the people of this earth if they be considered over a long time — even though their governments be called autocracies, etc. ; XIX) — that the majority is always right FOR THE GIVEN TIME AND PLACE IN WHICH IT EXISTS. That is obviously a mere truism. We may apply it with reference to this book, and thus see its evident truth, and the use of the principle. This book is mostly a brief formulation of what the vast majority of people have worked out in the past and handed on to us, and which we tacitly believe and act on — act upon so nearly completely, in fact, that in some cases we have forgotten how to express it. So the book sub- stantially accepts majority views as being right in most cases; I personally rest in secure and serene contentment upon the fact that our ancestors saw things as I do. ( Communion of saints" is the queer theological phrase naming that serenity coming from the conservative way in which we act; the phrase implies that the majority, as thus symbolized by the previously accepted good observers, rules; and the phrase is grateful to us because it delicately implies that we too are equal to those great men — as in fact we are, when we thus ac- cept and use their teachings.) In short, I substantially agree with the vast majority of the dead and the living: that tru- istically is equivalent to saying that I love them and love my- self. But, after getting on that sound foundation with most other people, in some rather negligible ways (say to the effect that the earth is cold inside) I stretch a trifle further than others do, and get a few lesser conclusions that are in the minority. Now, I have deliberately endeavored to keep on that majority base while I stretched, and thus to have per- ceptibly connected those slight minority conclusions with the majority ones. (The aristocrats, especially the tribe of fa- natic Artists, try to jump up off that base, and stay up and be "superior.") I may be right in those slight minority con- clusions; I of course think I am. But, those conclusions are not yet right for the race. They may be actually wrong: what I took to be consistency with the sound majority base may be a defect in my brain — for I often make mistakes. And even if those few minority conclusions are correct, as a glaring truism they can not be used by the majority until the majority at least see that they are true. So they are not right in a practical or Many sense for the majority until they can stretch up to them and make them a part of their conclu- sions. Although I may be quite right from a broader L,^ and especially T, point of view, I most assuredly am 'wrong" for the majority here and now until they can at least see that I am right : for as a truism (to repeat it again, as many people do not see it), the majority can not usefully, safely, or mor- ally know or apply my minority conclusions when they do not know them. (So truistically all views that it is possible to rule by fiat, by passing a law," are obviously merely silly.) I would be right in a minority conclusion in the long run if the conclusion is right; for then others would have time to hear of it, discuss it, verify it, and acquire skill applying it, and it would then, after a time, be a majority conclusion (even if / didn t formulate it, the universe would shortly pound it thus into people via somebody else). In short, education has to come in as a relationship between me as a minority in- dividual in regard to some minor views of mine (and every- body is in some respects similarly in the minority), and the majority, before any improvement in precision of balance, or advance, will work. And then, the majority move ahead together. The majority... {^-Education— $)The individual or minor ity...= Democracy, or a Republic. 1. So I as an individual may be emphatic in this book at times — be individualistic ' — in stating my occasional slight minority conclusion. But I obviously am not fighting' the majority, or considering them wrong"; nor do I feel any resentment if they do not instantly agree with me. In fact, it literally would be deadly dull for the majority and for me if we did agree completely : I enjoy the reaction or formal opposition in the mere quantitative matters in which we vary, and I am not in the least polemical, or impatient, or try- ing to impose Kultur on anybody. So from a broad basic view, I am not particularly disturbed if you have not got sense enough to see that I am right; I will even take your point of view occasionally and agree that it is perhaps I who lack the sense. And that shows how it is that only in a democracy can there be rather intense individualism: it is not a paradox, but simply the circularity of the demo- cratic equation in valid logic. The majority is always right at the time. And truistically the majority judgment is always wrong when a considerable period of time is included, as things change. And of course a minority of one theoreti- cally always perceives first such change as in fact exists. But usually the minority of one who thinks he perceives a change is mistaken — or even if he isn t, noisily exaggerates the size of the change. So you must ask minorities for clear proof. m. And the majority is credited with hitting a head that sticks or stretches up above the crowd. As a practical work- ing rule in the past, it was advisable. Possibly we may now safely make a distinction. I admittedly stretch up above the crowd to or in a few little minority conclusions (some will say the admission exaggerates the facts: I am consciously exag- gerating here for verbal clearness). But with just as much emphasis as that with which I stick my head up, I keep my feet on the base, and promptly pull my head down and ask the majority to stick their heads up and verify what I saw, assuring them that the view is pleasing and that nothing there will hurt a moderately vigorous person (of course some timid stick-in-the-muds will call me a liar, as R. S. Woodward in clear effect did for several months ; and numbers of rubber- stamps will say to get somebody else to do it first, as in effect Stewart Paton, W. W. Campbell, etc., did tell me). It is a reciprocal game — the democratic game. To change the fig- ure:- you hold me up to see, and I tell you where to look, and hold you up to see. You held me up first, unconsciously to yourself, and now I have simply come down and offered to hold you. As I said, that democratic game may be a safe game to play now, but I have indicated some men who in effect didn't think so. All the aristocrats, bosses, authori- ties," demagogs, have pretended to jump up off the com- mon" earth, and stay up, above the herd" or majority, §171m XVIII Three UNIVERSE 232 "superior" to them; or else those pluralists had a trifle more sense and recognized that the "herd" was holding them up, and asserted that they were privileged or divinely appointed to be held up all the time — that it was essential that they be, — whereas it obviously was merely quantitative. So the major- ity cracked their heads as a practical solution. CHAPTER XIX. Sociology and economics. §172. a. The theory or principles of democracy (§§167- 170) is the theory of sociology :- simply that all society, re- gardless of how it is considered divided into parts, reacts as our general machine That. . .X This... . As noticed, the only difference between ethics and sociology is the quantitative one that sociology includes the consideration of as many peo- ple as we care to mention, distributed over as wide L and T as we like; whereas ethics is tacitly taken to be more re- stricted, and hence tends to be confined largely to our own selves. Truistically, it is not essential that ethics and sociolo- gy consider only persons, and in practice they do not strictly do so, but confine themselves mostly to persons, thus being an extension or application of psychology. When those sciences are explicitly quantitatively extended to include some of the environment, often under the technical name wealth (including money, property, etc.), they are called economics. b. We have seen (chiefly in §1 68b) that ethics, sociology, and economics may be represented by suitably selecting names out of this extended equation :- That, or Neighbor, Spouse, Others, Environment, Climate, Employers, Capital, or Supply... 'X.This, or Ourself, Certain given men, Employes, La- bor, or Demand. . . =Meaning, Happiness, God, Real Life, Co- operation, Democracy, Society, Industry, Commerce. And for the X or relationship sign we may substitute these relation- ship names in various conventional ways :- activity [or (^—Activity—}); see §168b], action-reaction, cause-effect, love, payment or labor-wages, or payment in any material or spiritual way, loyalty, education, etc. c. So I necessarily gave the principles of sociology and economics in the last chapter, in giving ethics. The quantita- tive, Many application of them, if it were given in enough detail to include rather useful everyday facts, would extend to volumes, and must be omitted at this point. And I must omit reference to important facts about existing foreign gov- ernments, etc. 172c So I shall merely show in principle and 1,2c The explicit reason fordoing so is that I am a retired lieuten- ant in the Navy, and Federal law limits my speech in certain matters (see "Navy Regulations, 1920," issued in accordance with Sec. 154.7 of Rev. Statutes of U. S., by the last administration, Arts. 113, 100, etc.). The last manuscript version of this book was written under that Wilson gag law, which was in keeping with his make-believe "pitiless publicity," and I had to make some queer looking omissions in order to conform to the law. But the new administration substan- tially abolished that gag law in a general order, June 14, '21. The only restrictions I can find in the law now that affect this book is that I am not permitted to comment on ourforeign policy (I couldn't have done so anyway, as nobody has confided it to me; but I have refrained from guessing what it may be); that I am not permitted to comment on foreign governments; and that I am forbidden to praise or censure other persons in the Navy. I had no desire to censure any- body in the Navy at present (Wilson, the late commander-in-chief, is no longer in the Navy); so the law has cut out some specfiic praise. I have had to dodge mentioning foreign governments: nothing in this book is intended to refer to any existing foreign na- tion or government, except insofar as such is merely remotely and unspecifically implied as a naturally inseparable part of the uni- verse. That of course makes odd blanks. And there are traces in the book, which I haven't succeeded in revising out, of obedience to the Wilson gag. I once wrote a version which declined to obey the Wilson gag as unconstitutional. But it later seemed better taste to obey it (i. e., all American citizens were responsible for the law, and scientifically that the Constitution of the Uuited States is a general valid statement of democracy, and is substantially in agreement with natural law, and then make a few general further applications of sociology and economics. §173. a. The total Constitution is an explicit assertion of a That...XThis... Many machine, or democracy — as we now begin to see. The preamble repeats in six conventional ways that the total purpose is to establish explicitly a relation- ship, or love, or a mutually reacting machine. I. e., the preamble explicitly names the X sign as being six conven- tional names (all of which are implied to be identical [§28h] by the first):- (l) The preamble names the X sign as being "more perfect union"; the body of the Constitution gives the conventional names of the That... sand This... s, and the preamble primarily asserts:- That... (<— Forming un- ion— >) This... = Union, or United States. The preamble thus, by the use of the phrase "more perfect" troubles grammar- ians, but soundly implies the infinite regress. The Declaration of Independence with bombast and cock-sureness ignores that infinite regress. (2) Then the preamble states that the Constitution is to establish justice. That is the legal or juridical term for balance or temperance between all That s and Tkis's; justice means reciprocal love or payment :- That... (<— Justice, or Payment, etc.— >) This... . (3) The next synonym for the universal relationship which gives democracy is "domestic tranquillity." That, even more explicitly than justice," asserts that no painful departure from the balance is desired — that no fanatical, radical, pathological activities or persons of that sort are desired. That is a purpose clearly in full consistency with the ethical principles that oppose all aristocracy or excess. (4) Then the Constitution is to provide for the common defense. That obviously recog- nizes the possibility that other nations may (unlawfully, in » natural" sense; i. e. , in some degree insanely) try to de- part from a natural, mutually self-preserving balance with this nation, and hence in a dualistic, wrong fashion, aggress. (A formal, legal, logical establishment of the correctness of this part of the Constitution is omitted here; footnote 172c). Then, if there is such aggression, the language clearly pro- vides that this nation may defend itself. We saw (§164d) that that is fundamentally moral, or in agreement with nat- ural law. But the Constitution does not in any place provide for aggressive war; therefore, as aggressive war is national aris- tocracy or insanity in some degree, it is unconstitutional to declare any but a defensive war — which truistically is a war against an aristocratic nation which perceptibly attacks us first. The next paragraph is a parenthetical one which con- siders that, and its implications (which are of importance). (5) Next, the preamble purposes to "promote the general welfare." That is an assertion that the people in general are to "progress," or to become more and more civi- lized. It obviously explicitly asserts as a purpose of the Con- stitution all the remaining natural ethical laws stated in the last chapter. (6) Finally, it purposes to "secure the blessings of liberty to ourselves and our posterity." That is a sort of One summation of all the other purposes, as liberty or freedom is usually a monistic term (§169). So it follows that the Constitution (if its body adheres to the prin- ciples laid down in the preamble — as we shall see it does) is I could scarcely be courteous to the reader and flatly decline to obey his wishes, as expressed by his legal representatives; so in the later version I made that null-law ridiculous by temperately obeying it). The present law seems to me sound— but if I were to say it is needed I would unfortunately imply that there were foreign governments so aristocratic as to be unbalancedly touchy (§169h), even to the re- marks of an insignificant individual like me: so I refrain from even the non-particularized remote implication that such a government or people may now exist. 233 UNIVERSE Three XVIII §173b with extraordinary completeness and explicitness based upon and in agreement with natural law. I know of no other ex- plicitly stated legal law which has such completeness and definiteness of statement. In fact, as shown in the next para- graph, the Constitution is naturally valid law which not even yet, after over 180 years, is followed in its principles by law- yers in their pseudo science of the law, which adheres to the classic logic and dualism and is wrong. b. A positive legal or statute or lawyers law is, accord- ing to the lawyers ( Ency. Brit.," Art. Jurisprudence"), a command or order' set by a sovereign [or superior] person, or sovereign body of persons, to a member or members of the independent political society wherein that person or body is sovereign or superior." All rules or natural laws or princi- ples which are set and followed by men living in a state of nature [i. e., without a ' sovereign"], or which are set by "equal sovereigns" [i. e.,all international law], and all those rules in a state with such a superior but which rules are not explicitly ordered by the superior, are themselves not laws in that lawyers' sense, but are or accompany anarchy (ibid., p. 572). So truistically, orthodoxly the lawyer's law, and his so-called science of the law, is logically a step by step, prem- ise on premise, affair that proceeds in only one direction — is classic, dualistic logic in legal terms, — that can not consider or formally admit mutual interaction, or any real science of action and reaction, or any democracy, or be finally circular and actually provable like valid logic. The lawyers law requires a superior, an aristocrat, and denies that a state of natural interaction or democracy or That... KThis... can be law, but explicitly asserts that it is anarchy, or an absence of positive lawyers' law. It therefore is obvious by this whole book that that strict theory of lawyers' law is wrong; that it is flatly contrary to the Constitution and to all true rights and morals ; and is unconstitutional for this country. So truistically a lawyer by his legal theory is incapable of correctly interpreting the Constitution, and in general is not competent to interpret any law validly. For, in keeping with that legal theory, strict lawyers must hold that if there is a doubt as to what a law (or also the juridical acceptation of a custom or practice— a "common law") means in a given case, the doubtmust be settled (l) by a careful and strict investigation and interpretation of the wording of the law; and failing that solution the doubt must be settled (2) by interpreting the law as having the intended meaning of its promulgators, as historically given. In short, strict lawyers recognize only the superior sovereign, and attach infallibility to his (their) word or presumptive word. But it is obvious by this whole book that such logical or juridical infallibility is impossible : no word can be given an exact meaning, and all meanings of words change with time, and there is no possibility of histori- cally determining exactly any intended meaning (in fact, frequently the sovereign, instead of being superior, was ignor- antly unaware of what he did mean). So the only rational way to resolve a doubt as to the meaning of a law in a given case where there is self-contradiction or omission, is to make its meaning "balance," or agree with natural law, in as close agreement as possible with the wording of the lawyers law (the judge should not be permitted to depart further than that from the code, as such further departure constitutes that pernicious juridical legislation for which the orthodox pseudo theory, while exaggeratedly claiming the opposite, actually serves as a cloak or make-believe; see footnote h :— and a practical suggestion is obvious:- that the judge be required to report clearly the omission or self-contradiction to the legis- lature—that giving a method by which the judge and legis- lator can democratically work together if they have enough intelligence, instead of often conflicting). I. e., interpret the defective law reasonably," and thus eliminate any impossible and confusing hope of the infallibility of a non-reacting or non-democratic sovereign." Obviousty no other practical method of applying the law is actually possible. In legal practice that law of reason" actually is followed, as the un- escapable laws of nature force at least its unconscious accept- ance. Our investigation hence sums up into the simple rule that it should be followed consciously and so with less bung- ling and pettifogging. So by natural law or morality or eommonsense (and also by the plain statements of the Consti- tution itself), the sum total of the Constitution provides for a healthy, natural democracy, and implies that it is unconstitu- tional to declare an aggressive war: and Amend. X, which 173b All that, as explicitly stated, gives the strictly orthodox legal theory of jurisprudence. It hinges on the conception of sovereignty, as seen. But that theory of law has been combated by the real leaders in the law since prehistoric times (see Maine's "The Ancient Law"). The article "Jurisprudence" from which I quoted the ortho- dox theory acknowledges that legal struggle between explicit classic logic and what is in effect our valid logic — between aristocracy and democracy. Our Constitution, as we shall see in more detail, rejects the orthodox classic theory of law. But Marshall, as an early chief justice of our Supreme court, in some degree forced the aristocratic pseudo theory upon lawyers (see footnote h, which also shows how he was wrong and in disagreement with the Constitution). So it is probably the quantitative fact that most lawyers in this country weakly follow the arrogant and physiologically forceful but legally and intellectually stupid Marshall, and accept that wrong legal theo- ry. Of course, the able leaders in law have been in effect steadily combating Marshall's autocratic stupidities (Lincoln is quoted to that effect in footnote h) . But until a rigorous solution of the One and Many was available the battle was indecisive: now there isn't any battle, and I shall merely read the burial service for Marshall and his quibbling bullies. In practice, lawyers for ages have to a very large extent openly followed our valid theory of law, and our lawyers to a considerable extent practically accept and apply the Constitution. We proceed to see the historical facts in proof. Sir Henry Maine is a reliable authority on such facts, his "Ancient Law" from which I shall quote being accepted by most lawyers (some of course being too stupid to see what he was talking about). Maine tried to enunciate the principle of "reason," or valid logic, or of our constitutional cooperating-sovereignty, as being the theory of law, and did make considerable success of the attempt; but as we just implicitly saw, the "Ency. Brit," holds that technically he failed. But our leaders in law in effect accept Maine's valid theory. Maine shows that what is technically called "equity" [etymo- logically that part of the law which deals with actual justice, the re- maining part, or "law," consisting of mere classic logical quibblings] began to be formulated in earliest history on the laws of nature, or justice, or eommonsense valid logic, as a relief from the obvious in- justices, delays, and stupidities of the classic logic law, which were far worse then than now. Maine (ibid., Chap. II) defines equity (in part) as having its authority grounded, not on any lawyer's "sover- eign," but on the nature of the principles to which it is alleged that all law ought to conform [i. e., it ought to be sensible, 'balanced']. It has a higher sacredness [legal sanction] than that of ordinary law. Maine says (III):- "The progress of the Romans in legal improve- ments was astonishingly rapid as soon as the stimulus was applied to it by the theory of Natural Law." Thus it appears that I am saying nothing new, but am showing the valid theory of the law that lawyers themselves largely practice and tacitly accept. Of course, as a truism, if there hadn't been mostly truth and validity in what lawyers actually did, in contradiction to their mere talk, long ago there would have ceased to be any lawyers. So in spite of the em- phatic clearness with which I state the sound theory of the law in this section, I am not radical—am not trying to "reform" law. I merely suggest that in practice it would help them to stop wasting- time and effort if lawyers would preach what they frequently pract- ice — if they would consciously (intellectually; in theory) accept the Constitution : because natural law will make them in effect accept it anyway. Such acceptance would make jurisprudence actually a science, so that a man could then safely engage in the study of law without danger of debauching his intellect — debauching it so thor- oughly that, according to the legal authorities quoted (§163g), it often debauches his morals (which include emotions). Such valid jurisprudence, except for the mere suggestions of this section, must be omitted from this book; but a number of legal leaders have the competence to formulate that science:- e.g., Taft, Hughes, Pepper. §lT3b XIX Three reserves to the people powers not delegated to the govern- ment, explicitly makes it legally unconstitutional for anybody but the people to declare an aggressive war. The first im- portant need for that consistent interpretation of the Con- stitution is :- to announce to everybody that as a nation we will be democratic, and not aristocratic and predatory (the advantages of which are implied below), and definitely and explicitly to make our armament a police force (which solves rigorously the fundamental question in the problem of dis- armament, the remainder of that problem obviously being a never-ending quantitative one; §176ef). — - The second and last important need for such a consistent interpretation is fundamentally the same as the first:- the destruction of the aristocratic, dualistie delusion that there can be a superior, capricious sovereign. This consistent interpretation is a gen- eral concrete destruction of the conventional theory of uncon- stitutional lawyers' law, showing constructively that the constitutional or legally sound theory of law, as well as the naturally sound theory, is that the people themselves spoke and speak the law to themselves. Specifically, that constitu- tional point of vieta obviously abolishes all orthodox legal sanc- tions, or "evils" (ibid., 576) that in orthodox law follow on the refusal of an inferior to [essentially] obey the superior. Those sanctions are truistically a tertium quid or a logical link (§§23-4) invented (in a really impossible way) out of nothing, to make an otherwise glaringly unworkable theory of law seem to weakly-seeing people to work. Of course those sanctions could make an infinite pluralism that is form- ally valid (Part One); but the actual practice of the lawyers is that it is assumed to begin with (and it is a libel against the race — and reacts somewhat on the lawyers themselves, making them into what they say others are, §163g), that humans do not want to obey the laws and have to be forced to do so, and have evils or sanctions threatened them. Sanc- tions are the lawyers' holy things or idols, like the theolo- gians' dualistie God (see also par. c). So sanctions" give a negative, repulsion way of founding law. The nega- tive way is the best first way (Index, Negative"), and is quantitatively useful with barbarians and present defectives : Moses used the negative way, and most lawyers have not been able to improve on Moses. The Constitution does. c. The Constitution having thus effected in an extraor- dinarily able way which is perhaps but slightly appreciated, a complete and valid reversal of orthodox lawyers' law in its preamble — having made in it a succinct statement of valid natural law, — the preamble was followed by the body of the Constitution, in which the various reactions or reacting parts are definitely named. As that was a Many or quantitative procedure obviously it can never be exactly perfect. And that practical existence of the infinite regress, or of the fact that there can be no exact science, was provided for in three explicit ways (which indicates the framers' practical recogni- tion of the importance of the principle):- (l) Art. V al- lows amendments. (2) Amend. I provides free speech, and specifically freedom to assemble peaceably and criticize the government and talk back to it. That obviously means that nobody in the democratic nation was to be assumed to be infallible, or essentially superior, even officially, or to be so superiorly wise that he could safely do without interaction with his fellows. It also means that the founders of our na- tion were not afraid of adverse criticism — that they were suf- ficiently men to have the courage to take it, however much they humanly disliked it — were sufficiently past the infantile stage of mind growth to be aware that they sometimes made mistakes and could be helped by criticism, and were strong enough themselves to tolerate tranquilly the intemperate speech of the few inevitable unfortunate defectives — in short, UNIVERSE 234 were cognizant of the advantages of free speech and strong enough to pay the price for them. (3) The Constitution chiefly is concerned in specifying the acts permitted to the government, in the formula People... X Government..., Govern- ment... (or more precisely Government officials... : government of course constitutionally includes people ; but I verbally gen- erally use that conventional abbreviation) — Government... be- ing the intensive factor and truistically most emphatically and explicitly talked of. But Amend. IX ("the enumeration in the Constitution of certain rights [of the people] shall not be construed to deny or disparage others retained by the peo- ple") explicitly provides for that customary and necessary verbal vagueness, and allows the regress in People... . We saw in the second sentence in par. b that lawyers assert that such natural rights or ordinary laws of nature are not laws in a legal sense, but are anarchy. The Constitution here con- tradicts (or legally abolishes, if that face-saving phrase is pre- ferred) that barbarous legal pseudo principle. So if this Amendment means anything that is recognizably consistent with the ordinary meaning of the words it uses, it means that the rule of reason is to be used, and that the orthodox legal "procedure," stinking of sanctions, is interdicted. d. The remainder of the Constitution names the various practical This's and That's which must be definitely put to- gether as a machine in order to achieve the Constitution s general purpose of obtaining a democracy, or general That... XThis... . The Constitution merely keeps on at that process until it becomes reasonably certain (for the time being, at least) that no clever exploiter or legal grafter, or other species of defective, can find a verbal or "legally" uninterdicted op- portunity to run some That or This far out of balance (with- out check other than the natural limit). But as direct evidence that it is not practically possible to rule by fiat, we just saw that the sweeping interdiction or law" enunciated by Amend. IX against the pseudo legal theory and procedure has not yet worked, after over 130 years, because the major- ity of the people have not insisted that it be definitely com- plied with. So there is no magic in the Constitution, even though it is an extraordinarily valid statement of democracy, to make it work unless people want it to and themselves do it. But the Constitution as at first written and amended seriously failed to be sufficiently explicit in providing such a balance, in that it did not definitely assert that there could be no (legally) fixed classes, such as superior' owners and their slaves. That defect, in view of the fact that some slave owners insisted on being essentially aristocratic, inevitably brought on the Civil war, as such fixed class distinction was not only naturally immoral, but was in direct violation of the stated democracy or varying That... XThis. .. . That war corrected the deficiency, which truistically would not have caused war, but would merely have produced an agreed-upon amendment when the point was called into question if the rule of reason, and not the lawyers dualistie procedure, had been followed. (Of course, numerous sorts of exploiters sup- ported the lawyers in their short-sighted procedure [par. f] ; they still do — as otherwise such silly verbal quibbling could not last. Please do not understand me to fancy that lawyers unsupported could maintain such a monstrous barbarism as their unconstitutional theory of the law. Also, a lawyer has to deal almost invariably with defectives who don't admit defectiveness [with criminals who more or less can't, and with litigants who are usually so angry as to have judgment so de- fective as to want to fight, which strictly speaking makes them oitl-laws or mildly insane by the Constitution]; so the lawyer has an enormously difficult job to handle his clients and not become like them, with a fighting or unconstitutional procedure. A physician's patients admit defectiveness; yet 235 UNIVERSE Three XIX §lT3f he has trouble avoiding the acknowledged danger of becoming like them. The dyer's hand, etc.) Similarly, the Constitution does not now with complete explicitness assert a perfect balancing; it is impossible that it do so in a finite time, as such would require the complete assertion of the in- finite regress. Several possibilities of further explicit balanc- ing by further amendments are sometimes suggested:- e. g., one allowing Federal divorce laws; and one definitely for- bidding willing of wealth unearned by the legatee, as such bequests arbitrarily disturb the natural balance, and also fail glaringly to give people equal natural opportunities. But, truistically, jfwe follow the rule of reason, and the Constitu- tion's own explicit general enactment of such a balance, we can never have another civil war. (And personally, I think we would better add amendments very sparingly ; if we haven't got sense enough to get along by legislating under a reasonably steady basic law requiring us to keep balanced, we aren't likely to acquire sense in the process of making a jellyfish of it.) But, e. g., at any time that the lawyers and their exploiting supporters undertake to uphold persist- ently (cf. §169d) the orthodox, unconstitutional legal theory of law, we truistically sooner or later shall inevitably come into another civil war. The Constitution as a statement of law is valid and natural law (the best rules and instructions yet made, for the biggest game ever played, and of interest to those who can understand them — we are all in the game); but even that soundness cannot of itself mend deficiencies in men's nerves or souls. Our own dynamic daily majority use of the principle of the Constitution makes it work, and keeps us out of civil war and lesser troubles. e. We need not here notice all the That s and This s balanced by the Constitution. I shall state the chief balances as being enough to give the general principles of its practical workings. The chief balance is in providing for the election of the important government officials more or less directly by the people, with limited time of service in the cases needing it (par. h), and explicit means of removal in all cases:- there was definitely established, with explicit L and T measures, the formula People... X Government... . That explicit mutual control or interaction of people and arbitrary Many government (not the absolutely sovereign government of the dualistic lawyers' law) obviously formally, and legally in a constitutional sense even if not in a lawyers' sense, re- moved all fixed, aristocratic governing classes — eliminating orthodox sanctions, fiats of superiors, etc. The places of power were limited in time, so that even if their incumbents went power-mad, they would automatically shortly be re- moved, before their power-mania had time enough to grow much or do much harm. That principle of time measure is an exceedingly important one in practice, and might profit- ably have a volume devoted to it. Anyone will go power- mad if given a little more power than his character or nerves can stand (§1681); similarly anybody will go insane if given enough food so that the excess poisons him enough (nature often kills completely in that case before the insanity is long apparent). Power does not usually kill quickly, and many men are seen in places too large for them fattened or swollen up with pride, "dignity," and various sorts of queer and sometimes dangerous unbalances. (Such swelled heads occur in business; but they rapidly kill the business.) Any excess, all prosperity, will unbalance a man if it measures a little more than his particular endurance. Prosperity and poverty are perceptible departures from the balance. They make a man stronger if they do not pass into his painful zone (Fig. 163b). But if they just pass into that zone they ac- cumulate a fatigue or poisoning, and truistically destroy the man if not removed soon enough. A little power thus always makes a little, weak man show himself to be such by making him perceptibly unbalanced or ridiculous. Usually he begins to show it by being dignified" and pompous (like many men who have similarly slightly poisoned their nervous systems with alcohol); then he becomes either too secretive, or too talkative — usually mostly the first, although there is often a cyclic rotation of the two, as in the case of Wilson. After that the symptoms are very variable, approaching paranoia and similar insanities. The newly rich" are over-prosperous in money. • We can observe power-madness in many different people. The healthy young have a normal physio- logical cockiness, with a belief that they could handle some big job without going mad; but if we are older we doubt if we are big enough to take Lincoln's job and stand quite steady although we may not be afraid to try. So the Con- stitution sets a time limit on power, to save us and to save the man given official power. f. The next balance in the Constitution is the abolish- ment among the people of all fixed classes (i. e., those with- out a time limit — in full agreement with the natural law that there are no physical constants), by interdicting titles of no- bility (Art. I, §IX, 8 ; §X, l). That makes an always variable or natural balance:- Other men... X,Any given man... . The same sort of balance is further obviously explicitly extended inside our nation by more or less prohibiting bills of attainder, the suspension of habeas corpus, ex post facto laws, internal tariffs, and all internal privileges or "preferences" (Art. I, §§IX, X; Art. IV). Then, in further explicit assertion that the "rights" or dots of Other men... (or Bodies of other men... or States..., as contrasted with the intensive factor Govern- ment...) could not be fully stated in those internal balancings, Amend. X ("The powers not delegated to the United States by the Constitution, nor prohibited by it to the States, are reserved to the States respective]} 7 , or to the people") sup- plies that explicit statement, and clearly and definitely makes our formula for all the people, including government:- States, or other people... X Government, or given people... == Union, or Democracy, or Republic. Obviously, there is a beautiful nat- ural validity, and definiteness , about that general internal bal- ance. We may note the illuminating fact that as soon as there arose a dispute over the right to have the dualistic, fixed classes, owners and slaves, that dispute as to balances would be identically or synonymously expressed by putting it into any other That... X This... form. The first form that is wider than Slaves. . . X Owners. . . is States. . . X Government. . . (named "states' rights"). The problem of plain slavery was too easy to solve if kept in the simple human terms Slaves... XOzeners... : many aristocrats could not blind themselves to the fact that there were not many perceptible "blessings of liberty" for the slaves. So those exploiters evaded in the age-old way — putting the problem into larger or wider terms to confuse the issue, and in some degree to hide their own wrongness from themselves (a sort of reverse make believe). (I speak with no animus against former slave owners, but sympathetically give simply the obvious facts: my own fam- ily on both sides lost their slaves by the Civil war.) Clearly the problem of slaves and the problem of states' rights are identical in principle. To assert that states have a right to withdraw from the union is equivalent to asserting that there exists a right for men to try to separate and become fixedly apart, just as slaves and owner are (nominally ; but impossibly in fact). Such an assertion is also in direct contradiction of the contract made in the Constitution, which requires the as- sent of both parties to terminate. No such assertion will ever be true (except in a quantitative sense, when men degenerate and are quantitatively unable to hold together in as large a union as now; cf. §176). Always exploiters will try to put §lT3f XIX Three UNIVERSE 236 that same simple principle of the Constitution — balanced co- operation — into wider terms. But with a rigorous solution of the One and Many we shall be very stupid if we get confused and exploited. Quite often in history the Monroe doctrine has been given an imperialistic, aristocratic interpretation by the dualists ; but as the reader may readily see that by writing a few formulas we will not go into it; also, see footnote 172c. g. The Constitution thus made first a balance between government officials and the remainder of the people ; and then a balance between all the parts into which the people were arbitrarily or conveniently divided. In short, it explic- itly abolished privilege, or aristocracy, or unearned power or other unearned perquisites. And it did not do that in any sweet, sentimental, vague way: it got right down to definite measures, to L and T science, to brass tacks, with such precision that it worked pretty well. The Constitution is science of the highest order. And as it was made by the whole people it is another indication of the fact that the im- portant average or majority judgments of men are sound. h. Then the Constitution proceeds to the details of the government officials. It makes a balance of executive and of legislative branches, relating them by the judiciary, thus :- Legislature. . .\4— Judiciary , or Jurisprudence-^ •) Executive... = Government. The Constitution, in the absence of its makers specific knowledge as to relationship terms, is a trifle vague verbally or formally as to the judiciary; but it obviously as- serts that formula, which implies all the sound principles. The judiciary in reality has no power in the usual sense, but is merely a connecting link or relationship that interprets, or makes each branch perceptible' to the other. The judiciary is the sociological governmental Holy Ghost (in wider sense, "public opinion" is — represented mostly by the press). The judiciary, having no power, is hence, so long as it attends to its legitimate and constitutionally allowed business, and keeps away from holding the lawyers' law, truistically in no danger of becoming power-mad ; so with implicit recognition of that, the framers did not put a definite time limit on the terms of judges. Obviously, the business of the judiciary is to say what is truth ; the truth has what is commonly ac- cepted as one form of power, that of prevailing" — i. e., of simply being, or existing:- as the ultimate relationship of identity (§28h). The press has power" only as it tells the truth. The judiciary and the writers as such truistically have no power : insofar as they are diligent in finding truth and honest and skillful and courageous in giving it to others they are good workmen and deserve high payment — and that pay which is then theirs to spend is their power. But, as we see below, by unconstitutional lawyers law the judiciary is the agent of a superior sovereign, and as such has power (both delegated power, which ultimately is the only sort anybody can have, and the nominally first-hand power of in effect leg- islating). If the lawyers do not agree that all that is true, then they automatically assert that the judiciary should be given a term limited in time or else terminable at will without cause by the sovereign (and they also automatically assert that their job is not to find the truth and state it, etc.). I am quite aware that Marshall in effect disagreed with the view that the judiciary has no actual power constitutionally ; by so doing he proved himself a poor thinker and incompe- tent judge. To give crucial evidence of Marshall s errors :- He (together with the notoriously aristocratic imperialist Hamilton) held that a state is sovereign in a lawyers' dual- istic sense, and can not be sued, without its consent (Bryce, "American Commonwealth," New York, 1908, p. 235). That view truistically makes the judiciary the agent of the sovereign and thus gives it power (which as a matter of hist- tory and common law — which common law the Constitution in direct effect enunciates as law — was long ago in England forcibly taken away from the judiciary). And in general proof of all that, in direct legal terms, the Su- preme court, before Marshall was on it, with ordinary com- monsense and reason, decided that the Constitution did not hold a state to be thus sovereign (Bryce, ibid., 235). As a result of that, and probably of Marshall's and the lawyers' and exploiters' dualistic views, Amend. XI was added in 1798 ("the judicial power of the United States shall not be con- strued to extend to any suit in law or equity commenced or prosecuted against any one of the United States, by citizens of another State, or by citizens or subjects of any foreign State"). By that states have in practice repudiated their debts, and otherwise acted as a capricious sovereign in an immoral and unbusiness-like way — like a robber baron, or a dead-beat kaiser or pauper. According to its practical and to its customary legal interpretation, that Amendment is the one blot or error in the Constitution. By the Constitution (strictly interpreted: see below), and by all natural law, no state is absolutely sovereign; neither is the Federal govern- ment; and so constitutionally all are liable for damages for any mistakes, and subject to suits. (To admit that would be simple 173h That interpretation (that he considered the judiciary the agent of the "sovereign") is the most charitable opinion to take" of Marshall's views; and I have adopted it because I haven't bothered to read much of Marshall's autocratic dictums. I am inclined to be- lieve that the historic fact is that Marshall was much more unintelli- gent and irresponsibly lacking in knowledge of jurisprudence and its history than that mild opinion indicates. I am inclined to think that he was, with customary irresponsible, aristocratic power-madness, trying to make the judiciary into the orthodox lawyers' "sover- eign." And that seems to be the customary view of Marshall's ex- ploits. That "sovereign" status of the judiciary was historically nearly an invariable phenomenon in all races of the Western world, where aristocracies which claimed to be the depositary and adminis- trators of the law succeed "sacred" kings (we call that the buying up and capturing of the courts by the rich). And they all regularly failed to work and broke down (Maine, "An. Law," I), the people demanding that the law be written in codes. And that dualistic and naturally unworkable pseudo judiciary is explicitly provided against in the Constitutiuion, which gives the legislature the duty of enunci- ating laws (so that it is none of the judiciary's business to legislate), and the executive the duty of examining them and sending them back for reconsideration (if thought needed), and of executing them. So obviously, all that is left for the judiciary to do is to discover and state the truth (so far as it can) regarding those various matters (un- fortunately, the Constitution speaks of judicial "power"; but obvi- ously, no meaning other than 'duty to speak truth' can consistently be got from that carelessly used word). Marshall could have discovered that legal history if he had tried; and a trifle of intelli- gence would have made it clear to him that this present statement of the nature of the judiciary as a truth-stater is the constitutional one. But actually Marshall wasn't a judge at all: he was a grabber after power — essentially a robber baron, a kaiser, a bar-room bully. So by direct implication — by directly assigning the power elsewhere, — the Constitution prohibits the judiciary (practically, the Supreme court) from issuing any binding or compulsory interpreta- tion or fiat as to a law's constitutionality. The judiciary can merely try to show the congress and executive that a given law contradicts the Constitution in principle, if it thinks the law does. As we have seen, any matter of principle can be shown rigorously, and so clearly that a child can see it. So if the judiciary can not show congress and the executive that the law is wrong, and have them repudiate it of their volition, then the law is a law. (Of course, if there is a fre- quent conflict of opinion in such matters, and recalcitration, the gov- ernment would come to a standstill; but the practical solution is obviously for the people to throw out all its officials, including im- peaching the Supreme court, and get some representatives who haven't gone power-mad.) Lincoln clearly saw the substance of all that, and stated it at his first inaugural (quoted in J. T. Rich- ards's "Abraham Lincoln, the Lawyer-Statesman," 170):- "If the policy of the government upon vital questions affecting the whole people is to be irrevocably fixed by decisions of the Supreme Court *** the people will have ceased to be their own rulers, having to that extent resigned their government into the hands of that emi- nent tribunal." 237 UNIVERSE Three XIX §174c good business and elementary morality and constitutional law.) Now, by referring to the wording of that Amendment it is at once obvious that the aristocrats did not state openly or definitely what they apparently were trying to get :- the legal right for a state, as absolute sovereign, to repudiate, shirk, any of its acts or contracts (the Constitution repeatedly interdicts that lawyers' pseudo principle that the king can do no wrong," or the pope is infallible, etc.). The Amend- ment does not give or state such a legal right by its words, but is merely a legal evasive statement of such probable in- tention on the part of the grafters, but undoubtedly not the intention of the majority the grafters pretended to represent. So it is not necessary to repeal that Amendment, for it can obviously be interpreted justly thus:- upon the request to the Federal government of any person who has been refused redress by a state acting on that pseudo principle, the Fed- eral government may, in strict accord with this Amendment, and must, by the rest of the Constitution (and by all natural law and morality), institute a new, separate, and distinct suit of its own against the contract-breaking state for damages to the public welfare, etc. By such good Constitutional law those repudiating states would undergo on their own motion a quick and permanent change of heart, and pay what they still owe. Also, such practice would educate lawyers as to what the Constitution both says and means. i. The expansion of details of the last paragraph must be omitted. We can merely note the most essential fact:- that the Constitution explicitly provides a democratic or balanced-cooperative government or organization of officials, and not the line organization that we saw was flatly wrong in principle (§§37f, 167). The next section implicitly shows the meaning of that. Another important explicit agree- ment of the Constitution with natural law is that Amend. XVI allowing graded income taxes is a definite recognition of the democratic or moral principle (§§167-8) that men are not equal in a quantitative sense. That same principle is obvi- ously implicitly recognized by every definitely quantitative statement in the Constitution. And that Amendment is ob- viously also competent practically to stop inheritance of un- earned wealth (§168mn), if a definite basic law is needed. j. That makes the Constitution an enactment of all nat- ural law and moral law — except perhaps it does not definitely assert the morality of economy of time (although the whole of it does promote economy of time, as is implied in the next section), and except that Amend. XI is practically a blot and should be eliminated. §174. a. Many people hold that in practice democracy or the Constitution does not work well. E. g., Faguet thinks so, and gives such views emphatically (and what he fancies is proof of them) in a book called "The Cult of Incompetence" — his name for democracy. Many hold that the Prussian autocratic type of organization gets things done, while democ- racy can not — that democracy muddles along in a chuckle- headed way, and wastes, and wastes, and wastes. We have seen that theoretically autocracy, or the line or king or sanc- tion type of organization is absolutely wrong and can not possibly exist in reality. For, autocracy requires theoreti- cally an absolute superior to hand down orders without there being a reverse, equal reaction ("Theirs not to make reply"). Autocracy tries to go to infinity — claims in theory that it does. Socialism goes in the opposite direction from autocracy— to zero, in its impossible dualistic or equally aristocratic theory ; i. e., (as we see in §175) it theoretically has nobody giving orders (or as everybody is explicitly a government official, the government is or «>, just as we choose to say). Obvi- ously, in a strict theoretical sense both socialism and autocracy are impossible (Part One; specifically, Index, "increase of entropy"); and the two are essentially identical (as and » logically are the same), merely going in opposite directions. But if we take the two in a quantitative sense, as species of actually existing organizations which therefore truistically do not strictly go to those extreme limits that in a Many or act- ual sense are impossible, then necessarily the two are merely attempts to depart, in the two respective directions, from the balance; see Figs. 104b, 163b. So both are persistent in- temperances or aristocratic, and both are immoral and kill. Democracy is obviously simply the temperate mean between the two. We shall look at some of the practical details of that very simple principle — that of That...XThis... or of Social- ism... (<— Democratic reactions- ->) Autocracy... (cf. Fig. 104b). A more or less autocratic ruler (no absolute one is pos- sible) will usually get a thing done in a shorter time than a democracy will (if he gets it done at all). But it is not done so well or so completely. If he keeps on for a while getting the same thing done, its accumulated deficiencies in com- pleteness of being done (in L, formally) will amount to its not being done. Or, the autocracy will blow up, go to pieces, change into another sort of structure (cf. recent hist- ory ; and change of structure in Part Two resulting from any persistent accumulation of potential). b. A reasonable general conclusion is that those who prefer, or fancy they prefer, having things done in a some- what autocratic manner (we of course repudiate absolutely the impossible absolute autocracy or line organization), are those who tend to be somewhat impatient, and imagine that they could do things a lot better than other people (they are likely to take that radical," autocratic view if they have never done very much themselves: young people and labor leaders are much affected that way in practice, while often verbally make-believing with opposite-direction socialism). But all of the conspicuous autocrats in history so far have failed (gone power-mad and made quite a mess) — from Alex- ander down to Wilson, who made an extraordinarily good ruler for war, where an autocrat is needed. c. In democracy there is recognized a mutual natural (i. e., inevitable; see Part Two) interaction between parts of the Many. When two people in a democracy thus cooperate the first tells the second what he wants in the way of reac- tion. As there is no exact science he can not possibly tell the second just what he wants — he can not give an accurate or completely intelligible order or law. So, because the second has a recognized right (legal and natural) to react, he assimilates such part of the order as he can, and reacts with (l) an 'objection' to such part of the order as he thinks is unfitting (is not as accurate as he can make it, or thinks he can), and with (2) a question as to what other parts of the order mean, if he fails to understand them. Truistically, every order must theoretically (because of the infinite regress) have a part that is thus objectionable and a part unintellig- ible. If we are dealing with a keen man he will definitely perceive such two parts of each order: if we have a thoroughly disciplined" soldier of the docile Prussian type, whose busi- ness is "not to reason why," then his mentality or soul or nervous system has of course in some measure been destroyed by that "discipline," so that he will take an order as being "perfect" — as coming from a divine-right superior. Then, in our democracy, the first cooperating man after giving an order considers the second's objection and question, and re- vises the order if desirable. And that action-reaction con- tinues until both are sufficiently intelligible to each other and in agreement, to get the order done properly and well, to the satisfaction of both. It takes more time, of course. But the two men are helping, each the other, to get the thing done so that it satisfies both (so far as it was practicable for them §174c XIX Three UNIVERSE to go along in the infinite regress), and so they both grow and are conscious of living — are happy. On the con- trary, an autocrat will in ' first class" militaristic fashion bark his order at his theoretical slave (who in a first class" line organization is frequently definitely admonished not to think :- all autocrats try to keep the lower classes" ignorant; e. g., the Catholic church used to bury people alive for reading the Bible — "Ency. Brit.," xvii, 89l). And then the slave very promptly — on the jump" — goes in an unthinking (i. e., more or less dead) way and does a poor job which he does not understand or care for very much. Of course, an imbecile or even a horse can excellently perform some few trivial or- ders well — such as March ! or Halt! Obviously, the longer such orders are barked at the slave, the more stupidly he performs them, and the more narrowed he becomes- — except for the occasional toughly enduring one who steadily dislikes them. Also, the autocrat who barks them misses most of the possibilities of learning from the other person: the auto- crat does not have to think much (thinking is hard work ; so his order that the slave do not think is actually an order that the slave do not by thinking force him — the autocrat — to think :- theirs not to reason why, theirs but to do and die." ° Finally the slave (perhaps in the third or fourth 1740 Obviously, it is the work done under such autocratic or line organization that is the sort of work objected toby intelligent people. Clearly, that sort of work is what has given "work" most of its bad name; that sort can not be anything but painful and degenerating and debasing if it accumulates enough. For its characteristic truis- tically is that its need or use or place in the universe, or its relation- ship, is not perceptible to either the worker or the autocratic boss in Usually the worker knows less about its wider relationships than the boss; but the boss in turn knows less of its minor and internal relations, so he is subject to the same drudg- ery and discontent — as the inevitable result of not acquiring compe- tence at the job by using the democratic way of learning it. There is pleasure and joy in all work if its relationships (finally, its religious character) are seen; it is a normal rebirth (§166e). So the way to eliminate the sort of work which is objected to, and to elimi- nate the demand for shorter hours and other labor troubles, is (1) to educate the employer (and his agents) to stop being autocratic, and (2) to educate the employe to stop being a more or less willing slave who is too lazy to think and keep at thinking. Because of the infin- ite regress that simple and obvious principle will never be perfectly applied and we can never finish trying to apply it better. I shall give a few details of its present application:- Primarily, labor in general are mentally children, compared with employers; their lead- ers are usually men with very strong emotions and courage, but are deplorably weak and untrained mentally and hence short-sighted, and truistically unable to use any but autocratic methods themselves (the top leaders are of course honest; but many of the lower ones are too stupid intellectually to be honest). Ample evidence of all that, and of other quantitative facts I assert briefly here, is in the news- papers, and reports of investigations, trials, army tests. The major- ity in this country have tacitly long recognized that incapacity of labor, and have treated them as a class something like minors (not a fixed class: any laborer can leave the class in either direction sim- ply by evidencing changed size; obviously, the whole Constitution consists of dividing people into classes, into This... and That..., but explicitly not into fixed classes which disregard actual size or worth of men). I. e., the majority substantially exempted labor from keep- ing its contracts, from abstaining from conspiracies, and from keep- ing the peace. Now labor has developed into a strong, overgrown boy, and the majority are finding it necessary to class labor legally more and more with adults — and labor, like most boys in that condi- tion, is complaining, and demanding that people "stop pickin' on me." Of course labor should still be granted some of the legal privi- leges and immunities granted to immature persons — but fewer, as they in fact grow. The "one big union," the I. W. W., and the "closed shop" ideas are obviously the same:- an effort to make labor sole dictators, autocrats, or the lawyers' aristocratic "sover- eign." Of course it is wrong: but I rather think it better wisely to "ignore" the labor-children in that matter and let them wrestle with that problem of autocracy themselves; the rank and file of labor are suffering severely from the autocracy of their leaders, which natur- ally gets worse in the degree in which they succeed in getting closed shops, etc. Of course the rank and file should be shown what sort generation) sees that he is being deprived of most mental activity, and that there can be nothing worse to fear; so he then fails entirely to obey the autocrat and kills him — and usually take on the job of being autocrat himself. In the previous process of carrying out the orders he has learned more — the autocrat merely pushed the button, and truistic- ally the longer he is an autocrat the more incompetent he becomes. So even in that autocracy there actually is a re- action. It is the final reaction of the slave s killing the auto- crat — in that violent way taking his turn at objecting and questioning. After many such fatal cycles, in a steady cli- mate both autocrat and slave learn to see better, and with such mental growth learn the advantages of less violent ways of getting things done. So obviously, in the autocracy in the long run advance in doing things properly is slower than in a democracy. But in an autocracy particular orders are exe- cuted with far more speed (provided they are made trivial or detailed enough — such as the orders for marching through Belgium in 'steen volumes, none of which worked well), but with steadily decreasing morale ' or life or happiness or ef- fectiveness. So in a democracy, if it is agreed, as in the late war, that for a while it is imperative to get things done quickly even though a bit poorly and unintelligibly, then such autocratic barking will produce at once extra- ordinarily effective results (and incidentally a large crop of the power-mad, composed of men who have to be entrusted with imitation money or authority). But obviously, that sort of autocracy can not continue and produce good results; truis- tically the incompetency would accumulate until the whole thing blows up (e. g., the last election was the slaves' present-day moderate way of eliminating the power-mad Wilson, who ran a fine autocracy). An autocracy (also, a socialism) is the sociological get-rich-quick scheme. d. It is thus obvious that aristocrats — kings, military autocrats, priests (with their identical-twin brothers:- soc- ialists or savages; §175) — have been a necessary stage in the growth of the race or advance in civilization. They violently emphasized — at two extremes — that there was more life when there was perceptible social organization (or division of labor; §170). So they proceeded to make classes, or divide labor — probably back in the prehuman stage. Naturally they did it violently, crudely, coarsely — by our standards; but they were doing excellently by universal standards. And that lumbering, slow-moving, nearly imperceptible, and us- ually verbally denied democracy has, after a million or more years, become our conscious democracy. e. In a democracy a thing can not be done to the com- plete satisfaction of both parties to the reaction (par. c). The democrat truistically has intelligence or "life" enough to see that, and 'object' (we see the incompleteness of our actual of power-mad baby -czars they are suffering: and legal measures should betaken to see that employers who do not care for the closed shop, and the public, are protected from the unions' breaking the peace; and that the unions keep their contracts. There should be temperate, non-autocratic labor unions, of course. Some reasonably strong organization of labor is needed by employers to keep them re- minded of the fact that they must not be autocrats. I think the facts are that most actual employers today are intelligent enough, and have enough self-control, to act democratically— and do do so fairly well themselves; the actual difficulty is that the larger ones have to delegate much of their job to agents (managers, foremen, etc.), and those agents haven't the capacity to be democratic— and it is a huge job to impart it to them. Finally, as employers are quantita- tively superior in most of the characteristics that make a man valu- able in industry, then by the principles of genius (§164db), or free speech (§169h), or democracy in general, employers should let labor make young asses of itself in various ways (as it has been doing) and still be patient and make no more reprisals than they would on their erratic college sons; and by the same principle they should initiate ameliorations in the lot of labor which are just and pay—no charity. 239 UNIVERSE Three XIX §175c handling of the infinite regress). (So, incidentally, because there is so much conscious 'objecting' or perhaps divine dis- content" as a needed part of democracy, short-sighted peo- ple mistakenly conclude that autocracy is better — for in it dissatisfaction occurs as a matter of course and is dully and silently accepted, as per lese majeste and gag laws: 'theirs not to reason why, theirs but to do and die.") Because of such failure of perfect satisfaction, and objection, obviously one party of men in a democracy are conscious that they can not advance faster than another party ; so a con- scious balance, or majority rule (§l7lk) is willingly sought. Nature of course forces an autocracy to keep in balance; but the autocratic pseudo theory denies it, and each party tries to deprive the other of satisfaction (i. e., push it down; the euphemism is:- keep it in its place"); so naturally, as soon as such people thus stupidly accumulate a violent unbal- ance, an objection in the shape of a war restores it. f. So a democracy as a truism of its nature tries to edu- cate its members. Any democratic reaction (cf. especially par. c) is, truistically, education — a drawing out of the vision or activity of each party ; which is the reverse way of saying that each party gives to the other love or more abundant life. An aristocracy (autocracy or socialism) is simply a more vio- lent natural or unpremeditated education, and hence is suit- able for the callous people who need such violence in order to begin to perceive. The reader will note that our theory does not condemn" aristocracy, but simply concludes that it is good for those who need it. So democracies de- liberately set about training the spirits and-or bodies of their children so that they can react well in a democracy. Usually only the formal training is called education. But it would necessarily proceed, when consistently done, as democratic reactions ( work," etc.) of a character graduated to the per- ceptions and mental endurance of the children — and it would not stop except at death ; at a certain stage the apprentice- democrat will be put at producing reactions of immediate use to others, that stage theoretically beginning at three or four years of age, and the apprentice part of it (or stage of partly earning a living") being completed at from sixteen to thirty (in practice, of course, the child begins to support himself more abruptly). That lengthy last sentence generally de- scribes a consistent education: I omit the volumes of expan- sion. Dewey, in "Democracy and Education, gives an extraordinarily sound consideration of the principles of educa- tion which is based directly on the democratic principle — on That... X This... . The reader can get the rigorous expansion in that book, which I think is the best statement of the gen- eral theory of education that has been written — and there are many good books on education. Dewey shows (ibid., XXI V) that the formal subject of education (which he there names philosophy, just as we here name it democracy) sums into infinity or religion — gives a rebirth. g. Education worthy the name is truistically an all- 'round" education (one that at least in effect recognizes the infinite regress) which finally gives ability to estimate the meas- ures of men, and hence to react cooperatively with them. Aristo- cratic ideas of education considerably neglect that summing up, erroneously emphasizing the need of an accumulation of facts. Just an accumulation of facts is not education— a tru- ism so obvious that I shall not waste the reader's time with a proof of it. Democracy gives balanced education, as seen ; so circularly, valid education gives democracy. So truistically, a sound education gives ability to be useful to others. It is not a private affair in which the scholar stuffs himself with more or less dead and rather useless classics and then fancies that he feels pleased because he has spent so much time prinking his brain, and is superior in knowing rather dubiously applicable stuff. All facts can be useful, of course (just as the kaiser is beautiful; §25c). So education is measured by its practical or Many usefulness — which is the same as saying that we must apply to it the theory of value (§168). The most definite measure of usefulness is money. So Taylor s principles of educating or management, which insist that at least some money measurement be required, soundly formulate a democratic measuring rod that had been increasingly used by men as they have developed in keen- ness, delicacy, and definiteness of perception or living. §175. a. As noted in §174a, socialism is essentially the same aristocracy as autocracy : it merely would strive to be intemperate by going in the other direction from the balance (Figs. 163b, 104b). Autocracy would go to the extreme Many limit of having one man give all orders, with no reac- tion : socialism would go to the opposite extreme of having everybody equal in the government, so that again there is no reaction. There is little agreement as to what socialism" means. I shall give a consistent statement of its possible meanings, assuming that it is different in some way from democracy and autocracy ; and if people who call themselves socialists can not find their beliefs included in those meanings, then they are in some degree either demo- crats or autocrats, and would be more intelligible if they named themselves conventionally. b. Numbers of high-minded and generally admirable men view the race as being very emphatically an organism, or a One. It is, of course. Then they call that One socialism. Or, they name the universal relationship of identity or "brotherhood," socialism. Obviously, as a One word, or as a relationship or Holy Ghost word, socialism is permissible and sound. But sociology, or some such phrase as communion of saints or human equality or brotherhood of man, is the more conventional One name or relationship name. In that sense socialism is of course a synonym for democracy, or for any other of the numerous One words or relationship words — and is of course absolutely ineffable, meaning nothing definite until it is put in positive That... X This... terms. Many of those admirable One socialists admit that they can not give such a statement. They simply mean that they prefer to be religious in terms of human beings:- Other men. .. X Us. . .= Socialism, or Human equality (i. e., identity), or Religion. Us- ually those men begin to describe democracy as well as they can when they shift to positive Many words; in practice they are democrats, with a tendency to have more faith than the average in the capabilities of government officials — which of course makes them better men than those who have a faith less than the actual facts warrant. The objection to such high-minded or religious socialism is that it does not say what it means very well, and so is a cat's-paw for scoundrels. c. The socialist who expresses himself in Many terms, especially the extreme socialist, usually definitely states bis aristocratic belief in fixed classes — and their antagonism. In practice at any rate, his difference from the autocrat is that he believes that his class, the proletariat or working" class, is the "superior," and should rule — and should, as the mildest view, seize all property and distribute it equally," what- ever that may mean. The justification for that is that autoc- racy doesn't work, and is unjust [that is true; but it does not justify the same methods by a different set of men]. Such definite socialism was mostly made in Germany, largely by Marx — although the idea and practice of socialism is older than the race (see next paragraph). (The technical logical objection to Marxian and Many socialism is that it is materi- alistic — a dualism so obvious that I won't waste the reader's time with formal statement of it.) The reason is ob- vious why the socialist should fancy himself the opposite of §175c XIX Three UNIVERSE 240 the autocrat in principle, whereas he is merely opposite in direction and is also an aristocrat:- The autocrat does have a perception of the natural relationship or ultimate identity of men. So he vigorously does something about it: he pro- ceeds to organize men, so that they percepiiby to themselves get that religion in terms of humanity — and along with that fuller mental life truistically get « higher material standard of living. The autocrat naturally exaggerates that idea and doing, in order to pound it into the duller people, and he shortly reaches the limit of his capacity and begins to fancy that he personifies the relationship — that being the divine right of kings (and the weak ones he lifted out of animal sav- agery also highly appraise that great work). The autocrat does act by the idea that if a little is good more is better: but I have trouble myself seeing in practice that that isn't so past the point of balance, and nobody can judge exactly where that point comes. A socialist sees that relationship of man, and he sees the autocrat's mistake of going too far. So the socialist thinks he can personify that relationship by talking about it and keeping everybody from the intemperance of the other or more material sort of doing into which the autocrat fell. And the socialist promptly falls into talking intemper- ately — personifying himself more or less as a sort of abstract mouthpiece of the divine human race. And his verbal intem- perance is usually atrocious. As seen, democrats try to balance talking and doing" — in practice act on the fact that mind is matter. So truistically they are conscious that ultimate relationship, unfailing cause and effect, does exist, and that there is no need to exaggerate either aspect. So democrats do not have to symbolize the divine right of the autocrat or the socialist by a lot of fuss and feathers, a special ship and entourage to get to Paris, glittering uni- forms, high masses, the dirty collar and hair of the "high" thinker, etc. The objection to those symbols (more import- ant than the time and money they waste) is that we are prone to forget that they are symbols, and take the idol for the re- ality. In democracy the real boss or acting person constantly changes, the person who gives the reaction becoming the boss or acting person. (Of course a moderate amount of sym- bolization of the person who is expected to do certain acting is convenient.) The essential thing that makes red tape be red tape is that a Many formality is erroneously substituted for an existing relationship: red tape is idolatry in trivial things for trivial people. d. Socialism therefore truistically means in theory abso- lute government ownership, everybody a government official, and no division of labor. So there is nothing novel about the practice of socialism. It is simply a new name for the way in which solitary wild animals live:- Each member of the species (except when nature forces some democracy upon him in the form of temporary family : perfect socialism is im- possible) takes what he wants when he wants it (or else fights for it, if another animal disputes the want). He does every- thing especially for himself, and hence gets ail he produces. I. e., property is common; and there is substantially no spec- ialization of work with its necessary reactions or 'law' or ordering' between individuals. Each animal is in the "gov- ernment," holding an office equal to any other (except for unavoidable natural sex, etc.), with natural result that there is no government in any ordinary sense. Clearly, perfect socialism implies (l) an impossible quantitative equality, or (2) the impossibility that two finite beings can not interfere in finite space. But the sincere socialists can join (if I may say join') the solitary animals and at once have their Utopia as closely as nature permits. Thus socialism practically is extreme savagery. Most savage tribes of men are on the up- ward path to democracy via a violent autocratic reaction from that worse savagery, In a One sense we all are in the government, and we all are equal (to the universe or God or infinity — which ought to be enough to satisfy a reasonable person), and all property is under the government (even the common law asserts that). e. Possibly no socialist would urge going to the extreme of animal savagery. But it has become obvious that both the socialist and the autocrat are aristocratically fancying that they should (in opposite directions) get a government with fixed classes — with of course fixed superiority (and its ma- terial symbol or measure:- money or property) for his re- spective class. Both being contrary verbally to natural law, each fancies he is fighting the other: actually, the two are naturally interacting, but doing it somewhat violently and painfully — nature s method of pounding sense through to their consciousness. The democrat is the man with sufficient intelligence to see the actual principle, and to desire a bal- anced cooperation of Citizens and their property... ^Official government and its property ... , or Labor... XCapital... . 175e 176e Ultimately, all the unbalanced theories of the socialists and of the autocrats are simply a demand for more life, more activity, more "good." Those unbalanced theories are-is a selfish demand — an excessive demand — of ignorant persons for the right to live — for self-preservation. And that demand usually practically takes the form of a demand for the ownership of property — regardless of the disguises it may wear. We saw (§164d) that it is a fundamental law that all of us, as a payment for existing ourselves, must allow others the "right" to exist. So far we mostly have discussed that "right" in terms of people — giving democratic reactions between people. But it was definitely stated that the right to exist truistically involves the need or "right" to react with so-called material things. And such things are property, as we shall now see (money is the general repre- sentative or measure of property; §168h). Mostly I have discussed relations with people because people are perceptibly moving and vari- able, so that the balancing of reactions with them is more difficult than a balancing with property, which is less variable and exacting than people:- land will not usually move away, or actively hit back; and a cow is not so difficult to react with as a spouse. So it is com- paratively easy to get the principles of property and keep balanced with property. But that does not lower the intrinsic importance of property in human life. In any normal life it is just as imperative that property be temperately owned and handled as it is that we be temperate in other things. I must omit volumes of details of prop- erty : but such details are important, and must in actual life be given an equal place with personal or so-called spiritual democracy. Clearly, if by agreement we allow the "right" of existence to each normal man, we truistically allow some similar quantitative right to the "material" means of existence:- food, shelter, clothing, etc. Thus we allow a right to property:- for if anyone deprives a man of material air or material water, the man will die; and the same prin- ciple applies to all other property in varying quantitative degree. Volumes on that variation in degree must be omitted (e. g., just what does a stockholder in a holding company own?). But we may here summarize, and consider the essential part of the right to property :- which is the indispensable right to "own" (i. c ., as surely and posi- tively control, or anticipate-all-the-reactions-of, as is humanly pos- sible in such a quantitative matter) land, that is possessed by each person, and includes the equally indispensable right to some water, air, and produce, that goes with the land. The principle of each per- son's right to such property is that truistically he has the right in proportion to his own reactive or cooperative measure of worth as a person (with proper distribution as to T during his life-time— a huge quantitative subject of pensions, minors, etc., which I omit). If his reactions with other men have a given value or quantity, then as a simple truism he has a right to control or own an amount of land which is the same fraction of the total land (measured by its useful- ness or desirability) as his work is of the total of all men's work (measured the same way). So obviously, as the next inevitable tru- ism, socialistic talk about dividing property equally is glaringly im- moral, as men are not quantitatively equal. That principle of ownership needs volumes of expansion into practical details. The chief need in that expansion is to consider the matter dynamically. One of the gravest troubles men have had has been in more or less accepting the static, dualistic proposition that if a man once gets legal possession that possession becomes a fixed, unchangeable fact, an eternal aristocratic "privilege"— so that property accumulates by inheritance in the hands of a privileged few who neither earned it in 241 UNIVERSE Three XIX §176b f. Men ordinarily are normally at a given time some- what slightly unbalanced pleasurably either towards more centralization or autocracy in official government, or else to- wards more socialism. Those varying classes form two nat- ural parties; but it is not possible to give steady names to the two, for as soon as a party becomes too violently auto- cratic (e. g. , the Wilson administration) it automatically flops over or reverses to a dangerously exaggerated socialism. And as both extremes are radical, names of parties tend to reverse- — as has occurred several times in our history (and during the confusion a substantial third party arises tempor- arily). So truistically the most highly moral or balanced man will change from one party to another, remaining always in opposition to the party which is most unbalanced. The in- telligent men thus hold the balance of power in a democracy. g. As a practical fact, Marxian and similar socialists are rather ignorant persons, and fail to seethe difficulties of man- aging a large organization, and particularly of getting one made. They rather fancy that simply to name a man gen- eral manager will automatically enable him to run the largest railroad properly — will make him in facta, general manager — overlooking the truth that actually generations of toughening and sharpening of nerve fiber is needed as an educative pre- liminary to prepare a man to begin to see' a railroad system. So the ignorant and sentimentalists tend to want government ownership expanded. And there are many selfish persons calling themselves socialists who think that they can manage to grab an easy job if there are enough available — thereby in effect admitting that they expect to see socialism fail. Those socialists are in principle identical with the autocratic politic- ian who in his heart believes that to the victor belong the spoils." On the other hand, the autocrats, with a stupidity going in the opposite direction, exaggerate the dif- ficulties of that job; but by then inconsistently fancying that they personally can measure up to it, at least in prestige, "pull," etc., they insist that it be quietly given to them to be run by divine right. ■ The democrat has to estimate men in fair agreement with the facts, and steer between those aristocratic exaggerations. Being a democrat is a hard job. §176. a. So the success of any human organization de- pends upon the size of men. The limit of the organization here is one man reacting democratically with all the other people in the world, as a perceptible organic whole, or as a world state or league. b. That single organization would, from the human fact nor pay for its continued possession (except by personal deteri- oration and crippling; §168d). Socialism is the natural reaction against that erroneous static view; socialism usually exaggerates equally in the opposite direction. But at the same time even the autocrats usually accepted theoretically the principle which annulled or compensated for that exaggerated static practice:- that the legal owner of property owed continued proportional pay to other peo- ple in return, usually called a tax. And as we shall see (footnote 176d), owners paid too much as taxes (but apart from that brief note I must omit that vast dynamic expansion). The compensation made for their error by the socialists is their personal discomfort and all- ' round failure and more or less approach to animal-like squalor, that gives us the valuable evidence that we do not want socialism (as a well known practical fact, as soon as socialists bestir themselves to do something more than talk, the primitive savagery they begin to exper- ience is ample lesson for them, and they reverse to a rather extreme autocracy) My general guess about property is that there has been and is now an astonishingly just perceptible distribution of wealth; but people's statements of the principles on which they fancied they accomplished that distribution are just as astonishingly wrong and self-contradictory-being one long series of emphatic make believes (due to the simple fact that as both socialism and au- tocracy in practice say they will take your property if they can it is the part of wisdom-except in democracies, where the reverse holds -to conceal what you have, how you got it and where, and what you are going to do with it, etc.). point of view, chiefly require a man of so much strength that he would not go power-mad ; and of such keenness of vision for details that he would not be afraid of too many unknowns and as a result be the opposite of power-mad, and so worry himself into uselessness and red-tape (all autocrats, circularly, have attacks of timid red-tape; cf. §169h). Or, the nominal head of the people of the world could be a commit- tee of some sort — a collection of men. However, one man (by the principle that no two men are quantitatively equal) would actually at any given time lead the committee and be the head of the world. But, in the usual committee the men are so nearly equal that no one man can in fact lead for long; so the responsibility is practically divided, with the truistic result that the committee is a socialism, and dawdles along not doing much ; and even worse, when the committee is so large as to be called a congress, the nearly-equal mem- bers are liable to spend time in childish bickering, irrelevant to their duties, in what is actually a comparison of strength — unless some man is strong enough to sit on them. The advantage of a committee is that if the strongly-working real manager of it goes power-mad he grows weak, and another man in the committee is in duty bound to replace him: the committee-scheme automatically puts the proper time limit on its members. A committee is also a device that allows the person or persons who select it to have several guesses as to who is the man able to do the work. So a committee, or triumvirate, or legislature, etc. , is itself in principle » rather unconscious or slow-moving democracy, which inclines toward being a socialism if the members are mediocre and about equal, and toward autocracy if it has strong members who begin to go power-mad. And from the point of view of environment, that world state, if it is to be a fairly per- ceptible democracy (is to exist in fact), requires that there be sufficient celerity and explicitness of communication, both mental and material, between that one man and the others to enable him and them to act and react perceptibly (and similarlj', but in varying degree, between any and all other combinations of men). E. g., if some men steadily insisted on departing from the democratic balance, then that one man must have that fact communicated to him soon enough to en- able him to react (before they went far enough to damage themselves or others much) — that being an effort to educate them into a desire to go towards the balance. Then if after reasonable reaction of that sort they continued to act so as to break up the democracy, the communication should be suffic- iently good to enable others to see that the recalcitrant or "lawless" ones were defective in some degree, and to have them either restrained, or killed, as expedient. Evidently, communication inside the United States is such as to enable the Constitutional government and the people (who have been trained into sense enough to use it) to do precisely that — and do it rather definitely, although slowly in come diffi- cult cases. But I think it is obvious that it could not have been done here two centuries ago. So from the point of view of communication, a world state at present will work with some perceptible defects. The principles of harmonic periodicity will apply to it: and so it is quantitatively pos- sible that a world state would be of such a size that if nomi- nally formed it might be out of harmony with other world quantities and break down — with disastrous damage in the exploding. On the other hand, communication is now so good that we already have considerable of the opposite de- fect:- of being pained because we have messages or things we can send and want to send to others, and there is no or- ganized (definite) agreement that those others will take them. If we arbitrarily get in the way of a world state that by the same principles of periodicity is about to form naturally," §lT6b XIX Three UNIVERSE 242 we also shall get hurt, just as if we stood in front of a moving train. And as communication (under a steady climate) is constantly improving, that pain is constantly increasing; and we shall be forced sooner or later definitely to organize the communications (establish a world state), just as the thirteen colonies had so much trouble that they substantially had to make the Constitution. It is a question of quantitative judgment as to what we ought to do now. c. So if we think we can steadily get a man who is of sufficient size (replacing him fast enough to keep him from going power-mad or the opposite, and at the same time be- ing able to leave him in office long enough to learn the job), and if we also think that communication is good enough, and if we think that the various peoples have sense enough to try to react democratically a little (to hold up their end")> it follows that we shall be consciously conforming with natural law to establish a world state. We of course are already more or less in a world state — in a universal state, for that matter (with gravity reactions, etc.). If we had a more conscious, more explicitly organized state, it would truistic- ally give a more abundant life, in terms of cash and every- thing else. But if we pretend to run a world state and in fact do not, we destroy some of our life (unless we have the strength to pay highly for a while for the education, and are able to survive the violent civil war explosions). So if we fail to start a world state at once it is because we are afraid to tackle the unknown and do not amount to much as men, unless there is fair quantitative evidence that it would fail, in which case to start it would be reckless stupidity. In that latter case the part of wisdom is to build up a world state gradually for a while longer by more definite treaties, postal and similar conventions, international courts, etc. (which is precisely what the thirteen colonies did for some years, un- consciously acquiring education for the final definite crystal- lization). It is a quantitative problem. No man can be absolutely sure which way it should be decided. I omit my opinion in the matter (see footnote 172c). d. If it be decided to start a world state, the determina- tion of the principles of the organization is easy. They are in our Constitution, and are simply the principles of democ- racy, or of That... ~X.Th.is... . There being no exact science, the application of those principles truistically will not work perfectly. No man, from his personal or imperfect Many point of view can be satisfied with a fairly just democ- racy or balance ; from such a point of view any sort of fair balance in-a world state involves his making sacrifices. But those are his payments for what he gets in return. We have seen throughout the book that it is impossible to get some- thing for nothing. Because consciousness is life, truistically the intelligent man wants to know he pays, and how much; and the highly intelligent man (as shown in §§164db, 169h, footnote 174c) wants to initiate payment — pay first; sacrifice. We need an apparent digression:- that it is thus rigorously truistic that an indirect tax is wrong, immoral, and bad busi- ness (i. e., in a democracy; in an aristocracy it is an evil needed to compensate; cf. last of footnote 175e). 176 I76d Xhose remarks on taxation, and the more explicit remarks in par. g below on tariffs, are true only in rigorous theory. As will im- plicitly appear, customary methods of indirect taxation more or less correct conventional errors in principles of taxation; and such prac- tical balancing is of course correct. The orthodox theory of taxation is that taxes are "a self-levied contribution which each man pays according to his ability" (Hadley, "Economics," §498) so that it becomes an unsolved 'question "whether we should try to tax the strong man at a relatively higher rate than the weak man" (ibid, §517). Thus it appears that the orthodox theory is uncertain; but that there is a general view that in strict justice all men should pay an equal fraction of what they receive, although orthodoxly, in prac- tice perhaps it is better to tend towards having the poor or weak man Most of the people who agreed to our Constitution made sac- rifices, and were willing to do so (as is proved by the fact that they did). That is largely how it happened that the Constitution is so extraordinarily good :- it was consciously paid for by everybody, without any perceptible aristocratic privileges being given as bribes — no log-rolling. To form a world state, various nations would consciously have to pay for the organization at once and would not very perceptibly pay a smaller fraction (speaking in economic terms of concrete wealth). Both those general ideas of taxation (equal fractions; and the weak a smaller faction) are wrong (even with regard to un- earned wealth got in an aristocracy by inheritance or grabbing; then the correct principle is that all which is unearned should be repaid). The successful, "wealthy" man in a democracy, usually in just- ice ought to pay some smaller fraction of the concrete wealth (property; money) he gets, than does the less successful, "poor" man. And it is a continually asserted quantitative fact, which prob- ably is true, that the successful man does thus "pay less than his share" — which probably shows again that we act better than we say in our make believes. And the way we achieve that probably correct result, in the face of a wrong orthodox theory, and sometimes in the face of actual efforts to make the successful man pay a larger fraction because he is "able" to, is to levy indirect or secret taxes. They of course get passed on to the poor nearly entirely (in ways so simple and well known that the person who is not a fool or a self-blinded aristocratic grabber scarcely requires statistical proof of it, although that can be got from many stock-selling circulars) ; and that serves to restore a correct quantitative balance. The really correct thing to do glaringly is to state openly that an indirect tax is wrong (fit only for savage socialists and barbaric autocrats, and naturally tend- ing to make us similarly blind and partly dead when used on us), and that we won't use it but will directly tax everybody, taxing the successful some agreed -on smaller faction of their wealth (putting the aristocrats in jail, if such extreme measures are needed to stop their grabbing). The rigorous truism (footnote 17Se) is that a man should return to society services equivalent to what he receives (that is the truism that action equals reaction, which we have seen is universally true; the orthodox theory of taxation is wrong in that it expresses that truism only partially, as we shall see). Obviously the "successful" man in a democracy (who is not always rich in concrete property, although he usually is nowadays) is one who of his own initiative or enterprise, or at least without being "watched" or sup- ervised by others at the expense of much of their lives, gives all the work or reaction that he can. The successful man gets useful things done: gives better products and methods, etc., that help us all indi- rectly. The unsuccessful or really poor man is one who fails to give much reaction to others, doesn't like his job or care to do it well, or has to be watched by foremen, policemen, etc. So what he gives to society is meager and of poor quality; but he usually puts energy into demanding good pay, and consequently ordinarily receives much more than his fair share of concrete pay — of wealth. So as a rule the successful man has already, before he comes to pay taxes, given pro- portionately more to society than the poor ones. So he ordinarily should pay a smaller fraction in taxes. It is a quantitative proposi- tion, of course with a few exceptions: the rigorous theory is that the man in a democracy who has deserved little should pay a larger frac- tion of concrete taxes if (as is usually practically unavoidably the case) he gets a larger fraction of concrete pay. And it is clear from the fundamental theory of taxation (the theory of That...~X This...) that the best hope of achieving reasonably just taxation, which next to honest money is perhaps the most important economic balance wheel, lies in taxing people from several points of view. I. e., no "single tax," no solution of the infinite regress involved in taxing a single sort of unit of a man's wealth is practically soluble very far out, and so it is better to try to average the important items of wealth. Any single thing, such as land, could theoretically furnish a just base of all taxes. The practical difficulty with the land single tax is in determining just who owns or controls or uses a given bit of land (e. g., as one of thousands of equally difficult questions:- How much use does an aviation company make of the land it flies over; or may it drop monkey-wrenches anywhere free of charge?). That probable solution of this quantitative problem of the base of taxation is opposite that of the base of money (§168h); for it easy to deter- mine the actual controller of a given piece of actual money. And obviously, the foregoing general theory of taxation fits with the actual general practice in this country (except that we are a bit vague yet about putting a profiteer or financial aristocrat in jail if need be). So it would be intelligent, and save much money, to enunciate and practice those simple principles openly. 243 UNIVERSE Three XIX §176g get repaid for a time. So obviously, any world state will have to be made largely on credit (T), by the able men who can work now for a benefit in the future — just as most large busi- nesses are made. There would perhaps be an immediate spiritual" return in some dropping of the tension of national distrust and refusal of credit (which distrust is concretely shown in expensive armaments) ; but many people are too defective nervously to see that (especially some armament makers who are quite similar in every way to liquor dealers; §166h). And it is certain that some men will betray that trust: the aristocrat we have always with us. If a nation in the world state betrayed the trust we could not put it in jail or an insane asylum; and the milder equivalent, ostra- cism or boycott, might not work ; then we would have to kill it off more or less — perhaps a more unpleasant and expen- sive business than not having such a world-state obligation. e. As we have seen, democracy is a conscious effort to approach a balance, and truistically if successful prevents war — which is the social surgery needed to cure an unbalance which is bad (§149n) — the attempted cure for hell. When the pain of an unbalance becomes great, the nation with the weaker nervous system becomes maniacal first and starts the war. The nation that keeps on preparing for war more in- tensely than another nation openly admits its fear of the other; and such open indulgence in cowardice (footnote I70r) and babying of its nerves" will truistically make it wear out its nervous systems, just as any coward who gives way to his fears gets panicky : and it finally starts a war as a welcome_ relief from that pain of fearing — often becoming so crazy with that pain that it sincerely fancies the other nation at- tacked first. Obviously, any aristocracy, in consistence with its pseudo principle of repulsing the other nation and grab- bing from it a place in the sun' and any other little thing, must keep piling up its preparedness as much as it can (thus, by the unavoidable laws of nature as just seen, giving way to cowardice and destroying itself). A democracy tries to approach the balance, but it recognizes the inevitable nat- ural fact that always there must be a fringe of defective aristocrats at each end of society (§168 p) ; hence, democ- racy forms a police force large enough to take care of the probable number of aristocrats who will go insane enough to need watching or become violent. But as that police force is an admission by the democracy that its educative efforts have inevitably failed of perfect success, it will truistically try to reduce the force. And that being in accord with natural law, all other advantages follow:- the democracy does not become cowardly, or panicky; it saves expense; etc. f. There are three sorts of extreme pacifists in theory (none in practice, as the theory is quite wrong and can't work) :- autocrats or militarists, socialists, and religious ob- jectors, (l) The theory of the autocrats or militarists is that they will prepare so thoroughly that they can or will lick the rest of the world, and thus there will be absolute peace. It doesn't work, as we just saw, but it does superficially sound nice enough to delude those extremely pacific militarists. (Another pet delusion of those queer pacifists is that pre- paredness" is national insurance. Insurance is distribution of a risk over L and T. The risk of war is naturally distrib- uted over the whole nation, so it is merely silly to talk of distributing it further. And as regards T distribution:- in- stead of storing up wealth, as insurance premiums, to pay for war when some other extreme pacifists become violent, they spend it on "preparedness," and then have to get more out of an impoverished nation. But a police force is, intelli- gently, an admitted expense— what it costs a democracy for its failure to teach extreme pacifists to think.) (2) The so- cialists in theory are extreme pacifists in that they would have everybody an official of a single world government, so that there would be absolute peace because there would be nobody to fight. Incidentally, they in practice will first wage a war of extermination on those who disagree, (g) The first two extreme pacifists claim they want absolute peace, and are willing to fight for it. The third sort is the religious objectors who are going to get absolute peace by refusing to fight. Obviously, their religious scruples' amount to try- ing absolutely to confuse the One and the Many; also, they deny that anything can be intolerable and they thus practi- cally deny the One or religion (§169d), and force sane men to restrain them or kill them — which is war, merely under its zero name. So the difference between the aristocratic preparedness and the democratic preparedness is this:- the aristocrat has a fake panacea for war (in three guises) that actually produces or is an unbalance or disease for which war is one cure; so they consider it admirable to increase their panacea" or armament: democratic preparedness recog- nizes that war is a last (or surgical) cure for a bad disease, a definite admission of democracy s imperfection and hence an armament or police force that we want to keep as low as possible. The aristocrat boasts of his preparedness, and flaunts it in the face of the world : the democrat regrets the need of his preparedness, but tries to keep it adequate to deal with the probable number of rather crazy aristocrats. A genius with words can do the race an enormous ser- vice by inventing good distinctive names for the two things :- democratic preparedness and aristocratic preparedness. g. The next general quantitative result of a world state, or partial trial at one, is that it tends towards an economic balance, and so repudiates commercial exploiting or repul- sions. In short, as is definitely recognized in effect by the Constitution (Art. I, §X, 2), any tariffs or imposts, or duties on imports or exports, between the parts of a democracy tend to disrupt it and destroy life, and so are immoral and explic- itly forbidden. As a truism there must be free trade (even though there is no formal world state) if we are to be moral in our economic relations with other nations : the instinctive conclusion of mankind is glaringly to that effect, as is proved by the fact that at no time in history has appreciable moral stigma attached to smuggling. A tariff for revenue only is an obvious logical self-contradiction, and so spoils the brains of those who try to "believe" it:- for it truistically by the infinite regress protects some industries. Also, a tar- iff that is merely thus largely for revenue is an indirect tax, and immoral on that ground. If infant" industries need to be protected for n time (and they practically do, as will implicitly appear), a direct bounty is obviously the open, non-secret, moral procedure. But that protection of infant industries is moral only temporarily; it is immoral and para- sitical for anyone to accept aid long, just as it is for a grown child to live on his parents — and as unlovely. (I have heard of "key" industries: any argument for continued pro- tection for such is merely the wailing of a spoiled baby lacking in resourcefulness and self-reliance ; for rigorously, no industry or part of the Many can be absolutely essential or changeless.) In the long run, if you are unable to get better or-and more work delivered to you for a given price from me, than you can from any other laborer on earth, then truistically that laborer ought to do it for you:- for I am not of superior clay that you should take poorer work from me. You might today take my poorer work, if you thought that I would thus learn, and tomorrow give you so much better work than anybody else that you thus gained in the long run (that shows how a bounty for infant industry is right, just as it is economically right to support a child — and a volume of details on the two subjects is omitted:- e. g., the parents §lT6g XIX Three UNIVERSE 244 ordinarily get their money repayment for supporting a child directly from society at the time [not later from the child], the care of the child increasing their earning capacity). In the long run you are immorally wasting human life if you do not buy in the best market:- your life, the life of the better laborer, and that of the poorer by making him a privileged aristocratic parasite. So the intelligent, democratic way is obviously to stop putting up those immoral tariff barriers to the best market. We shall usually prefer to react with those closer to us if they actually prove themselves to be friends by giving us good work (they have the economic advantage under normal conditions of being at less expense for trans- portation, and our inspection of the goods). But if a heath- en in the other hemisphere can prove himself the better man by overcoming that natural economic handicap, then he is a better friend than the slack, incompetent workman next door. The biological and other human ways in which poor workmen get the job in an aristocracy and then pay for their privilege are these:- They verbally tell the aristo- cratic, fiat ruler that they depend on his protecting them, and standing for their poor work; they thus acknowledge that the aristocrat is superior, and that they (all tariff-protected business men who approve the tariff and all union-protected workmen who approve making the employer pay regular pay for poor work) are rather worthless, and they thus confirm the aristocrat in his power-madness at the expense of degrading themselves mentally — it is the road to uselessness. The aristo- crat is similarly debased by that self-abasing, incompetent, and lying adulation, and his business is always really in an unhealthy, running-down condition. The good business man obviously can not afford to be tariff-protected, as it makes him soft and flabby, and wastes his time running to Washing- ton with whines that not even a self-reliant baby would emit, and worst of all it costs him the public's good will. And in precisely the same way the labor unions can not afford their aristocratic game of protecting incompetents. h. The last general quantitative result of a world state, or partial one, which I shall consider explicitly is the racial one. Because of the comparative difficulty of transportation and communication in past ages, various races have stayed rather steadily in somewhat different environments (climates) and truistically have lived at different rates, and so are now biologically different in a way which can most intelligibly be expressed as different virtual ages. The difference is so slight as not to cause mutual sterility (no doubt such sterility oc- curred in the past, and by the principles of periodicity nature promptly eliminated the weaker), and to make it unprofitable to give specific comparison here of such ages. Truistically intermarriage of those races produces a biological unbalance, just as the children of a couple of the same race wide apart in age are noticeably variable. Some of those half-breeds have little survival strength; a few are a mixture which is better than either parent stock (and of such half-breeds we spring). We have almost no knowledge of what crosses are good in the long run : it truistically clearly is silly to say that we imperatively must preserve racial purity." And equally clearly and truistically one race is not essentially superior to another — merely quantitatively different. Truistically, if we force races to refrain from intermarriage, that increases the difference, until inevitably the unbalance will precipitate a race war in which one race is exterminated — and the advo- cate of race purity has no real facts to show that it won't be his race to go (I cheerfully agree that I have the usual human belief that it wouldn t be my race ; and that I like my racial qualities and wouldn t care to take a chance on mixing them; but that is merely healthy emotion, and I retain, or have got, sense enough to know that I am ignorant of actual facts — and I have read Madison Grant's "Passing of the Great Race," and a lot of other such cheap, dualistic guesses.) So a democratic state will, just as the Constitution does, take races as essentially equal but quantitatively unequal, and will let alone (§149m) the question of intermarriage until there are some more-definite facts. It will be grateful to the per- sons whose strength or foolhardiness or environment forces a crossing, for having furnished data. Jf we decide that we must not cross with a certain race, that means that we will exterminate them — or become hypocrites and be exterminated. i. Connected with that is the problem of birth control. The United States has over 85 inhabitants to the square mile — nearly 20 acres or ordinary city blocks to each person. If present knowledge were intelligently and vigorously used our land might be made to support 20 times that number. But practically, every increase of population causes some un- balancing which is often perceptible. Aristocrats hold that unbalances should be increased, and consistently with that they often explicitly want the birthrate increased — ordinarily the more aristocratic, militaristic, and imperialistic a person is, the more he objects to what he calls race suicide. (That phrase race suicide' is scarcely rational:- if I avoid getting fat I do not commit suicide, and a race that avoids over- growth does not; the phrase is stupidly used by aristocrats to beg the question as to actual facts.) The upper ten aris- tocrats of course want more people to lord it over and use as cannon fodder. And the submerged tenth aristocrats breed .like nearly thoughtless rabbits. Neither have enough intel- ligence to understand democracy or temperance, but again in this case proceed on the pseudo principle that an unbalance is desirable — that if a little is good, more is better. Some few couples are geniuses at producing say as many as ten vigorous, useful children: but the ordinary family with five nowadays is a calamity to the state and early death to that parent who takes the responsibility seriously. In the old days large families were worse on both children and parents ; but in those days people were so stupid that the majority blundered into an accidental death before thirty, so that quantity was then of more importance. Democracy requires a balanced degree of racial increase. Perhaps we are up to the point in our history where the greatand useful pioneering will be in quest of quality, to restore and if possible maintain the balance Quantity... X Quality... . That pioneering has already been begun as regards the race itself by the average person in this country — which birth control is probably the most important symptom of our sound social health. The pioneering in business ethics — the intelligent building-up and seeking of good will" — is perhaps the next. j. So it appears that a consciously formed world state will not necessarily end war. Any severe climatic variation is likely to cause war — and would, unless men were agile enough mentally to meet the change rapidly with appropriate balancing of Unselfishness... X Selfishness... . A world democ- racy based on the sound principles of the Constitution will ordinarily prevent disturbances of much size — will ordinarily prevent a "war." The chief danger will be the same as al- ways in the past:- a power-mad, selfish boss and citizens too unintelligent to size him up and to see where they will land if they follow him a little way on his primrose path to sudden glory and wealth. There is no automatic way to end war : it all depends on men in the end. Wars cure the worst un- balances by weeding out the worst aristocrats — and a new crop starts at once. A knowledge and use of democracy can keep the aristocrats from growing, by education if that is done well enough. And that is work. When we get out of balance with the environment there is in effect a "nat- ural war called famine or-and pestilence. Democracy 245 UNIVERSE Appendix A involves keeping a tolerable balance with the environment (cf. footnote 175e). Part of that is called maintaining the standard of living; and roughly, in business the standard of living' is called overhead. The aristocrat dualistically fancies that such standard (including various heavy business expendi- tures for costly stationery and palatial furnishings, etc.) is a sacrosanct affair that must be maintained of itself. But an intelligent child can see that if that standard and over- head does not enable its possessor to react better, with both material and men, and thus do better than any "cheap foreign labor, then that expense is in some degree a waste — a destructive evil instead of a good. §177. a. Thus any democratic state involves us in quan- titative problems impossible of accurate solution, with grave perils on each side of the balance. That is what life is : we like it. Everything in the universe is engaged in the same sort of balancing, and in time wears out and changes into a different order structure, just as we all die — thus being a part of keeping the perfect balance of the whole. b. The race has for ages been increasing its life or hap- piness — extending its limits of conscious balance with the environment, and becoming more consciously God. Thus the race has grasped and enjoys the universe in a rough way, and has grasped the material earth in a rather definite way ; and has already substantially formed a more or less organized world state, thus also grasping its human members in a rather definite way. Most of the race enjoy braving and balancing the dangers at those two limits or outer zones — and thrive on them, even though those dangers sound objectionable when explicitly described as in the last section. The spreading of the limits of consciousness into those dangers is an increase of the definiteness of relationship — of love. Because the race is as a verifiable fact now consciously related to a wide extent, we as .1 truism of that fact love the race unless we are de- fective. But there are a few of the race who get out into those danger zones and are so weak as to be damaged and be unable to get back to a balance, or see that they want to. They are the aristocrats — the submerged tenth on and as one dying fringe or breaking-up difference surface of the race, and the upper ten on the opposite fringe. Those fringes are where the consciousness of relationship or love begins to dim. But in a wide sense we see we love those failing and quitting aristocrats as being inevitable in the nature of things, and as interesting and entertaining horrible educative examples. c. And that generally satisfactory condition of human affairs, with always some perceptible unbalances that are on the way to a balance if we take enough time into view, out- lines what we have seen in this book. The book is a de- scription of the universe, given chiefly in terms of humans because those are familiar and intelligible. It is a rigorous unification of the universe, because that infinite universe is our ultimate selves — we being God in that religious aspect. That unification is expressed as the solution of the One and Many. The race for centuries has tacitfy been using that solution or logic — knowing the principles and applying them to the objective world as science, and to ourselves as morality or democracy. d. The essentials may be briefly stated, although it re- quired a number of pages to make them positively evident :- The One is the Many. We grasp and are the One by working personally with the Many in a temperate or demo- cratic way. From the point of view of our feelings or sense of well-being that balanced rhythmic grasp of the One is happiness; from the point of view of our seeing or know- ing or intellect that balanced rhythmic grasp of the One is ineffable beauty. APPENDIX A ABBREVIATIONS No attempt is made to include ordinary abbreviations, or to in- clude those used in short passages wherein they are first explained (in several such cases abbreviations are used in a sense different from that listed below as their usual meaning). "Encv. Brit." "The Encyclopaedia Brittanica," 11th ed. Daniell's "Physics." Alfred Daniel], "A Text Book of the Principles of Physics," 3rd ed. (l902). Marshall's "Economics." Alfred Marshall, "Principles of Economics," 6th ed. (l910). Watson's "Physics." W. Watson, "A Text-book of Phys- ics," 5th impression (1904). Wood's "Optics." Robert W. Wood, "Physical Optics," 1st ed. (1904). Subscripts that are used in the text with several of the abbrevia- tions below, are given separately. A (l) a general symbol for any given thing; (2) chemical affinity, or intensive factor of dynamic molar energy. C variable numerical coefficient for molar or static masses. Ent entropy, or extensive factor in heat energy. Energy energy. F force. G variable numerical coefficient of 'dynamic' or gravitation masses; also sometimes used, as indicated by context, as the conventional gravity constant. variable numerical coefficient for dynamic heat; also used, as indicated by context, as orthodox heat constant. variable numerical coefficient of static heat: also used, as indicated by context, as constant Joule s equivalent. variable numerical coefficient of static electricity ; also used, as indicated by context, as the conventional con- stant specific inductive capacity. length or space — one unit measure of length, mass — specifically, one unit or part of the universe. potential of electricity or intensive factor of elec. energy. quantity of electricity or extensive factor of elec. energy. a conventional constant used in heat. time — one unit measure of time. Temp temperature, or intensive factor of heat energy. That that; anything, as compared with a This. This this ; any given thing. U variable numerical coefficient of 'dynamic' electricity; also used, as indicated by context, as the conventional constant permeability. velocity. average velocity of light in a ' vacuum" in our neigh- borhood. See §126b for other subscripts, weight. (l) current of electricity; (2) see §82a. (l) distance, same as L; (2) differential symbol. Continued on Next Page H J K L M P Q R T V w c d Appendix A [subscript] zero or standard formal unit (§71b). length, same as L. i unit magnet pole. % [subscript] dynamic. any number. > pressure, UNIVERSE radius, same as L. [subscript] indicates a relationship word, [subscript] static, volume, indicates infinite regress (§33g). 1 H l.i « i.- APPENDIX B PERIODIC TABLE OF ELEMENTS o I II in rv V VI VII VIII a He 399 3 Li 6.94 4 Be 9.1 SB 11. 6C 12.00 7N 14.01 80 16.00 9F 19.0 loNe. 20-2 11 Na 23.00 12 Mg 24-32 13 Al 27.1 14 Si 28.3 15 P 31-04 16 S 32.06 17 CI 3S-46 18 A 39.88 19 K 39"> 20 Ca 40.07 21 Sc 44.1 22 Ti 48.1 23 V Si-o 24 Cr 52.0 25 Mn 54-93 26 Fe 27 Co 28 Ni 55.84 SS 97 5S.6S ' 29 Cu 63-57 30 Zn 65-37 31 Ga 69.9 32 Ge 72. S 33 As 74.96 34 Se 79.2 35 Br 7992 36 Kr 82. 02 37 Rb 85-45 38 Se 87.63 39Y 88.7 40 Zr go.6 41 Nb 93-5 42 Mo 96.0 43- 44 Ru 4S Rh 46 Td 101.7 102.9 106.7 47 As 107.88 48 Cd 112.40 49 In H4.8 50 Sn 118. 7 SI Sb 120.2 S2Te JZ7S X 1 i 120. P2| 54 X 130.2 55 Cs 132.81 s6Ba 137-37 57 La 58 Ce 55 139.0 140.2514 Pr 60 Nd 61-62 Sm 63 Eu 64 Gd 65 Tb 66 Ds 0.6 144.3 150.4 152 157-3 159. 2 162. s 67 Ho 68 £r 69 Tu 70 163.5 167.7' 168.5 173 fb 71 Lu 72— • S 1750 73 Ta 181. s 74 W 184.0 75- 76 Os 77 Ir 78 Pt 190.9 193. 1 19s. 2 79 Au 197.2 80 Hg 200.6 81 Tl 204.0 82 Pb 207 . 20 83 Bi 208.0 84 Po (210.0) 85- 86 Em (222.0) 87- 88. Ra 226.0 89 Ac (227) 90 Th 232. IS UrX2 (234) 92 Ur 238.2 This periodic table of elements and their atomic numbers is adapted from Millikan's, "The Electron," published in 1917. The weights of elements not in the order of their atomic numbers are in italics. 1 Hydrogen 32 Germanium 63 Europium 2 Helium 33 Arsenic (54 Gadolinium 3 Lithium 34 Selenium 65 Terbium 4 Beryllium 35 Bromine 66 Dyprosium 5 Boron 36 Krypton 67 Holmium 6 Carbon 37 Rubidium 68 Erbium 7 Nitrogen 38 Strontium 69 Thulium 8 Oxygen 39 Yttrium 70 Ytterbium 9 Fluorine 40 Zirconium 71 Lutecium 10 Neon 41 Niobium 72 11 Sodium 42 Molybdenum 73 Tantalum 12 Magnesium 43 74 Tungsten 13 Aluminium 44 Rhuthenium 75 14 Silicon 45 Rhodium 7 Osmium 15 Phosphorus 46 Palladium 77 Iridium 16 Sulphur 47 Silver 78 Platinum 17 Chlorine 48 Cadmium 79 Gold 18 Argon 49 Indium 80 Mercury 19 Potassium 50 Tin 81 Thallium 20 Calcium 51 Antimony 82 Lead 21 Scandium 52 Tellurium 83 Bismuth 22 Titanium 53 Iodine 84 Polonium 23 Vanadium 54 Xenon H5 24 Chromium 55 Caesium 86 Emanation 25 Manganese 56 Barium 87 ■ 26 Iron 57 Lanthanum 88 Radium 27 Cobalt 58 Cerium 89 Actinium 28 Nickel 59 Praseodymium 90 Thorium 29 Copper 60 Neodymium 91 Uranium X2 30 Zinc 61 92 Uranium 31 Gallium 62 Samarium APPENDIX C GEOLOGIC TIME SCALE Prepared by H. F. Osborn and by C. A. Reeds after Schuchert. Reproduced from Osborn's "Origin and Evolution of Life." The times given are much too short (§112hi; XII). MILLIONS OF YkARS s