■M^^H^BHBM^M^H^HMH Digitized by the Internet Archive in 2011 with funding from The Library of Congress http://www.archive.org/details/langstrothonhive01lang / <&5 C L. L. LANGSTROTH. /3 / LANGSTROTH ON THE Hive and Honey Bee REVISED, ENLARGED, AND COMPLETED BY Chas. Dadant and Son PUBLISHED BY CHAS. DADANT & SON, HAMILTON, HANCOCK COUNTY, ILLINOIS, U. S. A. 1889. COPYRIGHTED, 1888, BY CHAS. DADANT & SON ALL RIGHTS RESERVED. PREFACE. By his invention of the most practical movable-frame hive, and by his book, "The Hive and Honey-Bee", — a book as attractive as a novel, — Mr. Langstroth has laid the foundation of American Apiculture, whose methods and implements have become popular throughout the world. The re-writing of the "Hive and Honey-Bee" was en- trusted to us, in 1885, by Mr. Langstroth, as his feeble health rendered him unable to attend to it since its last re- vision in 1859. In this difficult work, which demanded a review of the progress accomplished in the past thirty years, we have had to introduce more new matter than we had anticipated. This will probably please the Apiarists who have already read former editions, and who have been waiting for this long-promised revision. Yet, we have retained as much as possible of Mr. Langstroth's writings, and all who are con- versant with his style will readily recognize his masterly pen. Our thanks are due to Mr. C. F. Muth, of Cincinnati, for the enthusiastic interest which he has taken in this book,* and to the able teacher and writer, Miss Favard, of Keokuk, for her criticism of the literary part of the work. As bee-keeping, like all other sciences, is but an accumu- lation of former discoveries, we have borrowed much from all sides, but we have tried to give due credit to all. Some of the engravings given are not original with the works II PREFACE. from which we take them. Those of Girard, for instance, are reduced copies of the beautiful chromos of Clerici, after the microscopic studies of Count G. Barbo, of Milan. Text- books are never entirely free from compilations of this kind. Having spared neither time nor expense to produce a book worthy of the father of American Apiculture, we hope that our work will be favorably received and will prove of some use in helping progress. THE REVISERS. ISecembee, 1888 I BIOGRAPHY OF L. L. LANGSTROTH. Lorenzo Lorain Langstroth, the "father of American Apiculture," was born in the city of Philadelphia, December 25, 1810. He early showed unusual interest in insect life. His parents were intelligent and in comfortable circum- stances, but they were not pleased to see him " waste so much time " in digging holes in the gravel walks, filling them with crumbs of bread and dead flies, to watch the curious habits of the ants. No books of any kind on natural history were put into his hands, but, on the contrary, much was said to discourage his " strange notions." Still he persisted in his observations, and gave to them much of the time that his playmates spent in sport. In 1827, he entered Yale College, graduating in 1831. His father's means having failed, he supported himself by teaching, while pursuing his theological studies. After serv- ing as mathematical tutor in Yale College for nearly two years, he was ordained Pastor of a Congregational church in Andover, Massachusetts, in May, 1836, and was married in August of that yearto Miss A. M. Tucker of New Haven. Strange to say, notwithstanding his passion in early life for studying the habits of insects, he took no interest in such pursuits during his college life. In 1837, the sight of a glass vessel filled with beautiful comb honey, on the table of a friend, led him to visit the attic where the bees were kept. This revived all his enthusiasm, and before he went home he purchased two colonies of bees in old box hives. in IV BIOGRAPHY OF L. L. LANGSTROTH. The only literary knowledge which he then had of bee-culture was gleaned from the Latin writings of Virgil, and from a modern writer, " who was somewhat skeptical as to the exist- ence of a queen-bee." In 1839, Mr. Langstroth removed to Greenfield, Massachu- setts. His health was much impaired, and he had resigned his pastorate. Increasing very gradually the number of his colonies, he sought information on all sides. The "Let- ters of Huber " and the work of Dr. Bevan on the honey bee (London, 1838), fell into his hands and gave him an introduction to the vast literature of bee-keeping. In 1848, having removed to Philadelphia, Mr. Langstroth, with the help of his wife, began to experiment with hives of different forms, but made no special improvements in them until 1851, when he devised the movable frame hive, used at the present day in preference to all others. This is re- corded in his journal, under the date of October 30, 1851, with the following remarks : " The use of these frames will, I am persuaded, give a new impetus to the easy and profit- able management of bees." This invention, which gave him perfect control over all the combs of the hive, enabled him afterwards to make many remarks and incidental discoveries, the most of which he recorded in his book, on the habits and the natural his- tory, of the honey-bee. The first edition of the work was published in 1852, and in its preparation he was greatly assisted by his accomplished wife. A revised edition was published in 1857, another in 1859, and large editions, without further revisions, have since been published. In January, 1852, Mr. Langstroth applied for a patent on his invention. This was granted him ; but he was deprived of all the profits of this valuable discovery, by infringe- ments and subsequent law-suits, which impoverished him and gave him trouble for years ; though no doubt remains now in the mind of airy one, as to the originality and prior- ity of his discoveries. BIOGRAPHY OF L. L. LANGSTROTH. V From the very beginning, his hive was adopted by such men as Quinby, Grimm and others, while the inventions of Munn and Debeauvoys are now buried in oblivion. Removing to Oxford, Ohio, in 1858, Mr. Langstroth, with the help of his son, engaged in the propagation of the Italian bee. From his large apiary he sold in one season $2,000 worth of Italian queens. This amount looks small at the present stage of bee-keeping, but it was enormous at a time when so few people were interested in it. The death of his only son, and repeated attacks of a serious head trouble, together with physical infirmities caused by a railroad accident, compelled Mr. Langstroth to abandon extensive bee-culture in 1874 ; but he has always, since then, kept a few colonies on which to experiment. Mr. Langstroth is now " venerated" by American bee- keepers, who are aware of the great debt due him by the fraternity. He is to them what Dzierzon* is to German Apiarists. When his health permits him to attend one of the meetings of the North American Bee-Keepers' Society, the leaders of Apiculture feel proud and happy to see and to hear him. Mr. Langstroth is an eminent scholar. His bee library is one of the most extensive in the world. He learned French without a teacher, simply through his knowledge of Latin, for the sole purpose of reading the many valuable works on bees, in the French language. He is a pleasant and elo- quent speaker. His writings are praised by all, and we can not close his biography better than by quoting an able writer, who called him the " Huber of America." * Pronounce Tseertsone. Table of Contents BY PARAGRAPHS. Chapter I— Physiology of the Honey-Bee 1. General Ekmakks. 2. The Honey-bee. 3. The Hire, 4. The three kinds of inhabitants. General Characteristics. — 5. The skeleton. 6. The frame of their bodies 7. Hairs. 8. The three sections of the body. 9. Eyes. 10. Their structure. 11. Comparison. 12. Use of the small eyes. 13. Why so many facets? 14. Help in finding their way back. 15, 16. Colors as guides. 17, 18. Color not their only guide. 19. The antennae. 20. Our gratitude to Huber and his servant Burnens. 21 . His wife. 22. He was blind. 23. His experiments on the antennas. 24. Can bees perceive sounds ? 25. Where is their hearing located ? 26. Where are their smelling organs located ? 27. The wonders of the microscope. 28. Number of atoms in a pin head. 29. Smelling organs. 30. Mar- velous power of smell. 31. Smelling blossoms a mile away. 32, 33, Remembrance. 34. Depriving bees of their antenna;. 35. Cannot live without antenna?. 36. Brain of bees. 37. Our reverence for Swammer- dam. 38. The mouth. 39. The glands. 40. Queen fed by the produc- of the upper pair. 41. The others are salivary. 42, Mandibles 43. Compared with those of hornets. 44. Other parts of the mouth. 45. Chin and tongue 46. Labial palpi and maxilla?. 47. The tongue is not a tube. 48. Action of the tongue. 49. Its possible improvement. 50. The thor ax. 51 Legs. 52. Claws and pulvilli. 53. How the pulvilli work. 54. Uses of the hairs of the legs. 55. The notch of the first pair. 56. The pin of the second pair. 57. The pincers of the posterior pair. 58. The pollen combs. 59. Pollen baskets. 60. The wings. 61. Their power and speed. 62. Digesting apparatus. 63. Honey sac and stomach mouth. 64 . Is the larva fed by the glands ? 65 , 66 . Comparison with mammals . 67. Process of digestion. 68. Nervous system. 69. The heart. 70 The lungs or trachea. 71. Their collection with the flight. 72. Bees unable to take wing. 73 Their discharge in flight. 74. Girard on the trachea. 75. The humming. 76. Language of bees. 77. Stahala on this subject 78. The sting. 79. Poison sack. 80, 81. Shape of the sting and how it works. 82. Not easily withdrawn. 83. Very polished weapon 84. Loss ofthestin^. 85 Can be with Irawn 86. Bees can live without it. 87. The odor of the poison. 88. The sting can wound after removal 89 When left in the wound. 90. Thauks to the writers. 91. Conclusions of Packard. 92. Intelligence of some insects. VII VIII TABLE OF CONTEXTS. The Queen. — 93. She wa^ called king-bee. 94. Her sex disco. ered by Butler. 95. Swammerdam. 98. She does not govern. 97 Her fecund- ity. 98. How to test it. 99. She lays mor : in Spring. 100. Description. 101. Love of the bees for their queen. 102. Interesting experiment. 103. Reproduction of the queen. 101. Queen cells. 105. Their number. 106. Are eggs deposited in the queen-cells by the queens ? 107 Queens from worker eggs. 108. Different food, its result. 109. How orphan bees rear queens. 110. Duration of development. 111. The virgin queen. '112. Huber on the destruction of their rivals. 113. Bees help in the work. 114 Rivals not destroyed when bees intend to swarm. 115. Voice of the queen. 116. Combat of queens. 117. Two queens in one hive. 118. Narration of the fact. 119. Other instances. 120. Impreg- nation of the queen. 121 Time of impregnation. 122. Leaving the hive and returning. 123. The mating. 124. Single impregnation for life. 125. Getting rid of the drone organ. 126. Fertilization in confinement, 127. Fecundation of the eggs. 128. Leidy and Siebold on the contents of the spermatheca. 129. How fertilization takes place. 130. Swammer- dam' s observations. 131. Huber confining young queens. 132 Dzier- zon's discovery. 133. Parthenogenesis. 131. Drone-laying queen. 135. Examination of her ovaries. 136. Bees trying to raise queens with drone eggs. 137. Other experiments. 13S. Other proofs of parthenogenesis. 139. Impregnation of the eggs. 140. No visible difference between drone and worker eggs . 141. Effect of delayed fecundation. 142. Do queens know the sex of their eggs ? 143. S. Wagner's theory. 144. Facts against that theory. 145. Effect of the removal of drone cells. 146. Queens laying worker eggs in drone cells. 147. Root's experiment. 148. Bordeaux experiment. 149. Difficulty of raising drones early in Spring. 150. Drones in worker cells. 151. Refrigerating queens. 152. Queen begiustolay. 153. How she lays. 154. Breeding seasons. 155. Dif- ference in prolificness. 156. Supernumerary eggs. 157. Old queens. The "Worker Bees. — 158. Numbers in a hive. 159. Their functions. 160. Donhoff's experiment. 161. Their first flight. 162. Their first honey gathering. 163. Young bees build combs. 164. They feed the brood. 165. The eggs. 16fi. The larvae. 167. Casting the skin. 168. Capping the brood. 169. The nymph. 170. The cast-off skins. 171. Duration of development. 172. The newly-hatched bee. 173. The first flight. 174. Should not be mistaken for robbers. 175. Sexual organs not developed. 176. Fertile workers. 177. Their probable use. 178, Easily discovered. 179. Attempts to raise queens. ISO. Remedy. 181. Instinct of the worker bees. 182. Short life. 183. Crippled workers. 181. Signs of old age. Thk Drones.— 185. Description and oflace. 186. Time of their appear- ance. 187. In search of the queens. 188. Perish in the act. 189. Num- bers in a hive. 190. No necessity for so many. 191. Drone traps, and preventing the breeding of drones. 192. Their expulsion by the bees. 193. By the bee-keeper. 194. Raised in worker cells. 195. "Why impreg- nation does not take place in the hive . 196 In-and-in breeding avoided. 197. Comparative table of development of queen, worker, and drone. TABLE OF CONTENTS. IX Chapter II.— Buildings of Bees. Comb. — 198. The furniture of the hive. 199. Made of wax. 200. Is wax a fat? 201. Formation of wax scales. 202. Produced mainly by young bees. 203. Old bees can produce it also 201. Produced by digest- ing honey. 205. Bees hanging in chains. 206. Root on comb-building. 207. The first discoverer? 208. Scales of wax on the bottom of hives. 209. Bees picking up old wax. 210. Solving a problem. 211. Shape of the cells. 212. Marvelous industry . 213. Natural explanation. 214. Cells not horizontal ; thickness of comb. 215. Color of combs. 216. Size of cells. 217. True measurement of cells. 218. Intermediate cells. 219. Economy of material. 220. Wax not made of pollen. 221. Pollen needed. 222. Chemical composition of honey and wax. 223. Cost of comb. 224. Worker and store cells. 225. Not the same relative quan- tity. 226. Not by foreknowledge. 227. Bees follow their desires. 22S. Five facts. 229. Preference of builders opposed to the preference of the queen. 230. Bees building few store cells. 231. Building about one- third. 232. Building them here and there. 233. Rebuilding without change. 234. Swarms provided with one or two combs. 235. Conclu- sion. Pkopolis. —236. How obtained. 237. Soils the combs. 238. Used to cement the cracks. 239. Gathered mainly when honey is not found. 240. Hard in winter. 241. Snails inclosed in propolis 242. Remarks. 243. Superstitions. 244. Uses in Italy. 245. Uses in Russia. Chapter III.— Food of Bees. Honey. — 246. What is honey? 247. Is honey the same as r.ectar ? 248. How nectar is produced. 249. It is more or less watery. 250. Its yield varies gre.itly. *-'51. Reabsorbed by the plants, if not gathered. 252. In other parts of the plants. 253. Best conditions. -'54. Bonnier on the nectaries. 255. Honey dew from plants and trees. 256. From aphides. 257. How ejected. 258. Season and trees that produce it. 259. Bonnier on the origin of honey dew. 260. Nectar in deep corollas. 261 . Storing and evaporating. 262. Are the cappiugs of cells air-tight ? Pollen. — 263. Its uses. 264. Indispensable for breeding. 265. Flour instead of pollen. 266. Gathering. 267. Substitutes. 268. Bees use- ful in plant impregnation. 269. Help in interbreeding plants. 270. In- fluence of bees upon the fecundation of plants. Wateb. — 271. Water is necessary to bees. 272. How to provide it. 273. Experiments of De Lay ens. Salt.— 274. Bees are fond of salt. Chapter IV.— The Bee-Hives. Hives with Immovable Combs. —(275. Earthen hives. 276. Brimston- ing bees. 277. Cutting the combs. 278. Caps for surplus, section hives. 279. Vertical divisions. Requisites of a Complete Hive. — 280. Twenty-six conditions. 281. The most indispensable is good management. X TABLE OF CONTENTS. Movable Comb-Hives. —282. Used in Greece more than 100 years ago. 283 . The success of Dzierzou. 284 . The Huber hive . 285 . Improved in America. 286. Suspended frame hives. 287. The superiority of the Langstroth hive. 288. Modesty of the inventor. 289. The Berlepsch hive. 290. Both having their partisans. 291. Disadvantages of the Ber- lepsch hive. 292. Will yield to the Langstroth. 293. Advantages of the movable ceiling. 294 A standard frame hinders progress. 295. Success of American bee-culture. 296. Progress in 30 years. 297. Gravenhorst hive. 298. Diversity of sizes 299. The frames used in America. 300. Is one better than another? 301. Which is the best shape for frames? 302. Objection to two stories in brood chamber. 303. Square frames objectionable. 304. Deeper frames more so yet. 305. Superiority of Langstroth and Quinby frames. 306 Beware of excess. 307. Experi- ments. 308. Number of frames. 309. Why limit the laying? 310. How many cells arj necessary in a good hive? 311. Comparison of frames. 312. Figures cannot lie. 313. Large hives can be reduced. 314. Excessive swarming. 315. Improving bees. 316. Distance be- tweenframes. 317. Increased distance preferable. 318. Straight combs. 319. How secured. 320. Standard Langstroth frame 321. Stronger top and bottom bars. 322. Kegularity of outside measure. 323. Wide top bars detrimental. 324. Simplicity frame. 325. Tin cor tiers. 326 The Quinby frame . 327 Slanting bottom. 328. Frames perpendicular to the entrance. 329. The first Langstroth hive. 330. The glass dis- carded. 331. The honey board. 332. The bottom board. 333. Venti- tilation. 334. How given. 335. Prevents clustering outside. 336. Ventilation controlled. 337. Bees propolizing small holes. 33S. The portico. 339. Entrance blocks. 340. The hive 'we prefer. 341. Its success in Europe. 342. Encased bottom. 343. Apron. 344. Movable bottom board. 345. Double thickness of the back. 346. Space around the frames. 347. Spacing wire. 348. Height of entrances. 349. Division board. 350. Space under it, and how made. 351. Strip to widen the projection of the rabbet. 352. Enamel cloth. 353. Straw mat. 354. Upper story. 355. Caps. 356. Painting hives. 357. Numbering hives. 358 Beware of patents. 359. Material for hives. 360. Circular saws. 361. Filing the saws. 362. Boards warp- ing. 363. Chaff hives. 364. Ventilation considered again . 365. Bees ventilating inside. 366. Pure air indispensable. 367. Effect of waut of air. 368. Suffocation. 369. Combs melting. 370. The result. 371. Combs of honey melting first. 372. Bees our models. 373. Pure air in our dwellings. Observing Hives.— 374. Very interesting. 375. Useful. 376. How im- proved. 377. Parlor observing hive. Chapter V.— Handling Bees. 378. The honey-bee capable of being tamed. 379. Peaceable when laden with honey. 380. Peaceable when swarming. 381. When frightened. 382. The smokers— how to manage them. 3S3. Apifuge. 384. Car- bolized sheet. 385. Magnetizing bees. 386. Bee-veil. 387. Gloves. 388. Woolen clothes objectionable. 3S9. Smoke not always necessary. 390. Cyprians diflicult to subdue. 391. Bees quietest at mid-day. 392. TABLE OF CONTENTS. XI Slow motions. 393. Old precepts. 394. Fear of stings a great obstacle. 395. Light bewilders bees. 396. Care in using smoke. 397. How to proceecl.° 398. Returning combs. 399. Mismanagement. 400. Bad odors anger bees. 401. Effect of their poison. 402. Remedies. 403. Cold water and ammonia. 404. Old bee-keepers poison-proof. 405. Bees as means of defense . Chapter VI.— Natural Swarming. 406. Preparations. 407. Not in season. 408. When effected. 409. First swarm. 410. Conditions and hour. 411. Last preparations. 412. Queen missing. 413. Ringing bells useless . 414. Deportment of bees. 415. Bees send scouts. 416. Various incidents. 417. Alluring swarms . 418? Bees generally peaceful wheu swarming. 419. No delay in hiving. 420. Departing swarms. 421. Have hives ready an I cool. 422. Hives furnished with combs. 423. Beware of honey. 424. Comb guides 425. Advantages of combs or comb foundation. 426. Securing straight combs in the brood chamber. 427. Enlarging the entrance. 428. Bees on a small limb. 429. Swarm sack. 430. Be cautious. 431. Sack preferable to basket. 432. Swarm on a trunk. 433. Catching the queen . 434. Clipping wing of the queen. 435. Swarms mixing. 436. Two queens in the same swarm. 437. Ten swarms mixed. 438 Securing the queen In hiving a swarm. 439 Swarms temporarily hived. 440. Put in place as soon as hived. 441. Feeding swarms. 442. Building straight combs. 413. Primary swarms with young queens. 444 Secondary swarms. 445. Their causes. 446. Piping of the queens 447. Several queens in the swarm. 447 (bis) . Superiority of after-swarms. 448. Absconding swarms. 449. Third swarms. 450 Prevention of natural swarming, its desirability. 451. Excessive natural swarming. 452. Natural swarming and selection. 453. Too many swarms lost. 454. Causes of swarming. 455, Swarming fever. 456. Heat a stimulus 457. Drones also. 458. Lack of ventilation. 459. Giving empty combs. 460. Of easy access. 461. Before complete fullness. 4fi2. Shading the hive 463. Drone comb removed. 464. Good ventilation. 465. Swarming cannot be absolutely prevented. 466 . Prevention more difficult when raising comb honey. 467. Queen and drone traps 468 Preven- tion of after-swarms. Chapter VIE— Artificial Swarming. 469. Uncertainty of natural swarming. 470. Dividing. 471. Unre- liable. 472. Removing the hive. 473. Driving bees. 474. Its advan- tages 475. With movable combs. 476. Improvement. 477. Giving a fertile queen. 478. Nucleus method. 479. With sealed queens. 480. Building nuclei. 481. Too much dividing. 482. Queen cells made pre- viously 483. Several advices. 484. Operations more successful during honey harvest. 485. Bees don't quarrel. 486. When the weather is too cold. 487. Increasing too fast . 488. Caution. Chapter VIII.— Queen Rearing. 489. How bees raise queens. 490. Are larvae inferior to eggs? 491. DePlanta's experiments. 492. Are young worker larvae better fed ? 493. XII TABLE OF CONTENTS. Can workers use older larvae? 494. Their growth retarded. 495. Queeus raised during swarming fVver. 496. Old workers are poor nurses 497. Conditions to raise good queens. 498. When is the raising of queens necessary? 499. Loss of the queen. 500. Unable to fly. 501. Lost in her wedding flight. 502. Entering the wrong hive. 503. Sound ad ice. 504. Backed by examples. 505. Bees anticipating danger. 506. How they ascertain their loss. 507 Detecting queenlessness. 5 Difficult to detect. 666. Promoted by the bee- keeper. 6 67. How detected. 668. Difficult to stop. 669. Exchang- ing places. 670. Carbolized sheet. 671. Latent robbing. 672. Prevention. 673. Weak colonies. Chapter XV. — Comb-Foundation. 674. Its advantages. 675. Replacing drone comb. 676. Value of worker comb. 677. The inventor of comb foundation. 678. His imitat- ors. 679. Root' > roll eT mills. 680. Goodresults. 681 . His followers. 682. Given press. 683. Plaster mould. 684. Improved mills. 685. Selected wax. 686. A' solutely pure. 687. Light and heavy machines. 688. Foundation for comb honey. 689. Preparing the sheets. 690. Printing . 691 . A special industry . 692 . Weight of the different grades . 693. How fastened. 694. Wiring foundation. 695. How to cut it' 696. The right position . 697. It is a success. XIV TABLE OF CONTENTS. Chapter XVI — Pasturage and Overstocking. Pasturage— 698. Quantity varies. 699. Even in the same kind of blos- soms. 700. Study of the resources. 701. Clover. 702. Linden. 703 Alsike. 704. Several others. 705. Fall flowers. 706. List of 200 honey or pollen yielding plants. Overstocking.— 707. Is it possible? 708. How far bees fly ? 70 9. How many colonies to the acre ? 710. In Germany. 711. In California. 712. The crop of our county. 713. Opinions on overstocking. 714. Helping bees. 715. Average of crops . Chapter XVU — Production. 716. Its history. 717. Our progress. 718. Conditions of success. Comb Honey. — 719. Very attractive. 720. Its improvements. 721. Honey in sections . 722 . Small sections . 723 . How made . 724 . Upper story. 725. Difficulties. 726. Reversing. 727 Reversible hives. 728. Built sections. 729. Brood chamber full. 730. Exchanging combs. 731. Straight combs. 732. Queen in the lower story. 733. Sections given to the swarm. 734. No propoliziug. 735. Securing sealed combs. 736. Fastened solid. 737. Preventing bridges. 738. How deep the upper story. 739. Section crate. 740. Manum clamps. 741. Foster open-side sections. 742. Foster case. 743. Removing sections. 714. Some other facts . 745. Conclusion. Extracted Honey. — 716. Strained honey. 747. In Europe. 748. From hollow trees. 749. Invention of Hruschka. 750. Our first extractor. 751. Our mistake. 752. Advantages of extracting. 753. Advice to beginners. 754. Less work. 755. Swarming prevented. 756. Use of extractor advised. 757. Half stories. 758. Defects of full depth upper stories. 659. How to use upper stories. 760. Greater facilities for bees. 761. Inspection. 762. How many pounds of honey. 763. Fur- nishing empty combs. 764. Artificial ripening. 765. Equalizing the surplus. 766. Harvesting. 767. Implements needed. 768. Robber- cloths. 769. How to proceed. 770. Implements in the honey house. 771. Extracting from the brood chamber. 772. Cappingcan. 773. Ex- tractors 774. Uncapping knives. 775. Extracting. 776. Inviting neighbors. 777. Automatic extractors. 778. Emp ying the extractor. 779. Caution. 780. Beware of robbing. 781. Returning the combs. 782. Separate the crops. 783. Conclusion. Chapter XVIII. — Diseases of Bees. 784. Diarrhea. 785. Hairless bees. 786. Contagious diseases. 7S7. Foul-brood. 788. Experiments of Dupont. 789. Description of the dis- ease. 790. Detected in Spring. 791. Jones' treatment. 792. Muth's method. 793. Bertrand method. 794. Fumigating process. 795. Cheshire method. 796. Care and perseverance. 797. Preventive care. 798. Infected queens. 799. Antiseptics. 800. Divers contagious dis- eases. 801. Accidental dead brood. Chapter XIX.— Enemies of Bees. 802. Bee moth. 803. Description. 804. Their actions . 805. Their gal- leries. 806. Their worms. 807. Their food. 808. How they behave. TABLE OF CONTENTS. XV 809. Temperature required. 810. Killed by heavy frosts. 811. Dis- gusting results . 812 . How to protect combs . 813 . Italians nearly moth- proof. 814. Queenless colonies their easy prey. 815. Moth not to be feared. 816 Mice. 817. Birds. 818. Sparrows. 819. Do not kill birds. 820. Barnyard fowls. 821. Toads. 822. Bears. 823. Braula coeca . 82 I . Other insects . Chapter XX. — Honey Handling, and Marketing. Uses of Honey. 825. Different grades. 826. Comb-honey sweating. 827. Leakage of sections. 828. Care in shipping. 829. Barrels for extracted. 830. Granulation. 831. Experiences on granulation . 832. Coarse granula- tion. 833. Fermentation. 834. Melting honey. 835. Result of in- creased pvoducti on. 836. Adulteration. 837. That vile Wiley lie. 838. Objections to granulation. 839 . European people not prejudiced. SIO. Inducing consumption. 8 41. Showy labels. 842. Tin packages to be preferred. 843. How to stop leakage. 841. Persuading grocers. 845. Explaining what honey is. 816. Gaining confidence. 847. Honey as food. 848. Very healthy. 819. Honey dainties. 850. French pain- d'epice. 851. Crisp gingerbread. 852. Alsatian gingerbread. 853. Honey cakes. 854. Italian croccaute. 855. Muth honey cake. 856. Vinegar. 857. Honey as medicine. Chapter XXI.— Beeswax and its Uses. 858. Laying up wax. 859. The cappings. 860. Washing dark comb. 861. Melting. 862. Pressing. 863. Steam and sun extractors. 864. Treating wax residues. 865. Cleaning. 866. Care and bleaching. 867. Wax on writing-tablets and for embalming. 868. Wax candles. 869. Other uses. 870. Recipes for medicinal and other purposes, Chapter XXII. — Bees and Fruits and Flowers. 871. Bees cannot injure fruits. 872. Our experiments. 873. Damaged by birds. 875. Bees improving wiue. 876. Annoyance. 877. Juice of fruits injuring bee3. 878. Bees always beneficial to flowers. Chapter XXIII.— Bee Keeper's Calendar. Mistakes and Axioms. 879. January. 880. February. 881. March. 882. April. 883. May. 88*. June. 885. July. 886. August. 887. September. 888. Octo' er. 889. November. 890. December. 891. Spring. 892. Summer. 893. Fall. 894. Winter. 895. Mistakes. 896. Axioms. THE HIVE AND HONEY-BEE. CHAPTER I. PHYSIOLOGY OF THE HONEY-BEE. 1. All the leading facts in the natural history, and the breeding of bees, ought to be as familiar to the Apiarist, as the same class of facts in the rearing of his domestic ani- mals. A few crude and half-digested notions, however satisfactory to the old-fashioned bee-keeper, will no longer meet the wants of those who desire to conduct bee-culture on an extended and profitable system. Hence we have found it advisable to give a short description of the principal or- gans of this interesting insect, and abridged passages taken from various scientific writers, whose works have thrown an entirely new light on many points in the physiology of the bee. If the reader will bear with us in this arduous task, he will find that we have tried to make the descriptions plain and simple, avoiding, as much as possible, scientific words unintelligible to many of us. 2. Honey-bees are insects belonging to the order Hy- menoptera; thus named from their four membranous, gauzy wings. They can flourish only when associated in large numbers, as in a colony. Alone, a single bee is almost as helpless as a new-born child, being paralyzed by the chill of a cool summer night. 1 2 PHYSIOLOGY OF THE HONEY-BEE. 3. The habitation provided for bees is called a hive. The inside of a bee-hive shows a number of combs about half-an-inch apart and suspended from its upper side. These combs are formed of hexagonal cells of various sizes, in which the bees raise their young and deposit their stores. 4. In a family, or colony of bees, are found (Plate II) — 1st, One bee of peculiar shape, commonly called the Queen, or mother-bee. She is the only perfect female in the hive, and all the eggs are laid by her ; 2d, Many thousands of worker-bees, or incomplete females, whose office is, while young, to take care of the brood and do the inside work of the hive ; and when older, to go to the fields and gather honejr, pollen, water, and propolis or bee-glue, for the needs of the colony ; and 3d, At certain seasons of the year, some hundreds and even thousands of large bees, called Drones, or male-bees, whose sole function is to fertilize the young queens, or virgin females. Before describing the differences that characterize each of these three kinds, we will study the organs which, to a greater or less extent, they possess in common, and which are most prominently found in the main type, the worker- bee. General Characteristics. 5. In bees, as in all insects, the frame-work or skeleton that supports the body is not internal, as in mammals, but mostly external. It is formed of a horny substance, scientif- ically called chitine, and well described in the following quotation : 6. "Chitine is capable of being moulded into almost every conceivable shape and appearance. It forms the hard back of the repulsive cockroach, the beautiful scale-like feathers of the gaudy butterfly, the delicate membrane which supports the lace- Plate 2. QUEEN, DRONE, and WORKER— Magnified and Natural Size. GENERAL CHARACTERISTICS. 3 wing in mid air, the transparent cornea covering the eyes of all insects, the almost impalpable films cast by the moulting larvse, and the black and yellow rings of our native and imported bees, besides internal braces, tendons, membranes, and ducts innu- merable. The external skeleton, hard for the most part, and varied in thickness in beautiful adaptation to the strain to which it may be exposed, gives persistency of form to the little wearer ; but it needs, wherever movement is necessary, to have delicate extensions joining the edges of its unyielding plates. This we may understand by examining the legs of a lobster or crab, fur- nished like those of the bee, with a shelly case, but so large that no magnifying glass is required. Here we see that the thick coat is reduced to a thin and easily creased membrane, where, by flex- ion, one part is made to pass over the other." "Again, almost every part of the body is covered by hairs, the form, structure, direction, and position of which, to the very smallest, have a meaning." (Cheshire, "Bees and Bee-keeping," p. 30. London, 1887.) 7. Mr. Cheshire explains that, as the skeleton or frame- work of the bee is not sensitive, these hairs act as organs of touch, each one containing a nerve. They also act as clothing and aid in retaining heat — "and give protection, as the stiff, straight hairs of the eyes, whilst some act as brushes for cleaning, others are thin and webbed for holding pollen grains ; whilst by varied modifications, others again act as graspers, sieves, piercers, or mechanical stops to limit excessive movement." 8. The three sections of the body of the honey-bee are perfectly distinct : the head ; the thorax, or centre of locomo- tion, bearing the wings and the legs ; and the abdomen, containing the honey-sack, stomach, bowels, and the main breathing organs. The principal exterior organs of the head are the antennae, the eyes, and the parts composing the mouth. 9. The eyes are five in number, two composite eyes, one on each side of the head, which are but clusters of small eyes or facets, and three convex eyes, or ocelli, arranged in a triangle at the top of the head. 4 PHYSIOLOGY OF THE HONEY-BEE. 10. The facets of the composite eyes, thousands in num- ber, are six-sided, like the cells of the honey-comb, and being directed towards nearly every point, they permit the insect to see in a great number of directions at the same time. Fig. 1. Head of worker . B, Head of queen . C, Head of drone. (From "Les Abeilles" of Maurice Girard.) (Magnified.) 11. In comparing the e} T es of worker, queen and drone, Mr. Cheshire says : " The worker spends much of her time in the open air. Accu- rate and powerful vision are essentials to the proper prosecution of her labours, and here I found the compound eye possessing about 6,300 facets. In the mother of this worker I expected to find a less number, for queens know little of daylight. After wedding they are out of doors but once, or at most twice, in a year.* This example verified my forecast, by showing 4,920 facets on each side of the head. A son of this mother, much a stay-at- home also, was next taken. His facets were irregular in size, those at the lower part of the eye being much less than those near the top ; but they reached the immense number of 13,090 on each side of the head. Why should the visual apparatus of the drdne be so extraordinarily developed beyond that of the worker, whose need of the eye seems at first to be much more pressing than his ? " * When going out with a swarm. GENERAL CHARACTERISTICS. 5 This question Mr. Cheshire answers, as will be seen far- ther, in considering the antennae. (26)* 12. The three small eyes, ocelli, are thought by Maurice Girard ("Les Abeilles," Paris, 1878), and others, to have a microscopic function, for sight at short distances. In the hive, the work is performed in the dark, and possibly ( ?) these eyes are fitted for this purpose. 13. Their return from long distances, either to their hive or to the place where they have found food, proves that bees can see very far. Yet, when the entrance to their hive has been changed, even only a few inches, they cannot readily find it. Their many eyes looking in different directions, enable them to guide themselves by the relative position of objects, hence they always return to the identical spot they left. 14. If we place a colony in a forest where the rays of the sun can scarcely penetrate, the bees, at their exit from the hive, will fly several times around their new abode, then, selecting a small aperture through the dense foliage, they will rise above the forest, in quest of the flowers scattered in the fields. And like children in a nutting party, they will gather their crop here and there, a mile or more away, without fear of being lost or unable to return. As soon as their honey-sack is full, or, if a threatening cloud passes before the sun, they start for home, without any hesitation, and, among so many trees, even while the wind mingles the leafy twigs, they find their way ; so perfect is the organization of their composite eyes. 15. Bees can notice and remember colors. While ex- perimenting on this faculty, we placed some honey on small pieces of differently colored paper. A bee alighted on a yellow paper, sucked her load and returned to her hive. * The reader will readily understand that the numbers between parentheses refer to the paragraphs bearing those numbers. This is for the convenience of the student. 6 PHYSIOLOGY OP THE HONEY-BEE. While she was absent, we moved the paper. Returning, she came directly to the spot, but, noticing that the yellow paper was not there, she made several inquiring circles in the air, and then alighted upon it. A similar experiment was made by Lubbock. (A.J.Cook, "Bee-keepers' Guide," Lansing, 1884.) 16. We usually give our bees flour, in shallow boxes, at the opening of Spring, before the pollen appears in the flowers. These boxes are brought in at night. Every morn- ing they are put out again, after the bees have com- menced flying and hover around the spot. If by chance, some bits of white paper are scattered about the place, the bees visit those papers, mistaking them for flour, on account of the color. 1Y. But " the celebrated Darwin was mistaken in saying that the colorless blossoms, which he names obscure blossoms, are scarcely visited by insects, while the most highly colored blos- soms are very fondly visited by bees." (Gaston Bonnier, " Les Nectaires," Paris, 1879.) 18. For, although color attracts bees, it is onty one of the means used by nature to bring them in contact with the flowers. The smell of honey is, certainly, the main attrac- tion, and this attraction is so powerful, that frequently, at da} r break in the summer, the bees will be found in full flight, gathering the honey which has been secreted in the night, when nothing, on the preceding evening, could have predicted such a crop. This happens especially when there is a production of honey-dew, after a storm. We have even known bees to gather honey from the tulip trees, (Lirioden- dron tulipifera) on very clear moonlight nights. 19. The antennae (fig. 2, A, B), two flexible horns which adorn the head of the bee, are black, and composed of twelve joints, in the queen and the worker, and thirteen in the drone. The first of these joints, the scape, next to the GENERAL CHARACTERISTICS. head, is longer than the others, and can move in every di- rection. The antenna is covered with hairs. sc tin Fig. 2. LONGITUDINAL SECTION OF DRONE ANTENNA, NERVE STRUCTURES REMOVED. (Magnified 20 times . From Cheshire . ) A. sc, scape; fl, flagellum; 1, 2, &c, number of joints: af, antennary fos- sa, or hollow; tr, trachea; m, soft membrane; wh, webbed hairs; lm, levator muscle; dm, depressor muscle. B, small portion of flagellum (magnified 60 times) ; n, nerve; a, articula- tion of joint. " These hairs, standing above the general surface, constitute the antennae marvelous touch organs ; and as they are distributed all round each joint, the worker-bee in a blossom cup, or with its head thrust into a cell in the darkness of the hive, is, by their means, as able accurately to determine as though she saw ; while the queen, whose antenna is made after the same model, can per- fectly distinguish the condition of every part of the cell into which her head may be thrust. The last joint, which is flattened on one side, near the end, is more thickly studded, and here the hairs are uniformly bent towards the axis of the whole organ. !STo one could have watched bees without discovering that, by the antennae, intercommunication is accomplished ; but for this pur- pose front and side hairs alone are required; and the drone, unlike the queen and worker, very suggestively, has no others, since the condition of the cells is no part of his care, if only the larder be well furnished." (Cheshire.) 20. The celebrated Francois Huber, of Geneva, made a 8 PHYSIOLOGY OF THE HONEY-BEE. number of experiments on the antennae, and ascertained that they are the organs of smell and feeling. Before citing his discoveries, we must pay our tribute of admiration to this wonderful man. (Plate III. ) V Huber, in early manhood, lost the use of his eyes. His opponents imagined that to state this fact would materially discredit his observations. And to make their case still stronger, they asserted that his servant, Francis Burnens, by whose aid he conducted his experiments, was only an igno- rant peasant. Now this so-called " ignorant peasant " was a man of strong native intellect, possessing the indefatigable energy and enthusiasm indispensable to a good observer. He was a noble specimen of a self-made man, and rose to be the chief magistrate in the village where he resided. Huber has paid a worthy tribute to his intelligence, fidelity, pa- tience, energy and skill.* Huber' s work on bees is such an admirable specimen of the inductive S3^stem of reasoning, that it might well be studied as a model of the only way of investigating nature, so as to arrive at reliable results. 21. Huber was assisted in his researches, not only by Burnens, but by his own wife, to whom he was betrothed be- fore the loss of his sight, and who nobly persisted in marry- ing him, notwithstanding his misfortune and the strenuous dissuasions of her friends. They lived longer than the ordi- nary term of human life in the enjoyment of great domestic happiness, and the amiable naturalist, through her assiduous attentions, scarcely felt the loss of his sight. 22. Milton is believed by many to have been a better poet in consequence of his blindness ; and it is highly prob- able that Huber was a better Apiarist from the same cause. * A single fact will show the character of the man . It became necessary, in a certain experiment, to examine separately all the bees in two hives. ' 'Burnens spent eleven days in performing this work, and during the whole time he scarcely allowed himself any relaxation, hut what the relief of his eyes required. ' ' Plate 3. FEAXgOIS HUBER, Author of the " Nouvelles Observations sur Us Abeilles" published in Geneva, Switzerland, 1792-1814. This writer is mentioned pages 7. 8, 9, 13, 14, 44, 48, 49, 50, 51, 53, 54, 55, 66, 67, 74, 76, 81, 94, 99, 100, 106, 119, 120, 139, 177, 201, 204, 239, 274, 290, 291, 376, 460. GENERAL CHARACTERISTICS. 9 His active, yet reflective mind, demanded constant employ- ment ; and he found, in the study of the habits of the honey- bee, full scope for his powers. All the observations and experiments of his faithful assistants being daily reported, many inquiries and suggestions were made by him, which might not have suggested themselves, had he possessed the use of his eyes. Few, like him, have such command of both time and money, as to be able to prosecute on so grand a scale, for a series of years, the most costly experiments. Having repeatedly verified his most important observations, we take great de- light in holding him up to our countrymen as the Prince of Apiarists. 23. Huber, having imprisoned a queen in a wire cage, saw the bees pass their antennae through the meshes of the cage, and turn them in every direction. The queen answered these tokens of love by clinging to the cage and crossing her antennae with theirs. Some bees were trying to draw the queen out, and several extended their tongues to feed her through the meshes.* Huber adds: " How can we doubt now that the communication between the workers and the queen was maintained by the touch of the antennae." 24. That bees can hear, either by their antennae or some other organ, few will now deny, even although the sound of a gun near the hive is entirely unnoticed by them. " Should some alien being watch humanity during a thunder- storm, he might quite similarly decide that thunder was to us in- audible. Clap might follow clap without securing any external sign of recognition ; yet let a little child with tiny voice but shriek for help, and all would at once be awakened to activity. So with the bee : sounds appealing to its instincts meet with im- mediate response, while others evoke no wasted emotion." (Cheshire.) * Wonderful as the experiment seemed at that time, the fact is verified now by daily occurrences in queen-rearing. 10 PHYSIOLOGY OF THE HOXEY-BEE. " The sound that bees produce by the vibrating of their wings is often the means of calling one another. If you place a bee-hive in a very dark room, their humming will draw the scattered bees together. In vain do you cover the hive, or change its place, the bees will invariably go towards the spot whence the sound comes." (Collin, " Guide du Proprietaire d'Abeilles," Paris, 1875.) 25. To prove that bees can hear is easy, but to determine the location of the organ is more difficult. The small holes which were discovered on the surface of the antennae, have been considered as organs of hearing by Lefebure (1838), and by others later. Cheshire has noticed these small holes in the six or seven last articulations of the antennas : holes C O Fig. 3. PARTS OF SURFACE OF AXTEXXJK. (Magnified 360 times. From Cheshire.) A, portion of front surface of one of the lower members of the flagellum (worker or queen) . s', smelling orgau; /', feeling hair. B, portion of the side and hack of same (worker), h, ordinary hair: <•% conoid hair; ho (auditory?) hollows. C, portion of one of the lower members of flagellum (drone) . D, portion of lower member of flagellum (back, worker or queen) . which become more numerous towards the end of the antenna, so that the last joint carries perhaps twenty. He, also, con- siders these as the organs of hearing, especially because they are larger in the drones, who inay need to distinguish the sounds of the queen's wings.* On this question, Prof. Cook, in his i: Bee-keepers' Guide," says: " Xo Apiarist has failed to notice the effect of various sounds made by the bees upon their comrades of the hive, and how con- * The queens and the drones, in flight, each have a peculiar and easily dis- tinguishable sound. GENERAL CHARACTERISTICS. 11 tagious the sharp note of anger, the low hum of fear, and the pleasant tone of a swarm as they commence to enter their new home. Now, whether insects take note of these vibrations as we recognize pitch, or whether they just distinguish the tremor, I think no one knows." 26. It is well proven that bees can smell with their antennae, and Cheshire carefully describes the "smell hol- lows" not to be mistaken for the " ear holes," which are smaller, but also located on the antenna. " In the case of the worker, the eight active joints of the an- tenna have an average of fifteen rows, of twenty smell-hollows each, or 2,400 on each antenna. The queen has a less number, giv- ing about 1,600 on each antenna. If these organs are olfactory, we see the reason. The worker's necessity to smell nectar explains all. We, perhaps, exclaim— Can it be that these little threads LONGITUDINAL SECTION THROUGH PORTION OF FLAGELLUM OF ANTENNA OF WORKER. (Magnified 300 times . From Cheshire . ) /, feeling hair; s, smelling organ; ho, hollow; c, conoid or cone-shaped hair; hi, hypodermal or under-skin layer; v,„, nerves in bundles; ar, ar- ticulation; a, conoid hair, magnified 800 times. we call antennae can thus carry thousands of organs each requir- ing its own nerve end? But greater surprises await us, and I must admit that the examinations astonished me greatly. In the drone antenna we have thirteen joints in all, of which nine are barrel-shaped and special, and these are covered completely by smell-hollows. An average of thirty rows of thess, seventy in a row, on the nine joints of the two antennae, give the astounding 12 PHYSIOLOGY OF THE HONEY-BEE. number of 37,800 distinct organs. When I couple this develop- ment with the greater size of the eye of the drone, and ask what is his function, why needs he such a magnificent equipment? and remember that he has not to scent the nectar from afar, nor spy out the coy blossoms as they peep between the leaves, I feel forced to the conclusion that the pursuit of the queen renders them nec- essary." (Cheshire.) 27. While giving these short quotations and beautiful engravings from Cheshire's anatomy of the bee, we earnestly advise the scientific bee-student to procure and read his work. Mr. Cheshire shows us those minute organs so beauti- fully and extensively magnified, that in reading his book we feel as though we were transported by some Genius inside of the body of a giant insect, every detail of whose organi- zation was laid open before us. However wonderful the statement made above, of the existence of nearly 20,000 organs in such a small thing as the antenna of a bee, this fact will not be disputed. Those of our -bee-friends, who have had the good luck to meet the sympathetic editor of the British Bee-Journal, Mr. Cowan, during his trip to America, in 1887, will long remember the wonderful microscopical studies, and the microscope which he brought with him. This instrument, the most powerful by far that we ever had seen, gave us a practical peep into the domain of the infini- tesimal. 28. Better than any other description of the smallness of atoms is that given by Flammarion, in his "Astronomie Populaire ' ' : "It is proven," he says, " that an atom cannot be larger than one ten-millionth of a millimeter. It results from this, that the number of atoms contained in the head of a pin, of an ordinary diameter, would not be less than 8,000,000,000,000,000,000,000. And if it was possible to count these atoms, and to separate them, at the rate of one billion per second, it would take 250,000 years to number them." GENERAL CHARACTERISTICS. 13 29. Girard reports, as follows, an experiment on the ol- factory organs of our little insects : " While a bee was intently occupied sucking honey, we brought near her head a pin dipped in ether. She at once showed symp- toms of a great anxiety ; but an inodorous pin remained entirely unnoticed." 30. Whatever be the location of their olfactory organs, they are unquestionably endowed with a marvelous power of detecting the odor of hone}' in flowers or elsewhere. One day we discovered that some bees had entered our honey-room, through the kej^-hole. We turned them out, and stopped it up. Some time after, more bees had entered, and we vainly searched for the crevice that admitted them. Finally a feeble hum caused us to notice that they were coming down the chimney to the fire-place, which was closed by a screen. The wedge which held this screen having be- come somewhat loose, the motion of the screen in windy weather opened a hole just large enough for a bee to crawl through. A few bees were waiting behind the screen, and as soon as its motion allowed one to pass, she manifested her joy by the humming which led to the discovery. These bees, escaping with a load, when the door was opened, had become customary and interested visitors. 31. Every bee-keeper has noticed that their flight is guided by the scent of flowers, though they be a mile or more away. In the city of Keokuk, situated on a hill in a curve of the Mississippi, the bees cross the river, a mile wide, to find the flowers on the opposite bank. 3 '2. '* Not only do bees have a very acute sense of smell, but they add to this facult}' the remembrance of sensations. Here is an example : We had placed some honey on a window. Bees soon crowded upon it. Then the honey was taken away, and the outside shutters were closed and remained so the whole winter. When, in Spring, the shutters were opened again, the bees came back, although there was no honey on the window. No doubt, they remembered that they got honey there before. So, an inter- 14 PHYSIOLOGY OF THE HONEY-BEE. val of several months was not sufficient to efface the impression they had received. — (Huber, "Nouvelles Observations sur les Abeilles," Geneve, 1814.) 33. It is well known, also, that bees wintered in cellars (646) remember their previous location when taken out in the Spring. If food is given to a colonj^, at the same hour, and in the same spot, for two days in succession, the}^ will expect it the third day, at the same time and place. 34. When one of her antennae is cut off, no change takes place in the behavior of the queen. If you cut both antennas near the head, this mother, formerly held in such high considera- tion by her people, loses all her influence, and even the m aternal instinct disappears. Instead of laying her eggs in the cells, she drops them here and there. — (Huber.) The experiments made by Huber on workers and drones, in regard to the loss of the antennas, are equally conclusive. The workers, deprived of their antennae, returned to the hive, where they remained inactive and soon deserted it for- ever, light being the only thing which seemed to have any attraction for them. In the same way, drones, deprived of their antennas, de- serted the observatory hive, as soon as the light was excluded from it, although it was late in the afternoon, and no drones were flying out. Their exit was attributed to the lc* > of this organ, which helps to direct them in darkness. 35. The inference is obvious, that a bee deprived of her antennae loses her intellect. " If you deprive a bird, a pigeon, for instance, of its cerebral lobe, it will be deprived of its instinct, yet it will live if you stuff it with food. Furthermore, its brain will eventually be renewed, thus bringing back all the uses of its senses." — (Claude Bernard, "Science Experimentale.") Bees, however, cannot live without their antennae, and these organs would not grow again, like the brains of birds, the legs of crawfishes, or the tails of lizards. GENERAL CHARACTERISTICS. 15 36. Let us notice, in reference to the sensorial organs, that the brain of workers is very much larger than that of either the queen or the drone, who need but a very common instinct to perform their functions ; while the various occu- pations of the workers, who act as nurses, purveyors, sweep- ers, watchful wardens, and directors of the economy of the bee-hive, necessitate an enlargement of faculties very extra- ordinary in so small an insect. 37. We cannot better close this chapter than by quoting the celebrated Hollander, Swammerdam, as Cheshire does: " I cannot refrain from confessing, to the glory of the immense, incomprehensible Architect, that I have but imperfectly de- scribed and represented this small organ ; for to repre- sent it to the life in its full perfection, far exceeds the utmost efforts of human knowledge." 38. We have now come to the most difficult organ to describe — the mouth of the bee. But we will first visit the interior of the head and of the tho- rax, to find the nursing ar -'■'.■ salivary* glands, and explain their uses. 39. The workers have three pairs of glands : two pairs, different in form, placed in the head (a, a, fig. 5), and one larger pair, located in the thorax or corselet. The upper pair, which resembles a string of onions Mg. 5. SALIVARY GLANDS OF THE WORKER- BEE. (Magnified. From Maurice Girard.) a, a, glands of the head; b, glands of the thorax. is absent in the * In plainer words, spittle-producing tubes. 16 PHYSIOLOGY OF THE HONEY-BEE. drones and queens. According to Girard, these upper glands were discovered by Meckel in 1846. They are very large and dilated in the young worker bees, while they act as nurses, but are slim in the bees of a broodless colony. In the old bees, that no longer nurse the brood, they wither more and more, till they become shrunken and seemingly dried. Hence Maurice Girard, and others before him, have concluded very rationally that these upper glands produce the milky food given to the larvae, during the first days of their development. Mr. Cheshire has advanced the very reasonable theory that the queen, during the time of egg- laying, is fed by the workers from the secretions of this gland. Fig. 6. LONGITUDINAL SECTION THROUGH HEAD OF WORKER. (Magnified 14 times . From Cheshire . ) a, antenna, with three muscles attached to mrp, meso-cephalic pillar; d, clypeus: Ihr, labrum or upper lip; No. 1, upper salivary or chyle gland (this gland really runs in front of the meso-cephalic pillars, hut here the latter are kept in view); o, opening of same in the mouth; oc, ocellus or simple eye; eg, cephalic ganglion, or brain system; », neck; th, thorax; os, oesophagus or gullet; ■«/ 2, 3, salivary ducts of glands two and three; .«r, salivary valve ; ph, pharynx; lb, labium or lower lip, with its parts sepa- rated for display; mt, mentum or chin; »m, mouth; tax, maxilla; lp, labial palpi: /, ligula or tongue; b, bouton. 40. " The queen at certain periods has the power of produ- cing between 2,000 and 3.000 eggs daily (98). A careful calcula- tion shows that 90,000 of these would occupy a cubic inch and GENERAL CHARACTERISTICS. 17 weigh 270 grains. So that a good queen, for days or even weeks* in succession, would deposit, every twenty-four hours, between six and nine grains of highly-developed and extremely rich tissue- forming matter. Taking the lowest estimate, she then yields the incredible quantity of twice her own weight daily, or more accu- rately four times, since at this period, more than half her weight consists of eggs. Is not the reader ready to exclaim : What enormous powers of digestion she must possess ! and since pol- len is the only tissue-forming food of bees, what pellets of this must she constantly keep swallowing, and how large must be the amount of her dejections! But what are the facts ? Dissection reveals that her chyle stomach is smaller than that of the worker, and that at the time of her highest efforts, often scarcely a pollen grain is discoverable within it, its contents consisting of a trans- parent mass, microscopically indistinguishable from the so-called "royal jelly"; while the most practiced bee-men say they never saw the queen pass any dejections at all. These contradic- tions are utterly inexplicable, except upon the theory I propound and advocate. She does pass dejections, for I have witnessed the fact; but these are very watery." — (Cheshire.) Thus ac 'ording to Cheshire, the food eaten by the queen, during egg-laying, is already digested and assimilated by the bees, for her use. Her dejections which are scanty and liquid, are licked up by the workers, as are also the de- jections of the drones, if not too abundant. 41. The other two pairs of glands, which are common to workers, queens, and drones, evidently produce the saliva. The functions of both must be the same, for they unite in the same canal (scZ, 2, 5, fig. 6), terminated by a valvule, which, passing though the mentum or chin (m£), opens at the base of the tongue. The saliva produced by them is used for different purposes. It helps the digestion ; it changes the chemical condition of the nectar (246) har- vested from the flowers ; it helps to knead the scales of wax (201) of which the combs are built, and perhaps the pro- polis (236) with which the hives are varnished. It is used * These facts have "been demonstrated so repeatedly, that they are as well established as the most common laws in the breeding of our domestic animals. 2 18 PHYSIOLOGY OF THE HONEY-BEE. also to dilute the honey when too thick, to moisten the (263) pollen grains, to wash the hairs when daubed with honey, etc. These glands }deld their saliva while the tongue of the bees is stretched out; but the upper glands (No. 1, fig. 6), which open on both sides of the pharynx or mouth (ph), can yield their chyle only when the tongue is bent backwards, to help feed the larva (64) lying at the bottom of the cell. 42. The mouth of the bee has mandibles or outer jaws, which move sidewise, like those of ants and other insects, instead of up and down as in higher animals. These jaws are short, thick, without teeth, and beveled inside so as to form a hollow when joined together, as two spoons would do. With them, they manipulate the wax to build their comb, open the anthers of flowers to get the honey, and seize and hold, to drag them out, robbers or intruders, or debris of any kind. Fig. 7. Head of honey - hornet . (Magnified.) Fig 8. Head of honey- bee. (Magnified.) Fig. 9. Mandible of honey- hornet . (Magnified.) Fig. 10. Mandible of honey- bee. (Magnified.) 43. Fig. 9 shows the jaws of the Mexican hornet highly magnified. Fig. 10 shows the jaws of the honey-bee, highly magnified. Notice the difference in the shape of the two, the saw-like appearance of the one, and the spatula shape of the other. A glance at these figures is enough to con- vince an} T intelligent horticulturist of the truth of Aristotle's remark — made more than two thousand years ago — that " bees hurt no kinds of sound fruit, but wasps and hornets are very destructive to them." GENERAL CHARACTERISTICS. 19 We shall give further evidence concerning the correct- ness of this statement. (871) 44. Below the antennae, the clypeus or shield (cl, fig. 6) projects, which is prolongated by an elastic rim called labrum or upper lip (Ibr). The pharynx is the mouth (_p7i), and the oesophagus (ce) the gullet, through which the food goes into the stomach. As we have already seen, the canals of the upper glands open on each side of the mouth, and discharge their chyle into it at will. 45. The chin or mentum (mt) is not literally a part of the mouth. It can move forward and backward, and sup- ports several pieces, among which is the tongue, or proboscis, or ligula (Z). The tongue is not an extension of the chin, but has its root in it, and can only be partly drawn back into it, its extremity, when at rest, being folded back under the chin. 46. There are, on each side of the tongue, the labial palpi or feelers* (&, fig. 11, and Ip, fig. 6), which are fastened to the chin by hinged joints. They are composed of four pieces each, the first two of which are broad, and the other two small and thin, and provided with sensitive hairs of a very fine fabric. Outside of the palpi are the maxillae (c, fig. 11, and mx, fig. 6) which in some insects have the func- tion of jaws, but which, in the bee, only serve, with the palpi, to enfold the tongue in a sort of tube, formed and opened at the will of the insect, and which, by a certain muscular motion, as also by the ability of the tongue to move up and down in this tube, force the food up into the mouth. 47. The tongue is covered with hairs, which are of graded sizes, so that those nearest the tip or bouton are thin and flexible. It — the tongue — is grooved like a trough, the edges of which can also unite to form a tube, with perfect * Organs of taste according to Ley dig and Jobert . 20 PHYSIOLOGY OF THE HONEY-BEE. joints. It is easily understood that if this tongue was a tube, the pollen grains when conveyed through it would obstruct it, especially when daubed with very thick honey. 48. "A most beautiful adaptation here becomes evident. jSTectar gathered from blossoms needs conversion into honey. Its cane sugar must be changed into grape sugar, and this is accom- plished by the admixture of the salivary secretions of Systems Nos. 2 and 3 (sd, 2, 3, fig. 6), either one or both. The tongue is drawn into the mentum by the shortening of the retractor linguee mus- cle, which, as it contracts, diminishes the space above the salivary valve, and so pumps out the saliva, which mixes with the nectar as it rises, by methods we now understand. Bees, it has often been observed, feed on thick syrup slowly; the reason is simple. The thick syrup will not pass readily through minute passages without thinning by a fluid. This fluid is saliva, which is demanded in larger quanti- ties than the poor bees can supply. They are able, how- ever, to yield it in surprising volume, which also explains how it is that these little Fig. r. TONGUE AND APPENDAGES. (Magnified. From Matirice Girard.) , tongue; b, labial palpi; c, maxilla. marvels can so well clean themselves from the sticky body honey. The saliva is to them both soap and water, and the tongue and surrounding parts, after any amount of daubing, will soon shine with the lustre of a mirror.'" — (Cheshire.) 49. The length of the tongue of the honey-bee is of great importance to bee-keepers. Some flowers, such as red clo- ver, have a corolla so deep, that few bees are able to gather the honey produced in them. Therefore, one of the chief GENERAL CHARACTERISTICS. 21 aims of progressive bee-keepers, should be to raise bees with longer tongues. This can undoubtedly be done sooner or later, by careful selection, in the same way that all our do- mestic plants and animals have been improved in the past. For this, patience and time are required. 50. The thorax is the intermediate part of the body. It is also called " corselet." It is formed of three rings sol- dered into one. Each of the three rings bears one pair of legs, on its under side ; and each of the last two rings bears a pair of wings, on its upper side ; making four wings and six legs, all fastened on the thorax. 51 . Each leg is composed of nine joints (B, Plate IV), the two nearest the body (c, tr) being short. The next three are the femur (/), tibia (ti), and planta (p) also called metatarsus. The last four joints form the tarsus (t) or foot. 52. The last joint of the tarsus, or tip of the foot, is pro- vided with two claws (cm, fig. 12), that cling to objects or to the surfaces on which the bee climbs. These claws can be folded, somewhat like those of a cat (A, fig. 12), or can be turned upwards (B, fig. 12) when the bees are hanging in clusters. When they walk on a polished surface, like the pane of a window, which the claws cannot grasp, the latter are folded down ; but there is between them a small rubber-like pocket, pulvillus (pv, A, B,) which secretes a sticky, " clammy " substance, that enables the bee to cling to the smoothest surfaces. House-flies and other insects cling to walls and windows by the same process. It was formerly asserted that insects cling to the smooth surfaces by air suction, but the above explanation is correct, and you can actually see " the footprints of a fly " on a pane of glass, with the help of a microscope, remnants of the " clammy " substance being quite discernible. B} T this ingenious ar- rangement, bees can walk indifferently upon almost any- thing, since wherever the claws fail, the pulvilli take their place. 22 PHYSIOLOGY OF THE HONEY-BEE. 53. "But another contrivance, equally beautiful, remains to be noticed. The pulvillus is carried folded in the middle (as at C, fig. 12), but opens out when applied to a surface, for it has at its upper part an elastic and curved rod (cr) which straightens as the pulvillus is pressed down, C and D, fig. 12, making this clear. The flattened-out pulvillus thus holds strongly while pulled, by the weight of the bee, along the surface, to which it adheres, but comes up at once if lifted and rolled off from its op- posite sides, just as we should peel a wet postage stamp from its envelope. The bee, then, is held securely till it attempts to lift the leg, when it is freed at once ; and, by this exquisite yet simple plan, it can fix and release each foot at least twenty times per second." — (Cheshire.) Fig. 12. BEE'S FOOT IX CLIMBING, SHOWING ACTION OF PULVILLUS. (Magnified 30 times . From Cheshire . ) A, position of the foot in climbing slippery surface or glass; pc, pul- villus; fh, feeling hairs ; an, auguiculus, or claw; /, tarsal joint. B, position of the foot in climbing rough surface. C, section of pulvillus just touching fiat surface; cr, curved rod. D, pulvillus applied to surface. 54. The legs of bees, like all other parts of their body, are covered with hairs of varied shapes and sizes, the de- scription of which is beyond the limits of this work. We will confine ourselves to a short explanation of the uses, which have a direct bearing upon the work of tfie bee. The hairs of the front, or first, pair of legs (C, Plate IV) are especially useful in cleaning the eyes and the tongue, and gathering the pollen grains. 55. On the metatarsus, the lower of the two largest joints of these front legs, is a rounded notch (E, a, Plate IV), closed when the leg is folded, by a sort of spur or velum, GENERAL CHARACTERISTICS. 23 (t>, C, E, H) fastened to the tibia, or upper large joint. I he learned Dr. Dubini, of Milan (L'Ape, Milan, 1881), speaks of it as being used to cleanse the antennae and the tongue of the pollen that sticks to them. Mr. Cheshire thinks it is used only to cleanse the antennae, from the fact that this notch, which has teeth like a comb (F, Plate IV), is found as well in the queen and the drone as in the worker, and that its aperture corresponds exactly to the different sizes of the antenna of each sex. (H, Plate IV.) 56. The second pair of legs have no notch, but the lower Fig. 18. POSTERIOR LEGS. (Magnified. From Maurice Girard.) A, of the queen; B, of the worker (under side) ; C. of the worker (upper side) ; D, of the drone. extremity of the tibia bears a spur (D s, Plate IV) or spine, which is used in loosening the pellets of pollen, brought to the hive on the tibias of the posterior legs (Plate IV). This spur also helps in cleaning the wings. 57. The posterior or hind legs are very remarkable, in several respects. Between the tibia and the metatarsus (B, ivp, Plate IV) they have an articulation, whose parts close like pincers, and which serve to loosen from the abdomen the scales of wax to be mentioned farther on (201). As neither the queen nor the drone produces wax, they are des- titute of this implement. 24 PHYSIOLOGY OF THE HONEY-BEE. 58. u But the chief interest centers on the two joints last men- tioned (ti, p, A. B., Plate IV), as a device for carrying the pollen of the blossom home to the hive. The metatarsus is enlarged into a sub-quadrangular form, constituting a fiattish plate, slightly con- vex on both surfaces. The outer face (p, A, Plate IV) is not remark- able, but the one next the body (p, B) is furnished with stiff combs, the teeth of which are horny, straight spines, set closely, and arranged in transverse rows across the joint, a little projecting above its plane, and the tips of one comb slightly overlapping the basis of the next. Their colour is reddish-brown ; and en- tangled in the combs, we almost invariably discover pollen gran- ules, which have been at first picked up by the thoracic hairs, but combed out by the constant play of the legs over the breast — in which work, the second pair, bearing a strong resemblance to the third, performs an important part." 59. " So soon as the bees have loaded these combs, they do not return to the hive, but transfer the pollen to the hollow sides of the tibia, seen at ti, A. This concavity, corbicula, or pollen basket, is smooth and hairless, except at the edges, whence spring long, slender, curved spines, two sets following the line of the bottom and sides of the basket, while a third bends over its front. The concavity fits it to contain pollen, while the marginal hairs greatly increase its possible load, like the sloping stakes which the farmer places round the sides of his waggon when he desires to carry loose hay, the set bent over (see G, Plate IV) accomplish- ing the purpose of the cords by which he saves his property from being lost on the road. But a difficulty arises : How can the pol- len be transferred from the metatarsal comb to the basket above ? Easily ; for it is the left metatarsus that charges the right basket, and vice versa. The legs are crossed, and the metatarsus naturally scrapes its comb-face on the upper edge of the opposite tibia, in the direction from the base of the combs towards their tips. These upper hairs standing over wp, B, or close to ti, A (which are opposite sides of the same joint), are nearly straight, and pass between the comb teeth. The pollen, as removed, is caught by the bent-over hairs, and secured. Each scrap adds to the mass until the face of the joint is more than covered, and the hairs just embrace the pellet as we see it in the cross-section at G. The worker now hies homewards, and the spine, as a crow-bar, does its work."— (Cheshire.) 60. The four wings, in two pairs, are supported by hoi- „ Plate 4. LEGS OF WORKER-BEE. (Magnified 10 times. From Cheshire.) A, third right leg, side from the body, ti , tibia, showing pollen basket; p, plantaor metatarsus; t, tarsus. B, third right leg, side next the body, c, coxa; tr, trochanter; ivp, pincers. C, front right leg. v, velum; b, brush; eb, eye-brush. D , second right leg. b, brush; E, joint of first leg, more enlarged, v, velum; a, autenna comb; b, brush. F, teeth of antenna comb, magnified 200 times. G, cross-section of tibia through pollen-basket, n; nerve; h, holding hairs; fa, farina or pollen. H, an- tenna in process of cleaning, v, velum; s, scraping edge; a, antenna; I, section of leg; c, antenna comb. GENERAL CHARACTERISTICS. 25 low nervures or ribs, and have a great power of resistance. In flight, the small wings are fastened to the large ones by small hooks (fig. 14), located on the edge of their outer nervure, that catch in a fold of the inner edge of the large wings. Thus united, they present to the air a stronger surface and give the bees a greater power of flight. No doubt, a single pair of wings of the same surface would have better attained the desired aim, but their width would have annoyed the bees in going inside of the cells, either to feed Mg. 14. WINGS OF THE HOXEY-EEE. (Magnified. From Cheshire.) A, anterior wing, underside; p,p, plait. B, posterior wing, under side; h,h, hooklets. C, cross-section of wings through line a, b, showing hooklets in plait. the larvae or to deposit supplies. Imagine a blue fly trying, with its wide wings, to go inside of a cell ! 61. " Mr. Gaurichon has noticed that when the bees fan, or ventilate the entrance of the hive, their wings are not hooked together as they are in flight, but act independent- ly of one another." (Dubini, 1881.) A German entomolo- gist, Landois, states that, according to the pitch of their hum, the bees' flight must at times be equal to 440 vibra- tions in a second, but he noticed that this speed could not 26 PHYSIOLOGY OF THE HONEY-BEE. be kept up without fatigue. It is well known that the more rapid the vibrations, the higher the pitch. 62. Digesting Apparatus. — The honey obtained from the blossoms, after mixing with the saliva (41), and passing through the mouth and the oesophagus, is conveyed into the honey-sack. 63. This organ, located in the abdomen, is not larger than a very small pea, and so perfectly transparent as to appear, when filled, of the same color as its contents ; it is prop- erly the first stomach, and is surrounded by muscles which enable the bee to compress it, and empty its contents through her proboscis into the cells. She can also, at will, keep a supply, to be digested, at leisure, when leaving with a swarm, (418), or while in the cluster during the cold of winter (620), and use it only as fast as nec- essary. For this purpose, the honey-sack is supplied at its lower extremity, in- side, with a round ball, which Burmeister has called the stomach-mouth, and which has been beau- tifully described by Schie- menz (1883). It opens by a complex valve and connects the hone3~-sack with the digesting-stomach, through a tube or canal, pro- j ecting inside the latter. This canal is lined with hairs point- ing downward, which prevent the solid food, such as pollen Fig. 15. DIGESTING APPARATUS. (Magnified . From Maurice Girard . ) a, tongue; 6, oesophagus : c\ honey-sack; d, stomach; e, malpighiau tubes;/, small intestine; g, large intestine. GENERAL CHARACTERISTICS. 27 grains, from returning to the honey-sack. Cheshire affirms that this stomach-mouth, which protrudes into the honey- sack, acts as a sort of sieve, and strains the honey from the grains of pollen floating in it, appropriating them for di- gestion, and allowing the honey to flow back into the sack. The bee could thus, at will, ;i eat or drink from the mixed diet she carries." 64. According to Schonfeld, (Illustrierte Bienenzeitung) the chyle, or milky food which is used to feed the young lar- - vae, — and which we have shown to be, most probably, the product of the upper pair of glands (39-40), — would be produced from the digesting-stomach, which he and others call cl^de-stomach. Although we are not competent in the matter, we would remark that the so-called chyle-stomach produces chyme, or digested food, from which the chyle, or nourishing constituent, is absorbed by the cell-lining of the stomach and of the intestines, and finally converted into blood. We do not see how this chyle could be regurgitated, by the stomach, to be returned to the mouth. 65. In mammals, the chyliferous vessels do not exist in the stomach, but in tie intestine, the function of the stom- ach being only to digest the food by changing it into chyme, from which the chyle is afterwards separated, for the use of the body. 66. Again, in the mammals, the glands which produce milk are composed of small clusters of acini, which take their secretions from the blood and empty them into vessels terminating at the surface of the breast. The action of the upper or chyle gland (40), in the bee, is exactly similar to the action of those lacteal glands, and the fact that this gland is absent in the queen and in the drone is, to us, pos- itive evidence that the chylous or lacteal food (given the larvae) is produced by these glands alone, and not by the direct action of the digesting-stomach. 67. The food arriving in the stomach is mixed with the 28 PHYSIOLOGY OF THE HONEY-BEE. gastric juice, which helps its transformation, and the undu- lating motion of the stomach sends it to its lower extremity, toward the intestines. But, before entering into them, the chyme receives the product of several glands which have been named Malpighian tubes (e, fig. 15) from the scientist Malpighi, who was the first to notice them. A grinding motion of the muscles placed at the junction of the stomach Fig. 16. (From Girard.) NERVOUS SYSTEM OF THE HONEY-BEE. (Magnified.) A, in the larva; B, in the bee. with the intestines, acting on the grains of pollen not yet sufficiently dissolved, prepares them to yield their assimilable particles to the absorbing cells in the walls of the small intestine. Thence they go into the large intes- tine, from which the refuse matter is discharged by the worker-bees, while on the wing. We italicize the words, GENERAL CHARACTERISTICS. 29 because this fact has considerable bearing on the health of the bees, when confined by cold or other causes, as will be seen farther on. (639.) 68. " The nervous system (fig. 16) of the honey-bee, the seat of sensation and of the understanding, is very interesting, on ac- count of the profound difference which it presents when compared with the nervous system of the larva. The honey-bee, more per- fect in organization than the butterfly, begins as a larva deficient in legs, very much inferior to the caterpillar from which the but- terfly proceeds. It is very interesting to notice, that the drones, although larger than the workers, especially in the head, have a smaller brain. This state of things coincides with the fact that the drones are not intelligent, while no one can refuse gleams of intelligence to the worker-bees, as nurses and builders." — (Girard.) Fig. 17. A, HEART OP THE HOJSTEY-BEE. B, RESPIRATORY SYSTEM. (Magnified. From Girard.) 69. The heart, or organ of the circulation of the blood, formed of five elongated rooms, in the abdomen, is termin- ated in the thorax, and in the head, by the aorta, which is 30 PHYSIOLOGY OF THE HONEY-BEE. not contractible. Each room of the heart presents, on either side, an opening for the returning blood. The blood, " soaking through the body" (Cheshire), comes in contact with the air contained in the tracheal ramifications, where it is arterialized, or in plainer words, renovated, before com- ing back to the heart. The bee is not provided with any discernible blood or lymphatic vessels save the aorta, and its blood is colorless. TO. The breathing organ of the bee is spread through its whole body. It is formed of membranous vessels, or tra- cheae, whose ramifications spread and penetrate into the organs, as the rootlets of a plant sink down into the soil. Connected with these, there is, on each side of the abdomi- nal cavity, a large tracheal bag, variable in form and dimen- sions, according to the quantity of air that it contains. Bees breathe through holes, or spiracles, which are placed on each side of the body, and open into the tracheal bags and tracheae. 71. "The act of respiration consists in the alternate dilatation and contraction of the abdominal segments. By filling, or emp- tying the air-bags, the bee can change her specific gravity. When a bee is preparing herself for flight, the act of respiration resembles that of birds, under similar circumstances. At the mo- ment of expanding her wings, which is indeed an act of respira- tion, the spiracles or breathing holes are expanded, and the air, rushing into them, is extended into the whole body, which by the expansion of the air-bags, is enlarged in bulk, and rendered of less specific gravity ; so that when the spiracles are closed, at the instant the insect endeavors to make the first stroke with, and raise itself upon, its wings, it is enabled to rise in the air, and sustain a long and powerful flight, with but little muscular exertion." * * * " Newport has shown that the develop- ment of heat in insects, just as in vertebrates, depends on the quantity and activity of respiration and the volume of circu- lation."— (Packard, Salem, 1S69.) 72. Mr. Cheshire notices that bees, even in full, vigor- ous youth and strength, are not at at all times able to take GENERAL CHARACTERISTICS. 31 flight. The reader may have noticed that if they are fright- ened, or even touched with the finger, they will occasionally move only by slight jumps. This temporary inability to fly, is due to the small quantity of air that their tracheal sacs contain. They were at rest, their blood circulated slowly, their body was comparatively heavy ; but when their wings were expanded, the tracheal bags, that were as flat as ribbons, were soon filled with air, and they were ready to take wing. Practical Apiarists well know that thej^ may be shaken off the comb, and gathered up, with a shovel, with a spoon, or even with the hands, to be weighed or measured in open ves- sels, like seeds. The foregoing remarks give the explana- tion of this fact. 73. When the tracheal bags are filled with air, bees, owing to their peculiar structure, can best discharge the residues contained in their intestines. The queen is differently formed, her ovaries occupying part of the space belonging to the air-sacks in the worker, hence her discharges, like those of the drones (190), take place in the hive. (40. ) ■74. "The tracheous bags of the abdomen, which we would be tempted to name abdominal lungs, hold in reserve the air need- ed to arterialize the blood and to produce muscular strength and heat, in connection with the powerful flight of the insect. Heat is indispensable, to keep up the high temperature of the hive, for the building of comb and rearing of brood. The aerial vesicles increase, by their resonance, the intensity of the hum- ming, and are used also like the valve of a balloon, to slacken or increase the speed of the flight, by the variation of density, ac- cording to the quantity or weight, of the air that they contain. This accumulated air is also the means of preventing asphyxy, which the insects resist a long time. Lastly, these air-bags help in the mating of the sexes, which takes place in the air; the swelling of the vesicles being indispensable to the bursting forth of the male organs."— (Girard.) 75. The hum that is produced by the vibration of the 32 PHYSIOLOGY OF THE HONEY-BEE. wings is different in each of the three kinds of inhabitants of the hive, and easily recognizable to a practiced ear. The hum of the drone is the most sonorous. But worker-bees, when angry or frightened, or when they call each other, emit different and sharper sounds. On the production of these sounds, bee-keepers and entomologists are far from being agreed. "Inside of every opening of the aerial tubes is a valvular muscle, which helps to control the mechanism of respiration. This can be opened or closed at will, by the bee, to prevent the ingress, or egress, of air. It is by this means that the air is kept in the large tracheous bags and decreases the specific gravity of the insect. The main resonant organ of the bee is placed in front of this stopping muscle, at the entrance of the trachea." " The humming is not produced solely by the vibrating of the wings, as is generally admitted. Chabrier, Burmeister, Lan- dois, have discovered in the humming, three different sounds : the first, caused by the vibrating of the wings ; the second, sharper, by the vibration of the rings of the abdomen ; the third, the most intense and acute, produced by a true vocal mechanism, placed at the orifices of the aerial tubes." — (Girard.) 76. The bee-keeper who understands the language of bees, can turn it to his advantage. Here are some ex- amples : b ' When something seems to irritate the bees, who are in front of a hive, on the alighting-board, they emit a short sound, z-2-z-, jumping at the same time towards the hive. This is a warning. Then they fly and examine the object of their fears, remaining sustained by their wings, near the suspected object, and emit- ting at the same time, a distinct and prolonged sound. This is a sign of great suspicion. If the object moves quickly, or other- wise shows hostile intent, the song is changed into a piercing cry for help, in a voice whistling with anger. They dash for- ward violently and blindly, and try to sting. " When they are quiet and satisfied, their voice is the hum- ming of a grave tune ; or, if they do not move their wings, an allegro murmur. If they are suddenly caught or compressed, the sound is one of distress. If a hive is jarred at a time when all the bees are quiet, the mass speedily raise a hum, which GENERAL CHARACTERISTICS. 33 ceases as suddenly. In a queenless hive, the sound is doleful, lasts longer and at times increases in force. When bees swarm, the tune is clear and gay, showing manifest happiness."— (GEttl- Klauss, 1836.) 77. The German pastor Stahala has published a very complete study on the language of bees, which has appeared in some of the bee-papers of Italy, France and America. We do not consider it as altogether accurate ; but there are some sounds described that all bee-keepers ought to study, especially the doleful wail of colonies which have lost their queen, and have no means of rearing another. 78. The Sting. — The sting of the bee, a terror to so many, is indispensable to her preservation. Without it, the attraction, which honey presents to man and animals, must have caused the complete destruction of this precious insect, years ago. 79. This organ is composed, 1st, of a whitish vesicle, or poison sack, about the size of a small mustard seed, located in the abdomen, in which the venomous liquid is stored. This liquid is elaborated in two long canals, similar in ap- pearance to the Malpighian tubes, each of which is termin- ated at its upper extremity, by a small round bag or en- largement. It is similar to formic acid, although perhaps more poisonous. 80. 2d, In the last ring of the abdomen, and connected with the poison sack, is a firm and sharp sheath, open in its whole length, which supports the sting proper, and acts in- dependently of it. The bee can force this sheath out of the abdomen, or draw it in, at will. 81. 3d, The sting is composed of two spears of a pol- ished, chestnut-colored, horny substance, which, supported by the sheath, make a very sharp weapon. In the act of stinging, the spears emerge from the sheath, about two- thirds of their length. Between them and on each of them, is a small groove, through which the liquid, coming from the poison sack, is ejected into the wound, 3 34 PHYSIOLOGY OF THE HONEY-BEE. 82. Each spear of the sting has about nine barbs, which are turned back like those of a fish hook, and prevent the sting from being easily withdrawn. When the insect is prepared to sting, one of these spears, having its point a little longer than the other, first darts into the flesh, and Fig. 18. THE STING OF THE WORKER-BEE, AND ITS APPENDAGES. (Magnified. From Girard . ) a, sting; b, poison-sack; c,c, poison glands; c/,d, secreting bags. being fixed by its foremost barb, the other strikes in also, and they alternately penetrate deeper and deeper, till they acquire a firm hold of the flesh with their barbed hooks. "Meanwhile, the poison is forced to the end of the spears, by much the same process which carries the venom from the tooth of a viper when it bites."— (Girard.) GENERAL CHARACTERISTICS. 35 83. The muscles, though invisible to the eye, are yet strong enough to force the sting, to the depth of one-twelfth of an inch, through the thick skin of a man's hand. " The action of the sting," says Paley, " affords an example of the union of chemistry and mechanism ; of chemistry, in respect to the venom which can produce such powerful effects ; of mech- anism, as the sting is a compound instrument. The machinery would have been comparatively useless, had it not been for the chemical process by which, in the insect's body, honey is con- verted into poison; and on the other hand, the poison would have been ineffectual, without an instrument to wound, and a syringe to inject it." "Upon examining the edge of a very keen razor by the micro- scope, it appears as broad as the back of a pretty thick knife, rough, uneven, and full of notches and furrows, and so far from anything like sharpness, that an instrument as blunt as this seemed to be, would not serve even to cleave wood. An exceed- ingly small needle being also examined, it resembled a rough iron bar out of a smith's forge. The sting of a bee viewed through the same instrument, showed everywhere a polish amazingly beautiful, without the least flaw, blemish, or inequal- ity, and ended in a point too fine to be discerned." 84. As the extremit}^ of the sting is barbed like an ar- row, the bee can seldom withdraw it, if the substance into which she darts it is at all tenacious. A strange peculiarity of the sting and the muscles pertaining to it, is their spas- modic action, which continues quite a while, even after the bee has torn herself away, and has left them attached to the wound. In losing her sting, she often parts with a portion of her intestines, and of necessity soon perishes. Wasps and hornets are different from bees in this respect, for they can sting repeatedly without endangering their lives. Although bees pay so dearly for the exercise of their pat- riotic instincts, still, in defense of home and its sacred treasures, they " Deem life itself to vengeance well resign'd, " Die on the wound and leave their sting behind." 36 PHYSIOLOGY OF THE HONEY-BEE. 85. The sting is not, however, always lost. When a bee prepares to sting, she usually curves her abdomen so that she can drive in her sting perpendicularly. To with- draw it, she turns around the wound. This probably rolls up its barbs, so that it comes out more readily. If it had been driven obliquely instead of perpendicularly, as some- times happens, she could never have extracted it by turning around the wound. 86. Sometimes, only the poison-bag and sting are torn off, then she may live quite a while without them, and strange to say, seems to be more angry than ever, and per- sists in making useless attempts to sting. 87. If a hive is opened during a Winter day, when the weather does not permit the bees to fly, a great number of them raise their abdomens, and thrust out their stings, in a threatening manner. A minute drop of poison can be seen on their points, some of which is occasionally flirted into the eyes of the Apiarist, and causes severe irritation. The odor of this poison is so strong and peculiar, that it is eas- ily recognized. In warm weather it excites the bees, and so provokes their anger, that when one has used its sting in one spot on skin or clothes, others are inclined to thrust theirs in the same place. 88. The sting, when accompanied by the poison-sack, may inflict wounds hours, and even days, after it has been removed, or torn, from the bod}^ of the bee. But when buried in honey, its poison is best preserved, for it is very volatile, and when exposed to the air, evaporates in a moment. The stings of bees, which, perchance, may be found in broken combs of honey, often retain their power, and we have known of a person's being stung in the mouth, by carelessly eating hone}" in which bees had been buried by the fall of the combs. Mr. J. R. Bledsoe, in the American Bee Journal, for 1870, writes: GENERAL CHARACTERISTICS. 37 89. "It may often happen that one or both of the chief parts of the sting- are left in the wound, when the sheath is with- drawn, but are rarely perceived, on account of their minuteness; the person stung congratulating himself, at the same time, that the sting has been extracted. I have had occasion to prove this fact repeatedly in my own person and in others. * * * The substance of the sting, on account of its nature is readily dis- solved by the fluids of the body, consequently giving irritation as a foreign body for only a short time comparatively. The sting when boiled in water becomes tender and easily crushed." For further particulars concerning the sting, we will refer our readers to the chapter entitled "Handling Bees." — (378.) 90. Before terminating this comparatively short, but perhaps, to many of our readers, tedious study of the or- gans of the bee, we desire to commend Messrs. Girarcl, Packard, Cook, Schiemenz, Dubini, and especially Mr. F. Cheshire, who, by their writings, have helped us in this part of our undertaking. We must add also that the more we study bees, the more persuaded we are that Mr. Packard was right when he wrote : 91. " Besides these structural characters as animals, endowed with instinct, and a kind of reason, differing, perhaps, only in degree, from that of man, these insects outrank all the articu- lates. In the unusual differentiation of the individual into males, females, and sterile workers, and a consequent subdivision of labor between them ; in dwelling in large colonies ; in their habits and in their relation to man as domestic animals, subserv- ient to his wants, the bees possess a combination of characters which are not found in any other sub-order of insects, and which rank them first and highest in the insect series." — ("Guide to the Study of Insects.") 92. One of their peculiarities, is, especially, the care given by most of the hymenopters to their progeny. We will show how bees nurse their young. Other insects of the same sub-order construct their nests of clay or paper, or burrow in the wood, or in the earth. All prepare for 38 PHYSIOLOGY OF THE HONEY-BEE. their young a sufficient supply of food ; some of pollen and honey, others of animal substance. Several kinds of wasps provide their nests with living insects, spiders, caterpillars, etc., that they have previously paralyzed, but without kill- ing them, by piercing them with their stings. Ants seem to possess even a greater solicitude. When their nests are overthrown, they carry their larvae to some hidden place out of danger. We have exhibited the use of the organs of bees as a race. We will now examine the character of each of the three kinds of inhabitants of the bee-hive. The Queen. 93. Although hone}- -bees have attracted the attention of naturalists for ages, the sex of the inmates of the bee-hive was, for a long time, a nrvstery. The Ancient authors, having no- ticed in the hive, a bee, larger than the others, and differently shaped, had called it the "King Bee." 94. To our knowledge, it was an English bee-keeper, Butler, who, first among bee-writers, affirmed in 1609, that the King Bee was really a queen, and that he had seen her deposit eggs. (" Feminine Monarchy.") 95. This discovery seems to have passed unnoticed, for Swammerdam, who ascertained the sex of bees by dissec- tion, is held as having been the first to proclaim the sex of the Queen bee. (Leyde, 1737.) A brief extract from the celebrated Dr. Boerhaave's Memoir of Swammerdam, show- ing the ardor of this naturalist, in his study of bees, should put to blush the arrogance of those superficial observers, THE QUEEN. 39 who are too wise to avail themselves of the knowledge of others : "This treatise on Bees proved so fatiguing a performance, that Swamrnerdam never afterwards recovered even the appearance of his former health and vigor. He was most continually en- gaged by day in making observations, and as constantly by night in recording them by drawings and suitable explanations. " His daily labor began at six in the morning, when the sun afforded him light enough to survey such minute objects ; and from that hour till twelve, he continued without interruption, all the while exposed in the open air to the scorching heat of the sun, bareheaded, for fear of intercepting his sight, and his head in a manner dissolving into sweat under the irresistible ardors of that powerful luminary. And if he desisted at noon, it was only because the strength of his eyes was too much weakened by the extraordinary afflux of light, and the use of microscopes, to con- tinue any longer upon such small objects. " He often wished, the better to accomplish his vast, unlimited views, for a year of perpetual heat and light to perfect his inqui- ries ; with a polar night, to reap all the advantages of them by proper drawings and descriptions." 96. The name of queen was then given to the mother bee, although she in no way governs, but seems to reign like a beloved mother in her family. 97. She is the only perfect female in the hive, the laying of eggs being her sole function ; and she acquits herself so well of this duty, that it is not uncommon to find queens, who lay more than 3,500 eggs per day, for several weeks in succession during the height of the breeding season. In our observing hives we have seen them lay at the rate of six eggs in a minute. The fecundity of the female of the white ant is, however, much greater than this, being at the rate of sixty eggs a minute ; but her eggs are simply extruded from her body, and carried by the workers into suitable nurser- ies, while the queen-bee herself deposits her eggs in their appropriate cells. 98. This number of 3,500, that a good queen can lay 40 PHYSIOLOGY OF THE HONEY-BEE. per day, will seem exaggerated to many bee-keepers, own- ers of small hives. Thejr will perhaps ask how such lay- ing can be ascertained. Nothing is easier. Let us suppose that we have found a hive, with 1,200 square inches of comb occupied by brood. As there are about 55 worker- cells to the square inch of comb (217), 27 to 28 on each side, we multiply 1,200 by 55, and we have 66,000 as the total number of cells occupied at one time. Now, it takes about 21 days for the brood to develop from the egg to the perfect insect, and we have 3,145 as the average number of eggs laid daily by that queen, in 21 days. Of course, this amount is not absolutely accurate, as the combs are not always entirely filled, but it will suffice to show, within perhaps a few hundred, the actual fecundity of the queen. Such numbers can be found every year, in most of the good colonies, provided that the limited capacity of the hive will not prevent the queen from laying to the utmost of her ability. 99. The laying of the queen is not equal at all seasons. She lays most during the spring and summer months, pre- vious to the honey crop and during its flow. In late autumn and winter months, she lays but little. 100. Her shape is widely different from that of the other bees. While she is not near so bulky as a drone, her body is longer ; and as it is considerably more tapering, or sugar-loaf in form, than that of a worker, she has a some- what wasp-like appearance. Her wings are much shorter in proportion than those of the drone, or worker ; * the under part of her body is of a golden color, and the upper part usually darker than that of the other bees.| Her mo- tions are generally slow and matronly, although she can, when she pleases, move with astonishing quickness. No colony can long exist without the presence of this all-impor- *The wings of the queen are in realit// longer than those of the Avorker. t This applies only to queens of the "black or common race. THE QUEEN. 41 tant insect ; but must as surely perish, as the body without the spirit must hasten to inevitable decay. 101. The queen is treated with the greatest respect and affection by the bees. A circle of her loving offspring often surround her, testifying in various ways their dutiful re- gard ; some gently embracing her with their antennae, others offering her food from time to time, and all of them politely backing out of her way, to give her a clear path when she moves over the combs. If she is taken from them, the whole colony is thrown into a state of the most intense agi- tation as soon as they ascertain their loss ; all the labors of 'the hive are abandoned ; the bees run wildly over the combs, and frequently rush from the hive in anxious search for their beloved mother. If they cannot find her, they return to their desolate home, and by their sorrowful tones reveal their deep sense of so deplorable a calamity. Their note at such times, more especially when they first realize their loss, is of a peculiarly mournful character ; it sounds somewhat like a succession of wailings on the minor key, and can no more be mistaken by an experienced bee-keeper, for their ordinary happy hum (76), than the piteous moanings of a sick child could be confounded by the anxious mother with its joyous crowings when overflowing with health and hap- piness. We shall give, in this connection, a description of an interesting experiment. 102. A populous stock was removed, in the morning, to a new place, and an empty hive put upon its stand. Thous- ands of workers which were ranging the fields, or which left the old hive after its removal, returned to the familiar spot. It was truly affecting to witness their grief and despair ; they flew in restless circles about the place where once stood their happy home, entering the empty hive continually, and expressing in various ways, their lamentations over so cruel a bereavement. Towards evening, ceasing to take wing, they roamed in restless platoons, in and out of the hive, and 42 PHYSIOLOGY OE THE HONEY-BEE. over its surface, as if in search of some lost treasure. A small piece of brood-comb was then given to them, contain- ing worker-eggs and worms. The effect produced by its introduction took place much quicker than can be described. Those which first touched it raised a peculiar note, and in a moment, the comb was covered with a dense mass of bees ; as they recognized, in this small piece of comb, the means of deliverance, despair gave place to hope, their restless motions and mournful voices ceased, and a cheerful hum proclaimed their delight. If some one should enter a build- ing filled with thousands of persons tearing their hair, beat- ing their breasts, and by piteous cries, as well as frantic gestures, giving vent to their despair, and could by a single word cause all these demonstrations of agony to give place to smiles and congratulations, the change would not be more instantaneous than that produced when the bees received the brood-comb ! The Orientals called the honey-bee " Deborah; She that speaketh." Would that this little insect might speak, in words more eloquent than those of man's device, to those who reject any of the doctrines of revealed religion, with the assertion that they are so improbable, as to labor under a fatal a priori objection. Do not all the steps in the devel- opment of a queen from the worker-egg, labor under the very same objection? and have they not, for this reason been formerly regarded, by many bee-keepers, as unworthy of belief? If the favorite argument of infidels will not stand the test, when applied to the wonders of the bee-hive, is it entitled to serious weight, when, by objecting to religious truths, they arrogantly take to task the Infinite Jehovah for what He has been pleased to do or to teach? With no more latitude than is claimed by such objectors, it were easy to prove that a man is under no obligation to believe any of the wonders of the bee-hive, even although he is him- THE QUEEN. 43 self an intelligent eye-witness to their substantial truth.* 103. The process of rearing Queen-bees will now be par- ticularly described. Early in the season, if a hive becomes very populous, and if the bees make preparations for swarm- ing, a number of royal cells are begun, being commonly constructed upon those edges of the combs which are not attached to the sides of the hive. These cells somewhat resemble a small pea-nut, and are about an inch deep, and one -third of an inch in diameter : being very thick, they require much wax for their construction. They are seldom seen in a perfect state after the hatching of the queen, as the bees cut them down to the shape of a small acorn-cup (fig. 20). These queen-cells, while in prog- ress, receive a very unusual amount of attention from the workers. There is scarcely a second in which a bee is not peeping into them ; and as fast as one is satisfied, another pops in her head to report prog- ress, or increase the supply of food. Their importance to the community might easily be inferred from their being the center of so much attraction. 104. While the other cells open sideways, the queen-cells always hang with their mouth downwards. Some Apiarists Fig. 20. QUEEN T -CELLS IN PROGRESS. * The passages referring to religious subjects have been nearly all retained in this revision, at Mr . Langslroth' a request, even when not in accordance with our views. As intelligent men are always tolerant, we know our readers will not object to them. 44 PHYSIOLOGY OF THE HONEY-BEE. think that this peculiar position affects, in some way, the development of the royal larvae ; while others, having ascer- tained that they are uninjured if placed in any other posi- tion, consider this deviation as among the inscrutable mysteries of the bee-hive. So it seemed to us until convinced, by a more careful observation, that they open downwards simply to save room. The distance between the parallel ranges of comb in the hive is usually too small for the royal cells to open sideways, without interfering with the opposite cells. To economize space, the bees put them on the unoc- cupied edges of the comb, where there is plenty of room for such very large cells. 105. The number of royal cells in a hive varies greatly ; sometimes there are only two or three, ordinarily not less than five ; and occasionally, more than a dozen. Some races of bees have a disposition to raise a greater number of queen-cells than others. At the Toronto meet- ing of the North American Bee-keepers' Association, in September, 1883, Mr. D. A. Jones, the noted Canadian im- porter of Syrian and Cyprian bees, and publisher of the Canadian Bee Journal, exhibited a comb containing about eighty queen-cells, built by a colony of Syrian bees (560). Such cases are rare in the hive of any other race. 106. As it is not intended that the young queens should all be of the same age, the ro} T al-cells are not all begun at the same time. It is not fully settled how the eggs are de- posited in these cells. In some few instances, we have known the bees to transfer the eggs from common to queen- cells ; and this may be their general method of procedure. Mr. Wagner put some queenless bees, brought from a dis- tance, into empty combs that had lain for two years in his garret. When supplied with brood, they raised their queen in this old comb ! Mr. Richard Colvin, of Baltimore, and other Apiarian friends, have communicated to us instances almost as striking. Yet, Huber has proved that bees do THE QUEEN. 45 not ordinarily transport the eggs of the queen from one cell to another. We shall hazard the conjecture, that, in a crowded state of the hive, the queen deposits her eggs in cells on the edges of the comb, some of which are afterwards changed by the workers into royal cells. Such is a queen's instinctive hatred of her own kind, that it seems improbable that she should be intrusted with even the initiatory steps for securing a race of successors. (For further particulars concerning the raising of large numbers of queen-cells, see 515.) 107. The egg which is destined to produce a queen-bee does not differ from the egg intended to become a worker ; but the young queen-larvae are much more largely supplied with food than the other larvae ; so that they seem to lie in a thick bed of jelly, a portion of which may usually be found at the base of their cells, soon after they have hatched, while the food given to the worker-larvae after three days, and for the last days of their development, is coarser and more sparingly given, as will be seen farther on. 108. The effects produced on the royal larvae by their peculiar treatment are so wonderful, that they were at first rejected as idle whims, by those who had neither been eye- witnesses to them, nor acquainted with the opportunities enjoyed by others for accurate observation. They are not only contrary to all common analogies, but seem marvelous- ly strange and improbable. The most important of these effects we shall briefly enumerate. 1st. The peculiar mode in which the worm designed for a queen is treated causes it to arrive at maturity almost one- third earlier than if it had been reared a worker. And yet, as it is to be much more fully developed, according to ordi- nary analogy, it should have had a slower growth. 2d. Its organs of reproduction are completely developed, so that it can fulfill the office of a mother. 3d. Its size, shape, and color are greatly changed; its 46 PHYSIOLOGY OF THE HONEY-BEE. lower jaws are shorter, its head rounder, and its abdomen without the receptacles for secreting wax ; its hind legs have neither brushes nor baskets, and its sting is curved (fig. 21), and one- third longer than that of a worker. Fig. 21. THE STIXG OF THE QUEEN. (Magnified. From Girard.) a, a, bran ches of the oviduct; c, oviduct; b, spermatheca; d, sting; e, poison-sack; /, gland. 4th. Its instincts are entirely changed. Reared as a worker, it would have thrust out its sting at the least provo- cation ; whereas now, it may be pulled limb from limb with- out attempting to sting. As a worker, it would have treated a queen with the greatest consideration ; but now, if brought in contact with another queen, it seeks to destroy her as a rival. As a worker, it would frequently have left the hive, either for labor or exercise ; as a queen, it never leaves it after impregnation, except to accompany a new swarm. 5th. The term of its life is remarkably lengthened. As a worker, it would not have lived more than six or seven months ; as a queen, it may live seven or eight times as THE QUEEN. 47 long. All these wonders rest on the impregnable basis of demonstration, and instead of being witnessed only by a select few, are now, by the use of the movable-comb hive, familiar sights to any bee-keeper who prefers an acquaint- ance with facts, to caviling and sneering at the labors of others. 109. The process of rearing queens, to meet some spe- cial emergency, is even more wonderful than the one already described. If the bees have worker-eggs, or worms not more than three days old, they make one large cell out of three, by nibbling away the partitions of two cells adjoining a third. Destroying the eggs or worms in two of these cells, they place before the occupant of the other, the usual food of the young queens ; and by enlarging its cell, give it ample space for development.* As a security against failure, they usually start a number of queen-cells, for several days in succession. 110. Duration of Development. — The eggs hatch in three days after they are laid. The small worm which is intended to produce a queen, is six days in its larval state, and seven in its transformation into a chrysalis and winged insect. These periods are not absolutely fixed ; being of shorter or longer duration, according to the warmth of the hive and the care given by the bees. In from ten to sixteen daysf they are in possession of a new queen, in all respects resembling one reared in the natural way ; while the eggs in the adjoining cells, which have been developed as workers, are nearly a week longer in coming to maturity. 111. The Virgin Queen. — Feeble and pale, in the first moments after her birth, the young queen, as soon as she * It was a German bee-keeper, Schirach, who discovered that a queen can be raised from a worker-egg. (' ' The New Natural and Artificial Multiplication of Bees," Bautzen, 1761.) t In ten days, if the larva selected is about six days old; in sixteen, if they have selected newly-laid eggs. 48 PHYSIOLOGY OF THE HONEY-BEE. has acquired some strength, travels over the combs, looking for a rival, either hatched or unhatched. 112. ''Hardly ten minutes had elapsed since the young queen had emerged from her cell, when she began to look for sealed queen-cells. She rushed furiously upon the first that she met, and, by dint of hard work, made a small opening in the end. We saw her drawing, with her mandibles, the silk of the cocoon, which covered the inside. But, probably, she did not succeed according to her wishes, for she left the lower end of the cell, and went to work on the upper end, where she finally made a wider opening. As soon as this was sufficiently large, she turned about, to push her abdomen into it. She made several motions, in different directions, till she succeeded in striking her rival with the deadly sting. Then she left the cell ; and the bees, which had remained, so far, perfectly passive, began to enlarge the gap which she had made, and drew out the corpse of a queen just out of her nymphal shell. During this time, the victorious young queen rushed to another queen-cell, and again made a large opening, but she did not introduce her abdomen into it ; this second cell containing only a royal-pupa not yet formed. There is some probability that, at this stage of development, the nymphs of queens inspire less anger to their rivals ; but they do not escape their doom ; for, whenever a queen-cell has been prematurely opened, the bees throw out its occupant, whether worm, nymph, or queen. Therefore, as soon as the victorious queen had left this second cell, the workers enlarged the opening and drew out the nymph that it contained. The young queen rushed to a third cell; but she was unable to open it. She worked languidly and seemed tired of her first efforts." — (Huber.) 113. Huber did not allow this experiment to go on any further, as he wished to use the remainder of the queen-cells. Had he left these cells untouched, the bees would have fin- ished the work of destruction. 114. We have noticed repeatedly, that the queen-cells are always destroyed a few hours after the birth of the queen, unless the colony has determined to swarm. In the latter case, the workers prevent the newly-hatched queen from approaching the queen-cells, till she is old enough and strong enough to leave with the swarm. (443.) THE QUEEN. 49 115. Like some human beings who cannot have their own way, she is highly offended when thus repulsed, and utters, in a quick succession of notes, a shrill, angry sound, not unlike the rapid utterance of the words, " peep, peep." If held in the closed hand, she will make a similar noise. To this angry note, one or more of the unhatched queens, im- prisoned and nursed in their cells by the bees, answer by the sound " kooa, kooa " ; the difference in their voices, being due to the confinement of the latter in the cell. These sounds, so entirely unlike the usual steady hum of the bees, are almost infallible indications that a swarm will soon issue. They are occasionally so loud as to be heard at some distance from the hive. The reader will understand that all these facts relate to a hive of bees, from which the old queen has been previously and suddenly removed, either by the Apiarist for some pur- pose, or by swarming, or accident. 116. Sometimes two queens hatch at the same time. We translate the narrative of Huber in such an emergency : " On the loth of May, 1790, two queens emerged from their cells, at about the same time, in one of our observing hives. They rushed quickly upon one another, apparently in great anger, and grasped one another's antennae, so that the head, corselet and abdomen of the one, were touching the head, corselet and ab- domen of the other. Had they curved the posterior extremity of their bodies, they could have stung each other, and both would have perished. But it seems that ISTature has not wished that their duels should result in the death of both combatants, and that it is prescribed to queens, while in this position, to flee instantly with the greatest haste. As soon as both rivals understood that they were in danger from one another, they dis- entangled themselves and fled apart A few minutes after, their fears ceased and they attacked one another again, with the same result. The worker bees were much disturbed, all this time, and more so while the combatants were separated. Each time, the bees stopped the queens in their flight, keeping them prisoners for a minute." "At last, in a third attack, the stronger, or more savage, of the queens, ran to her unsuspecting 4 50 PHYSIOLOGY OF THE HOXEY-BEE. rival, seized her across the wings, and, climbing upon her, pierced her with her sting. The vanquished queen, crawled languidly about, and soon after died." — ("Nouvelles Observa- tions.") 117. Although it is generally admitted that two queens cannot inhabit the same hive, it happens, sometimes, that mother and daughter, are found living peaceably together, and even laying eggs at the same time. This is when the bees, having noticed the decrease in fecundity of the old queen, have raised a young queen to replace her. But this abnormal state lasts only a few weeks, or a few months at most. 118. Our junior partner was, one day, hunting for a queen with his sister. ' ' What a large and bright-colored queen! " exclaimed he, on finding her. " Why, no! she is dark and small," said his sister. Both were right, for there were two queens, mother and daughter, on the same comb, and not six inches apart. At another time we were looking for an old queen, whose prolificness had decreased, intend- ing to supersede her. To our wonder, the hive was full of brood. We found the old queen. Evidently a queen so small, so ragged and worn, could not be the mother of such a quantity of brood. We continued our search and found another queen, daughter of the first, large and plump. Had we introduced a strange queen into this hive, after having destroyed the old one, thinking that we had made the col- ony queenless, she would have been killed. 119. We could relate a number of such instances. The most interesting case was the simultaneous laying of two queens of different breeds in the same hive, one black, the other Italian. The colony had two queens, when we intro- duced our Italian queen. We found the younger one and killed her, and the old one was so little considered by her bees, that they accepted our imported queen and allowed both to remain together. To our astonishment there were THE QUEEN. 51 some black bees hatching among the pure Italians, and it was not till we accidentally discovered the old black queen that we understood the matter. There are more such cases than most bee-keepers would imagine, and when these happen to buyers of improved races of bees, if they are not very close observers, they are apt to accuse the venders of having cheated them. Such instances make the business of queen selling quite disagree- able. 120. Impregnation. — The fecundation of the queen bee has occupied the minds of Apiarists and savants for ages. A number of theories were advanced. If a number of drones are confined in a small box, they give forth a strong odor : Swammerdam supposed that the queen was impreg- nated by this scent (aura semi-nails') of the drones. Reaumur, a renowned entomologist, in 1744, thought that the mating of the queen was effected inside of the hive. Others ad- vanced that the eggs were impregnated b} 7 the drones in the cells. After making a number of experiments to verify these theories, and finding all false, Huber finally ascertained that, like many other insects, the queen was fecundated in the open air and on the wing ; and that the influence of this connection lasts for several years, and probably for life. 121. Five days or more after her birth, the virgin queen goes out to have intercourse with a drone. Several bee-keepers of note, such as Neighbour of England ("Cook's Manual," 1884, page 72) and Dzierzon of Germany, wrote that a queen may go out on her marriage-flight when only three days old. The shortest time we have ever noticed between the birth of a queen and her first bridal- flight was five days, and on this we are in accordance with Mr. Alley of Massachusetts, one of the most exten- sive queen breeders in the world. The average time is six or seven days. Earlier bridal-trips are probably due to 52 PHYSIOLOGY OF THE HONEY-BEE. the disturbing of the colony by the Apiarist, for we have no- ticed that this disturbing hastens the maturity of the work- ers. The bridal-flight takes place about noon, at which time, the drones are flying most numerously. 122. On leaving her hive, the queen flies with her head turned towards it, often entering and departing several times before she finally soars into the air. Such precautions on the part of a young queen are highly necessary, that she may not, on her return, lose her life, by attempting, through mistake, to enter a strange hive. Many queens are lost in this way. 123. As the mating of the queen and the drone takes place in the air, very few persons have witnessed it. The following narration will please our readers : " A short time ago, during one of those pleasant days of May, I was roaming in the fields, not far from Courbevoie. Suddenly I heard a loud humming and the wind of a rapid flight brushed my cheek. Fearing the attack of a hornet, I made an instinctive mo- tion with my hand to drive it away. There were two insects, one of which pursued the other with eagerness, coming from high in the air. Frightened no doubt, by my movements, they arose again, flying vertically to a great height, still in pursuit of each other. I imagined that it was a battle, and desiring to know the result, I followed, at my best, their motions in the air, and got ready to lay hold of them, as soon as they would be within reach. " I did not wait long. The pursuing insect rose above the other, and suddenly fell on it. The shock was certainly violent, for both united, dropped with the swiftness of an arrow and passed by me, so near that I struck them down, with my handkerchief. I then discovered that this bitter battle was but a love-suit. The two insects, stunned and motionless, were coupled. 'Ihe copulation had taken place in the air, at the instant when I had seen one of them falling on the other, twenty or twent3 r -five feet above the ground. " It was a queen-bee and a drone. Persuaded that I had killed them, I made no scruple of piercing them both with the same pin. But the pain recalled them to life again, and they promptly sepa- rated. This separation was violent, and resulted in the tearing off of the drone's organ (1SS) which remained attached to the THE QUEEN. 53 queen. The queen was yet alive on the following morning. For some time after her separation from the drone, she brushed the last ring of her abdomen, as though trying to extract the organ of the drone. She endeavored to bend herself, probably in order to bring this part within reach of her jaws, which were con- stantly moving, but the pin prevented her from attaining her aim. Her activity soon decreased and she ceased to move."— (Alex. Levi, Journal Des Fermes, Paris, 1869.) Messrs. Gary and Otis had witnessed a similar occurrence in July 1861. {American Bee Journal, Vol. I, page 66.) 124. It is now well demonstrated that in a single mating, a queen is fertilized for life, although in a few rare instan- ces they have been said to mate two days in succession, per- haps because the first mating was insufficient. 125. After the queen has re-entered the hive, she gets rid of the organ of the drone by drawing it with her claws, and she is sometimes helped in this work by the worker- bees. The drone dies in the act of fertilization. (188.) 126. Although fertilization of the queen in confinement has been tried by many, it has never been successful. Those who, from time to time, claimed to have succeeded were evi- dently deceiving themselves through ill-made experiments. (187.) 127. Having ascertained that the queen-bee is fecund- ated in the open air and on the wing, Huber still could not form any satisfactory conjecture how eggs were fertilized which were not yet developed in her ovaries. Years ago, the celebrated Dr. John Hunter (1792), and others, sup- posed that there must be a permanent receptacle for the male sperm, opening into the oviduct. Dzierzon, who must be regarded as one of the ablest contributors of modern times to Apiarian science, maintained this opinion, and stated that he had found such a receptacle filled with a fluid resembling the semen of the drones. He does not seem to have then demonstrated his discoveries by any microscopic examinations. 54 PHYSIOLOGY OF THE HONEY-BEE. 128. In the Winter of 1851-2, the writer submitted for scientific examination several queen-bees to Dr. Joseph Leidy, of Philadelphia, who had the highest reputation both at home and abroad, as a naturalist and microscopic anat- omist. He found, in making his dissections, a small globu- lar sac, about -Jg of an inch in diameter, communicating with the oviduct, and filled with a whitish fluid ; this fluid, when examined under the microscope, abounded in the spermatozoids* which characterize the seminal fluid. A comparison of this substance, later in the season, with the semen of a drone, proved them to be exactly alike, f 129. These examinations have settled, on the impreg- nable basis of demonstration, the mode in which the eggs of the queen are fecundated. In descending the oviduct to be deposited in the cells, they pass by the mouth of this seminal sac, or " spermatheca," and receive a portion of its fertilizing contents. Small as it is, it contains sufficient to impregnate millions of eggs. In precisely the same way, the mother-wasps and hornets are fecundated. The females only of these insects survive the Winter, and often a single one begins the construction of a nest, in which at first only a few eggs are deposited. How could these eggs hatch, if the females had not been impregnated the previous season? Dissection proves that the}^ have a spermatheca similar to that of the queen-bee. It never seems to have occurred to the opponents of Huber, that the existence of a permanent- ly-impregnated mother-wasp is quite as difficult to be ac- counted for, as the existence of a similarly impregnated queen-bee. 130. The celebrated Swammerdam, in his observations * Spermatozoids are the living germs of the seminal fluid. t Prof. Siebold, in 1S43, examined the spermatheca of the queen-bee, andfouud it after copulation , filled with the seminal fluid of the drone . At that time , Api- arists paid no attention to his views, hut considered them, as he says, to he only ' ' theoretical staff." It seems, then, that Prof. Leidy's dissection was not, as we had hitherto supposed, the first, of an impregnated spermatheca. THE QUEEN. 55 upon insects, made in the latter part of the seventeenth century, has given a highly magnified drawing of the ovaries of the queen-bee, a reduced copy of which we present (Plate V) to our readers. The small globular sac (D), com- municating with the oviduct (E), which he thought secreted a fluid for sticking the eggs to the base of the cells, is the seminal reservoir, or spermatheca. Any one who will care- fully dissect a queen-bee, may see this sac, even with the naked eye. It will be seen that the ovaries (67 and II) are double, each consisting of an amazing number of ducts filled with eggs, which gradually increase in size.* 131. Huber, while experimenting to ascertain how the queen was fecundated, confined some young ones to their hives by contracting the entrances, so that they were more than three weeks old before they could go in search of the drones. To his amazement, the queens whose impregnation was thus retarded never laid any eggs but such as produced drones ! He tried this experiment repeatedly, but always with the same result. Bee-keepers, even from the time of Aristotle, had observed that all the brood in a hive were occasionally drones. 132. Dzierzon appears to have been the first to ascertain the truth on this subject ; and his discovery must certainly be ranked among the most astonishing facts in all the range of animated nature. Dzierzon asserted that all impregnated eggs produce fe- males, either workers or queens; and all unimpregnated ones, * Since the first edition of this work was issued, we have ascertained that Po- sel (page 54) describes the oviduct of the queen, the spermatheca and its con- tents, and the use of the latter in impregnating the passing egg. His work was published at Munich, in 1784. It seems also from his work ("A Complete Treatise of Forest and Horticultural Bee-Culture," page 36), that before the investigations of Huber, Jansha, the hee-keeper royal of Maria Theresa, had discovered the fact that the young queens leave their hive in search of the drones . 56 PHYSIOLOGY OF THE HONEY-BEE. males, or drones! He stated that in several of his hives he found drone-laying queens, whose wings were so imperfect that they could not fry, and which, on examination, proved to be unfecundated. Hence, he concluded that the eggs laid by an unimpregnated queen-bee, had sufficient vital- ity to produce drones. 133. Parthenogenesis, meaning "generation of a virgin," is the name given to this faculty of a female, to produce offspring without having been fecundated, and is not at all rare among insects. 134. In the Autumn of 1852, our assistant found a young queen whose progen}~ consisted entirety of drones. The colony had been formed by removing a few combs contain- ing bees, brood, and eggs, from another hive, and had raised a new queen. Some eggs were found in one of the combs, and young bees were already emerging from the cells, all of which were drones. As there were none but worker-cells in the hive, they were reared in them, and not having space for full development, the}' were dwarfed in size, although the bees had pieced the cells to give more room to their occupants. We were not only surprised to find drones reared in worker-cells, but equally so that a young queen, who at first lays only the eggs of workers, should be laying drone-eggs, and at once conjectured that this was a case of an unimpregnated drone-laying queen, sufficient time not having elapsed for her impregnation to be unnaturally re- tarded. All necessary precautions were taken to determine this point. The queen was removed from the hive, and although her wings appeared to be perfect, she could not fly. It seemed probable, therefore, that she had never been able to leave the hive for impregnation. 135. To settle the question be}T>nd the possibility of doubt, we submitted this queen to Professor Leidy for mi- croscopic examination. The following is an extract from (Plate 5.) THE OVARIES OF THE QUEEN, IX COMBINATION WITH THE STING. (Magnified.) .ffand G, ovaries uniting in a common oviduct E; D, spermatheca; A, poison- sack, R, rectum; C, muscles. THE QUEEN. 57 his report: " The ovaries were filled with eggs, the poison- sac full of fluid ; and the spermatheea distended with a per- fectly colorless, transparent, viscid liquid, without a trace of spermatozoids."' 136. On examining this same colony a few days later, we found satisfactory evidence that these drone-eggs were laid by the queen which had been removed. No fresh eggs had been deposited in the cells, and the bees on missing her had begun to build royal cells, to rear, if possible, another queen. Two of the royal cells were in a short time discon- tinued ; while a third was sealed over in the usual way, to undergo its changes to a perfect queen. As the bees had only a drone-laying queen, whence came the female egg from which they were rearing a queen ? At first we imagined that they might have stolen it from another hive ; but on opening this cell it contained only a dead drone ! Huber had described a similar mistake made by some of his bees. At the base of this cell was an unus- ual quantity of the peculiar jelly fed to develop young queens. One might almost imagine that the bees had dosed the unfortunate drone to death ; as though they had hoped by such liberal feeding to produce a change in his sexual organization. 137. In the Summer of 1854, we found another drone- laying queen in our Apiary, with wings so shrivelled that she could not fly. We gave her successively to several queen- less colonies, in all of which she deposited only drone-eggs. 138. In Italy there is a variety of the honey-bee differing in size and color from the common kind. If a queen of this variety is crossed with the common drones, her drone-prog- eny will be Italian (551), and her worker-brood a cross between the two ; thus showing that the kind of drones she will produce has no dependence on the male by which she is fecundated. 58 PHYSIOLOGY OF THE HONEY-BEE. " The following interesting experiment was made by Berlepsch, in order to confirm the drone-productiveness of a virgin queen. He contrived the exclusion of queens at the end of September, 1S54, and, therefore, at a time when there was no longer any males ; he was lucky enough to keep one of them through the Winter, and this pro uced drone-offspring on the 2d of March, in the following year, furnishing fifteen hundred cells with brood. That this drone-bearing queen remained a virgin, was proved by the dissec- tion which Leuckart undertook, at the request of Berlepsch. He found the state and contents of the seminal pouch of this queen to be exactly of the same nature as those found in virgin queens. The seminal receptacle in such females never contains semen- masses, with their characteristic spermatozoids, but only a limpid fluid, destitute of cells and granules which is produced from the two appendicular glands of the seminal capsule; and, as I sup- pose, serves the purpose of keeping the semen transferred into the seminal capsule in a fresh state, and the spermatozoids active, and, consequently, capable of impregnation."— (Siebold, "Parthe- nogenesis.") 139. Again, to prove that Dzierzon was right, Professor Von Siebold, in 1855, dissected several eggs at the Apiary of Baron Von Berlepsch, and he found spermatozoids in every female egg, or egg laid in worker-cell, but although he examined thirty- two male eggs, or eggs laid in drone- cells, he could not discover a single spermatozoid either in or around them. In the act of copulation, the sperm of the drone is received into the spermatheca (Plate V, D), which is placed near and can empty itself into the oviduct. When an egg passes by the spermatheca, if the circumstances are such that a few spermatozoids empty out of the bag on the egg, the sex of it is changed from male to female. It appears that there is in each egg a small opening (micropyle, i and j, fig. 24), through which the living sperm- atozoids enter, when the circumstances are such that a few of them can slip out the seminal bag and slide into the oviduct. Such is the process of impregnation. 140. Aristotle noticed, more than 2,000 years ago, that THE QUEEN. 59 the eggs which produce drones are like the worker- eggs.* With the aid of powerful microscopes we are still unable to detect an}- difference in the size or outside appearance of the eggs of the queen. 141. These facts, taken in connection, constitute a per- fect demonstration that unfecundated queens are not only able to lay eggs, but that their eggs have sufficient vitality to produce drones. It seems to us probable, that after fecundation has been delayed for about three weeks, the organs of the queen-bee are in such a condition that it can no longer be effected ; just as the parts of a flower, after a certain time, wither and shut up, and the plant becomes incapable of fructifica- tion. Perhaps, after a certain time, the queen loses all de- sire to go in search of the male. There is something analogous to these wonders in the " aphides " or green lice, which infest plants. We have un- doubted evidence that a fecundated female gives birth to other females, and they in turn to others, all of which with- out impregnation are able to bring forth young ; until, after a number of generations, perfect males and females are pro- duced, and the series starts anew ! However improbable it may appear that an unimpregnated egg can give birth to a living being, or that sex can depend on impregnation, we are not at liberty to reject facts be- cause we cannot comprehend the reasons of them. He who allows himself to be guilty of such folly, if he aims to be con- sistent, must eventually be plunged into the dreary gulf of atheism. Common sense, philosophy, and religion alike teach us to receive, with becoming reverence, all undoubted facts, whether in the natural or spiritual world ; assured * Cheshire says that " worker- egg ' ' is a misnomer, since all worker-eggs are impregnated, and heuce female-eggs. But the term is too intelligihle and popular, for us to change it; since Cheshire himself hows before custom, and uses it. 60 PHYSIOLOGY OF THE HONEY-BEE. that however mysterious they may appear to us, they are beautifully consistent in the sight of Him whose " under- standing is infinite." 142. It had long been known that the queen deposits drone-eggs in the large or drone-cells, and worker-eggs in the small or worker-cells, and that she usually makes no mistakes. Dzierzon inferred, therefore, that there was some way in which she was able to decide the sex of the egg be- fore it was laid, and that she must have such a control over the mouth of the seminal sac as to be able to extrude her eggs, allowing them at will to receive or not a portion of its fertilizing contents. In this way he thought she determined their sex, according to the size of the cells in which she laid them. 143. Our lamented friend, Mr. Samuel Wagner, had ad- vanced a highly ingenious theory, which accounted for all the facts, without admitting that the queen had any special knowledge or will on the subject. He supposed that, when she deposited her eggs in the worker-cells, her body was slightly compressed by their size, thus causing the eggs as they passed the spermatheca to receive its vivifying in- fluence. 144. But this theory was overthrown by the fact that the queen sometimes lays eggs in cells that are built onl} T to a third of their length, whether worker-cells or drone-cells, and in which no compression can take place. Yet, it is very difficult to admit that the queen is endowed with a faculty that no other animal possesses, that of knowing and deciding the sex of her progeny beforehand. It seems to us that she must be guided by her instinct like all other beings, for she alwa} T s begins, in the Spring, by laying in small cells, using large cells only when no others are in reach in the warm part of the hive. Sometimes, however, when she is very heavy with eggs, she lays in drtme-cells as she comes to them. Usually it is only when the hive is warm THE QUEEN. 61 throughout, and worker-cells all occupied, that she fills the unoccupied drone-cells. This has given rise to the popular theory that the bees raise drones whenever they intend to swarm. It is possible that the width of the cells and the position of her legs when laying in drone-cells (224) pre- vents the action of the muscles of her spermatheca. 145. The preference of the queen for worker-cells can not be disputed. If all the drone-combs are removed from a hive and replaced with worker-combs, she will not show any displeasure. She will live in that hive for years, with- out laying any drone-eggs, except, perhaps, here and there, in odd-shaped junction-cells. Mr. A. I. Root, of Medina, O., makes the same remark: " By having a hive furnished entirely with worker-comb, we can so nearly prevent the production of drones, that it is safe enough to call it a complete remedy." — { U A. B. C. of Bee Cult- ure," page 134, Medina, 1883.) 146. If, on the other hand, we furnish a swarm with nothing but drone-comb, already built, they would soon leave the hive. But, if a few worker-cells are among the drone-cells, the queen will find them and will lay in them. On this question Mr. Root says : 147. " Bees sometimes rear worker-brood in drone-comb when compelled to from want of room, and they always do it by contracting the mouth of the cells, and leaving the young bee a rather large berth in which to grow and develop." ("A. B. C." page 133.) " If you give a young laying queen a hive supplied only with drone-combs, she will rear worker-brood in these drone-cells. The mouth of the cells will be contracted with wax as mentioned before." (Page 188.) 148. An experiment, made in Bordeaux, under the su- pervision of Mr. Drory, editor of the ^Rucher" has proven that the queen may lay worker-eggs in drone-cells. A piece of drone-comb containing worker-brood, was sent us by him. The eggs were laid irregularly and the mouth of the 62 PHYSIOLOGY OF THE HOXEY-BEE. cells had been contracted, as mentioned by Mr. Root. This contraction of the cell mouth seems indispensable to enable the queen to put in motion the muscles of her speimatheca. 149. We will add. with Mr. Root, that in the Spring, or late in the Fall, when the crop is not abundant, the queen will travel over drone-combs without depositing a single egg in them. Even by feeding the colony, when in these con- ditions, the queen cannot be readily induced to la}' in drone-cells. Our conclusions on this point differ from those of Mr. Root. We think that the queen prefers worker- cells to drone-cells, because the fecundation of the eggs by the action of the muscles of the spermatheca probably gives her a pleasant sensation, which she does not experience in la}ing drone-eggs. *>G ~Gb Fig. 22. ABDOMEX OF THE QUEEX-BEE. (Magnified. From the "Hlustrierte B'enei-zeitung.") a, b, r, d, e, rings of the ahdomen; V. nerve-chain; 31, honey-sack; ovaries; D, stomach; R, rectum; G, ganglions; A St, sting; P, muscles; H, gland: S, poison-sack. anus; &*, ovipositor; 150. Some very prolific queens occasionally lay drone- eggs in worker-cells. It may be due to fatigue. This will readily be admitted when we consider the number of eggs laid in one day. (98.) 151. Dzierzon found that a queen which had been refrig- erated for a long time, after being brought to life by warmth, THE QUEEN. 63 laid only male eggs, whilst previously she had also laid fe- male eggs. Berlepsch refrigerated three queens by placing them thirty-six hours in an ice-house, two of which never revived, and the third laid, as before, thousands of eggs, but from all of them only males were evolved. In two in- stances, Mr. Mahan has, at our suggestion, tried similar ex- periments, and with like results. A short exposure of a queen, to pounded ice and salt, answers every purpose. The spermatozoids are in some way rendered inoperative by severe cold. 152. The queen begins laying about two days after im- pregnation. She is seldom treated with much attention by the bees until after she has begun to replenish the cells with eggs ; although if previously deprived of her, they show, by their despair, that they fully appreciated her importance to their welfare. The extraordinary fertility of the queen-bee has already been noticed. The process of laying has been well described by the Rev. W. Dunbar, a Scotch Apiarist : 153. " When the queen is about to lay, she puts her head into a cell, and remains in that position for a second or two, to ascer- tain its fitness for the deposit she is about to make. She then withdraws her head, and curving her body downwards, inserts the lower part of it into the cell; in a few seconds she turns half round upon herself and withdraws, leaving an egg behind her." In the Winter, or early Spring, she lays first in the mid- dle of the cluster, and continues in a circle, around the first eggs laid, till she has filled the whole warm space. She then crosses over to the next comb and does the same thing ; as the bees always cluster on different combs in groups ex- actly opposite, to produce the utmost possible concentration and economy of heat for developing the various changes of the brood. 154. Queens lay more or less according to, 1st, The sea- son ; 2nd, The number of bees that keep up the heat of the 64 PHYSIOLOGY OF THE HOXEY-BEE. brood-nest, and 3d. The quantity of food which they eat. When bees harvest honey or pollen, or when these necessa- ries are provided artificially by the Apiarist, they feed the queen as they pass by her, oftener than they would other- wise ; hence her laying increases in Spring, and decreases in Summer or Fall. It is certain that when the weather is un- congenial, or the colony too feeble to maintain sufficient heat, fewer eggs are matured, just as unfavorable circumstances diminish the number of eggs laid by the hen ; and when the weather is very cold, the queen stops laying, in weak colo- nies. In the latitude of Northern Massachusetts, we have found that the queen ordinarily ceases to lay some time in Octo- ber ; and begins again, in strong stocks, in the latter part of December. On the 14th of January, 1857 (the previous month having been very cold, the thermometer sometimes sinking to 17° below zero), we examined three hives, and found that the central combs in two contained eggs and un- sealed brood ; there were a few cells with sealed brood in the third. Strong stocks, even in the coldest climates, usu- ally contain some brood ten months in the year. 155. " Queens differ much as to the degree of their fertility. Those are best which deposit their eggi with uniform regularity, leaving no cells unsupplied— as the brood hatches at the same time on the same range of comb, which can be again supplied ; the queen thus losing no time in searching for empty cells." — (Dzier- zon.) In bee-life, as well as in human affairs, those who are systematic, ordinarily accomplish the most. To test the difference of fecundity between queens. Mr. De Laj^ens, while transferring bees (574:), in middle April, counted the eggs dropped on a black cloth (57 7). in forty minutes, by the queens of four different colonies. The poorest queen dropped but one egg. the second twelve, the third eighteen, and the fourth twenty. On the fifteenth of Plate 6. DZ1ERZON, Discoverer of Pathogenesis in Queen-bees. This writer is mentioned pages 51, 53, 55, 56, 58, 60, 62, 64, 66, 120, 122, 137, 138, 142, 240, 284, 286, 287, 345, 346, 350, 359, 378, 514. THE QUEEN. 65 July the colony of the first queen was very poor, the second was of average strength, and both the others were very strong. 156. It is amusing to see how the supernumerary eggs of the queen are disposed of. If the workers are too few to take charge of all her eggs, or there is a deficiency of bee- bread to nourish the young; or if, for any reason, she does not judge best to deposit them in the cells, she stands upon a comb, and simply extrudes them from her oviduct, the workers devouring them as fast as they are laid. One who carefully watches the habits of bees will often feel inclined to speak of his little favorites as having an intelligence almost if not quite akin to reason ; and we have sometimes queried, whether the workers who are so fond of a tit-bit in the shape of a newly-laid egg, ever experienced a struggle between appetite and duty ; so that they must practice self-denial to refrain from breakfasting on the eggs so temptingly deposited in the cells. 157. It is well known to breeders of poultry, that the fertility of a hen decreases with age, until at length she may become entirely barren. By the same law, the fecun- dity of the queen-bee ordinarily diminishes after she has entered her third year. An old queen sometimes ceases to lay worker-eggs ; the contents of her spermatheca becoming exhausted, the eggs are no longer impregnated, and pro- duce only drones. The queen-bee usually dies of old age in her fourth year, although she has been known to live much longer. There is great advantage, therefore, in hives which allow her, when she has passed the period of her greatest fertility, to be easily removed. 5 66 PHYSIOLOGY OF THE HONEY-BEE. The Worker-Bee. 158. The workers are the smallest inhabitants of a bee- hive, and compose the bulk of the pop- ulation. A good swarm ought to contain at least 20,000 ; and in large hives, strong colonies which are not reduced by swarm- ing, frequently number four or five times as many during the height of the breeding Fig. 23. season. 159. Their functions are varied. The young bees work inside of the hive, prepare and distribute the food to the larvae, take care of the queen, by brushing her with their tongue, nurse her, maintain the heat of the hive, or renew the air and evaporate the newly-gathered honey (249), by ventilating (744). They clean the hive of dirt or debris, close up all the cracks, and secrete the greater part of the wax which is produced in the hive. The old bees may, if necessary, do a part of the same work; but, as we have seen, (39), old age renders many unfit to prepare the food of the larvae. More alert than the young bees, they do the outside work, gather honey (246), pollen (263), and water (271), for the use of the family, and propolis (236) to cement the cracks.* 160. " Dzierzon states it as a fact, that worker-bees attend more exclusively to the domestic concerns of the colony in the early period of life ; assuming the discharge of the more active *Huber speaks of two kinds of workers : "One of these is, in general, destined for the elaboration of wax, and its size is considerably enlarged when full of honey ; the other immediately imparts what it has collected, to its companions; its abdomen undergoes no sensible change, or it retains only the honey neces- sary for its own subsistence. The particular function of the bees of this kind is to take care of the young, for they are not charged with provisioning the hive. In opposition to the wax-workers, we shall call them small bees, or nurses." "Although the external difference be inconsiderable, this is uot an imagin- ary distinction. Anatomical observations prove that the stomach is not the THE WORKER-BEE. 67 out-door duties only during the later periods of their existence. The Italian bees (5 51) furnished me with suitable means to test the correctness of this opinion. "On the 18th of April, -1855, I introduced (533) an Italian queen into a colony of common bees ; and on the 10th of May following, the first Italian workers emerged from the cells. On the ensuing day, they emerged in great numbers, as the colony had been kept in good condition by regular and plentiful feeding. I will arrange my observations under the following heads : 161. "1. On the 10th of May, the first Italian workers emerged ; and on the 17th they made their first appearance out- side of the hive. On the next day, and then daily till the 29th, they came forth about noon, disporting in front of the hive, in the rays of the sun. They, however, manifestly, did not issue for the purpose of gathering honey or pollen, for during that time none were noticed returning with pellets ; none were seen alighting on any of the flowers in my garden; and I found no honey in the stomachs of such as I caught and killed for examin- ation. The gathering was done exclusively by the old bees of the original stock, until the 29th of May, when the Italian bees began to labor in that vocation also — being then 19 days old. 162. "#. On the feeding troughs placed in my garden, and which were constantly crowded with common bees, I saw no Italian bees till the 27th of May, seventeen days after the first had emerged from the cells. " From the 10th of May on, I daily presented to Italian bees, in the hive, a stick dipped in honey. The younger ones never attempted to lick any of it ; the older occasionally seemed to sip a little, but immediately left it and moved away. The common bees always eagerly licked it up, never leaving it till they had filled their honey-bags. Not till the 25th of May did I see any Italian bee lick up honey eagerly, as the common bees did from the beginning. " These repeated observations force me to conclude that, during same : experiments have ascertained that one of the species cannot fulfill all the functions shared among the workers of a hire. We painted those of each class with different colors, in order to studytheir proceedings; and these were not interchanged. In another experiment, after supplying a hive, deprived of a queen, with brood and pollen, we saw the small bees quickly occupied in nu- trition of the larvse, while those of the wax- working class neglected them. Small bees also produce wax, but in a very inferior quantity to what is elab- orated by the real wax-workers." The two kinds spoken of by Huber were bees at different stages of life. 68 PHYSIOLOGY OF THE HONEY-BEE. the first two weeks of the worker-bee's life, the impulse for gath- ering honey and pollen does not exist, or at least is not devel- oped ; and that the development of this impulse proceeds slowly and gradually. At first the young bee will not even touch the honey presented to her ; some days later she will simply taste it, and only after a further lapse of time will she consume it eagerly. Two weeks elapse before she readily eats honey, and nearly three weeks pass, before the gathering impulse is suffi- ciently developed to impel her to fly abroad, and seek for honey and pollen among the flowers. 163. " I made, further, the following observations respecting the domestic employments of the young Italian bees : " 1. On the 20th of May. I took out of the hive all the combs it contained, and replaced them after examination. On inspecting them half an hour later, I was surprised to see that the edges of the combs, which had been cut on removal,* were covered by Italian bees exclusively. On closer examination, I found that they were busily engaged in re-attaching the combs to the sides of the hive. When I brushed them away, they instantly returned, in eager haste, to resume their labors. "2. After making the foregoing observations, I inserted in the hive a bar from which a comb had been cut, to ascertain whether the rebuilding of comb would be undertaken by the Italian bees. I took it out a few hours subsequently, and found it covered al- most exclusively by Italian workers, though the colony, at that time, still contained a large majority of common bees. I saw that they were sedulously engaged in building comb ; and they prosecuted the work unremittingly, whilst I held the bar in my hand. I repeated this experiment several days in succession, and satisfied myself that the bees engaged in this work were al- ways almost exclusively of the Italian race. Many of them had scales of wax visibly protruding between their abdominal rings (201). These observations show that, in the early stage of their existence, the impulse for comb-building is stronger than later in life. 164. u 3. Whenever I examined the colony during the first three weeks after the Italian bees emerged, I found the brood- combs covered principally by bees of that race : and it is, hence, probable that the brood is chiefly attended to and nursed by the * Mr. Donhoff,the writer of this quotation, used theDzierzon hive, the combs of which are suspended in the hive by an upper bar only, and cannot be taken out unless their edges, that are built against the sides of the hive, are cut. THE WORKER-BEE. 69 younger bees. The evidence, however, is not so conclusive as in the case of comb-building, inasmuch as they may have con- gregated on the brood-combs because these are warmer than the others. " I may add another interesting observation. The fseces in the intestines of the young Italian bees was viscid and yellow ; that of the common or old bees was thin and limpid, like that of the queen-bee. This is confirmatory of the opinion, that, for the production of wax and jelly, the bees require pollen ; but do not need any for their own sustenance." — (B. Z., 1855, p. 163. Dr. Donhoff, translated by the late S. Wagner.) 165. There are none but gentlemen of leisure in the com- monwealth of bees, but assuredly there are no such ladies, I whether of high or low degree. The queen herself has her full share of duties, the royal office being no sinecure, when the mother who fills it must daily superintend the proper deposition of thousands of eggs. Fi s- 24. " The eggs of bees are of a lengthened, oval the egg in the shape with a slight curvature, and of a bluish CELL ^ ' white color : being besmeared, at the time of laying, with a glutinous substance, they ad- here to the bases of the cells, and remain unchanged in figure or situation for three or four days ; they are then hatched, the bot- tom of each cell presenting to view a small white worm." — (Bevan.) 166. For the first three days after their hatching, these worms are fed with a jelly, thought to be prepared or secre- ted by the upper pair of glands of the worker-bees (39), which are very large in the nurses. This milky food is a whitish, transparent fluid, and is distributed to the larvae, as it is needed. After four or perhaps five days, the larva is too large for the bottom of the cell, where it was coiled up, to use the language of Swammerdam, like a dog when going to sleep ; and stretches itself till it occupies the whole 70 PHYSIOLOGY OF THE HONEY-BEE. length of the cell, lying on its back. Its food at this time, is different from that first given. 6 ft ^^ BBOOD IN ALL STAGES. (From Girard.) a, b, magnified larvae; c, the same, natural size; d, e, magnified nymph; f, natural size; <7, eggs, natural size; h, magnified; i, egg, showing micro- pyle, magnified; j, micropyle, magnified. "The mixture of honey and pollen given at the end of the nursing, is easily detected by its color, which is yellower, on ac- count of the pollen, and can be seen through the skin of the larva." — (Du- bini.) 167. "The larva, or grub, grows apace, but not without experiencing a difficulty to which the human family is, in some Flg - 2ti - sort, subject in the period C0ILED m THE CELT " Of youth. Its coat is in- (Magnified. From Sartori and Eanschenfels.) elastic and does not grow with the wearer, so that it soon, fitting badly, has to be thrown off; but, happily in the case of the larva, a new and larger one has already been formed THE WORKER-BEE. 71 beneath it, and the discarded garment, more delicate than gossamer, is pushed to the bottom of the cell." — (Cheshire.) 168. "The nursing- bees now seal over the cell with a light brown cover, externally more or less convex (the cap of a drone-cell being more convex than that of a worker), and thus differing from that of a honey-cell, which is Fig. 27. STRETCHED IN THE CELL. (Magnified.) paler and somewhat concave." — (" Bevan on the Honey-Bee.") The cap of the brood-cell is made not of pure wax, but of a mixture of bee-bread and wax ; and appears under the microscope to be full of fine holes, to give air to the in- closed insect. From its texture and shape it is easily thrust off by the bee when mature, whereas if it consisted wholly of wax, the insect would either perish for lack of air, or be unable to force its way into the world. Both the material and shape of the lids which close the honey-cells are differ- ent: they are of pure wax, and are slightly concave, the better to resist the pres- sure of their contents. The bees sometimes neglect to cap the cells of some of the brood, and some persons have thought that this brood was diseased, but it hatches all the same. The larva is no sooner perfectly inclosed, than it begins to spin a cocoon after the manner of the silk-worm, and Cheshire teaches us that it does not encase the insect, but is only at the mouth of the cell, " and in no case extends far down the sides." Fig. 28. THE TRANSFORMATION IN THE SEALED CELL. (Magnified.) 72 PHYSIOLOGY OF THE HONEY-BEE. To return to Bevan : 169. " When it has undergone this change, it has usually borne the name of nymph, or pupa. It has now attained its full growth, and the large amount of nutriment which it has taken serves as a store for developing the perfect insect. " The working-bee nymph spins its cocoon in thirty-six hours. After passing about three days in this state of preparation for a new existence, it gradually undergoes so great a change as not to wear a vestige of its previous form." Fig, 29. SPINNING OF THE COCOON AND TRANSFORMATION INTO NYMPH. (Magnified. From Sartori and Rauschenfels.) 170. The last cast-off skin of the larva, " which, by the creature's movements within the cell, becomes plastered to the walls and joins the cocoon near the mouth end " (Chesh- ire), is left behind, and forms a closely-attached and exact lining to the cell ; by this means the breeding-cells become smaller, and their partitions stronger, the oftener they change their tenants. So thin is this lining, that brood combs more than twenty years old have been found to raise bees as large apparently as any other in the Apiary. 171. About twenty-one days are usually required for the transformations from the worker-egg to the perfect insect. But the time may be shortened or lengthened by the tem- perature, or the conditions of the colony. Dzierzon and others wrote that a worker-bee can hatch in nineteen to twenty- one days. Collin says nineteen to twenty- three. That the brood can remain even longer before hatching, is THE WORKER-BEE. 73 confirmed by the report of A. Saunier, in the South of France. Having deprived a hive of all its inhabitants, he found bees, hatching twenty- three days afterwards, that had not even been sealed in their cells, since there had been no nurses there to do this work. (" L'Apiculteur." Paris, 1870.) As these were already full-grown larvae, when the hive was deprived of its bees, they must have been twenty- seven days old when hatching. In this experiment, the heat produced by the larva?, coupled with that of the atmos- phere, had been sufficient to keep them alive and help their slow development. We have often noticed the brood of swarms, that had de- serted their hives, still alive after a cold night, but in each case its development was delayed. 172. A newly hatched worker, like a newly hatched queen, is easily recognized by her small size, her pale gray color, and her weak appearance. After a few days, she has grown considerably larger. She is then in the bloom of health ; her color is bright, she has not yet lost a single hair of the down which covers her body. These hairs fall grad- ually from age and work, and sometimes disappear almost entirely. 173. The first excursion of the young bee out of the hive takes place when she is about eight days old. (See Don- hoff's experiment 160.) The disturbing of the colony, or the lack of old bees may cause them to go out earlier. The first flight of young worker-bees is easily remembered when once seen. It usually takes place in the afternoon of a sunny day. Ihey first walk about on the platform in a hesitating manner and then take flight. Their humming, and joyous and peaceable circles to reconnoitre the location of their home, recalls to memoTy the gay playing of children in front of the school-house door. Their second trip is made about a week after the first ; it is then that they bring in their first load. A young bee coming home is readily 74 PHYSIOLOGY OF THE HONEY-BEE. recognized by the small size of the pellets of pollen she carries, when compared with those of older bees, and by the turns she makes before alighting, 174. The Apiarist should become acquainted with the behavior of young bees, so as not to mistake their pleasant flight for the disorderly and restless motions of robber-bees. (664.) 175. Although the workers are of the same sex as the queens (4), their sexual organs are undeveloped, owing to the coarser food which they receive during the latter part of their growth in the cell (108). Yet they have rudimental ovaries, containing a few undeveloped eggs (fig. 30). They are incapable of fecundation. 176. Occasionally, some of them appear to be sufficient- ly developed to be capable of laying eggs ; but these eggs, like those of queens whose impregnation has been retarded, always produce drones. Drone-laying, by worker-bees, only takes place when a colony which has lost its queen despairs of obtaining another, and seems to be caused by their eagerness to raise brood. Huber thought that fertile workers were reared in the neighborhood of the young queens, and that they received some particles of the pecu- liar food or jelly on which these queens are fed.* But microscopic examinations seem to prove that a large num- ber of the workers, raised during a good honey harvest, are capable of laying eggs. The number of drone-laying *Au extraot from Huber's preface will be interesting in this connection. After speaking of bis blindness, and praising the extraordinary taste for Natural His- tory, of his assistant, Burnens, "who was born with the talents of an obser- ver, "he says: " Every one of the facts.I now publish, we have seen, over and over again, during the period of eight years, which we have employed in making our observations on bees. It is impossible to form a just idea of the patience and skill with which Burnens has carried out the experiments which I am about to describe; he has often watched some of the working-bees of our hives, which we had reason to think fertile, for the space of twenty-four hours, without distraction * * * * and he counted fatigue and pain as nothing, com- pared with the great desire he felt to know the results. ' ' THE WORKER-BEE. 75 workers is sometimes very large in a hopelessly queenless hive ; we have seen at least a dozen laying on the same comb. Mr. Viallon, a noted bee-keeper of Louisiana, once had so many in one queenless colony, that he was able to send several dozen for dissection to bee-keepers in this country and Europe. (Fig COMPARATIVE SIZES OP THE OVARIES OF QUEEN AND WORKER. (All magnified. From Girard.) A, queen ovaries; B, laying-worker ovaries; C, sterile-worker ovaries. 177. Some persons may question the wisdom of Nature in endowing the workers with the means of laying drone- eggs, when there is no queen in the colony to be fecundated by them. But Nature does nothing without purpose. The main cause of the loss of the queen, when there is no brood fit to raise others (107), and therefore, no hopes of sur- vival for the colony, is usually the death of the young queen in her bridal flight (122). At some seasons, the drones are scarce, and a young queen may be compelled to make several trips before she finds one. If she gets lost, the hive 76 PHYSIOLOGY OP THE HO]STEY-BEE. having remained queenless for at least eight or ten days (109), the brood is too old to be used to raise another, and the colony is doomed. That other colonies may not be victims of similar accidents, owing to the scarcity of drones, Nature endows this worthless colony with the fac- ulty of drone-raising. It is by the same provision of Nature that unhealthy trees, on the eve of death, are seen covered with blossoms and fruits. They make the strongest efforts to save their race from extinction, and perish afterwards. 178. The drone-laying of worker-bees is easily discov- ered by the Apiarist. Their eggs are laid without order, some cells containing grown larvae, or sealed pupee, by the side of cells containing eggs ; while the eggs of a queen are very regularly laid. Huber states that the fertile workers prefer large cells in which to deposit their drone eggs, re- sorting to small ones, only when unable to find those of greater diameter. A hive in our Apiary having much worker-comb, but only a small piece of drone size, a fertile worker filled the latter so entirely with eggs that some of the cells contained three or four each. 179. Sometimes the bees do not seem to know that these eggs are drone-eggs, and in their eagerness to raise a queen, they treat some of them as such, by enlarging their cells and feeding them on special food (109). The poor over- fed drones, thus raised, usually perish in the cell (136). The workers soon dwindle awa}^, and the colony perishes. 180. They often even fail to raise any queen from brood, which may be given them by the Apiarist, unless some hatching bees are given at the same time. The latter, when informed of the needs of the colony, usually succeed in raising a queen. The introduction of a laying-queen in a laying-worker colony, is the best remedy. (533.) 181. The bees of the same colonjr understand each other very well for all their necessities, and they work with an THE WORKER-BEE. 77 entrain which is truly admirable. They know each other, probably by smell, for it is very rare to see a bee of the hive treated as a robber (664). They never use their sting except to defend themselves, when hurt, or their home, when they think it is threatened. 182. Their life is short, but their age depends very much upon their greater or less exposure to injurious influences, and severe labors. Those reared in the Spring and early part of Summer, upon whom the heaviest labors of the hive devolve, appear to live not more than thirty-five days, on an average ; while those bred at the close of Summer, and early in Autumn, being able to spend a large part of their time in repose, attain a much greater age. It is very evident that " the bee " (to use the words of a quaint old writer) "is a Summer bird;" and that, with the exception of the queen, none live to be a year old. If an Italian queen be given, in the working season, to a swarm of common bees, in about three months none of the latter will be found in the colony, and as the black queen removed has left eggs in the cells, which take twenty-one days to hatch, it is evident that the bees all die from fatigue or accident in the remaining seventy days, making their average life thirty-five days in the working season. The age which individual members of the community may attain, must not be confounded with that of the colony. Bees have been known to occupy the same domicile for a great number of years. We have seen flourishing colonies more than twenty years old ; the Abbe Delia Rocca speaks of some over forty years old ; and Stoche says, that he saw a colony, which he was assured had swarmed annually for forty-six years! "Such cases have led to the erroneous opinion, that bees are a long-lived race. But this, as Dr. Evans* has observed, is just as wise as if a stranger, con- * Dr. Evans was an English physician, and the author of a beautiful poem on bees. 78 PHYSIOLOGY OF THE HONEY-BEE. templating a populous city, and personally unacquainted with its inhabitants, should, on paying it a second visit, many years after, and finding it equally populous, imagine that it was peopled by the same individuals, not one of whom might then be living. 'Like leaves on trees, the race of bees is found, Now green in youth, now withering on the ground, Another race the Spring or Fall supplies, They droop successive, and successive rise.' " Evans. Apiarists, unaware of the brevity of the bee's life, have often constructed huge "bee-palaces" and large closets, vain- ly imagining that the bees would fill them, being unable to see any reason why a colony should not increase until it numbers its inhabitants by millions or billions. But as the bees can never at one time equal, still less exceed, the num- ber which the queen is capable of producing in a season, these spacious dwellings have always an abundance of spare room. It seems strange that men can be thus deceived, when often in their own Apiary they have healthy stocks, which, though they have not swarmed for a year or more, are no more populous in the Spring, than those which have regularly parted with vigorous colonies. It is certain that the Creator has wisely set a limit to the increase of numbers in a single colony ; and we shall venture to assign a reason for this. Suppose he had given to the bee a length of life as great as the horse or the cow, and had made each queen capable of laying daily some hundreds of thousands of eggs ; or had given several hundred queens to each hive ; then a colony must have gone on increasing, un- til it became a scourge rather than a benefit to man. In the warm climates of which the bee is a native, it would have established itself in some cavern or capacious cleft in the rocks, and would soon have become so powerful as to bid de- fiance to all attempts to appropriate the avails of its labors. THE DRONE. 79 183. There is something cruel in the habits of the bee. Whenever one of them becomes unable to work from some cause or other, if she does not perish in her efforts to go to the fields, the other bees drag her out pitilessly ; their love being concentrated on the whole family, not on a single individual. Yet, when one is hurt, and complains, hundreds of others resent the injury and are ready to avenge her. 184. Notched and ragged wings and shiny bodies, in- stead of gray hairs and wrinkled faces, are the signs of old age in the bee, indicating that its season of toil will soon be over. They appear to die rather suddenly ; and often spend their last days, and even their last hours, in useful labors. Place yourself before a hive, and see the indefatigable energy of these industrious veterans, toiling along with their heavy burdens, side by side with their more youthful com- peers, and then judge if, while qualified for useful labor, you ought ever to surrender yourself to slothful indulgence. Let the cheerful hum of their busy old age inspire you with better resolutions, and teach you how much nobler it is to die with harness on, in the active discharge of the du- ties of life. The Drones. 185. The drones are the male bees. They are much larger and stouter than either the queen or workers ; although their bodies are not quite so long as that of the queen. They have no sting (78) with which to de- fend themselves ; and no suitable proboscis (48) for gathering honey from the flowers ; no baskets on their thighs (59) for holding Fig - 31, bee-bread, and no pouches (201) on their abdomens for secreting wax. They are, therefore, physically disqualified for the ordinary work of the hive. 80 PHYSIOLOGY OF THE HONEY-BEE. Their proper office is to impregnate the young queens. " Their short proboscis sips No luscious nectar from the wild thyme's lips, From the lime's leaf no amber drops they steal, Nor bear their grooveloss thighs the foodful meal : On other's toils in pamper'd leisure thrive The lazy fathers of the industrious hive." Evans. 186. The drones begin to make their appearance in April or May ; earlier or later, according to the forwardness of the season, and the strength of the colony. Like the other inhabitants of the hive they cannot perform the work for which they are intended, till at least one week old. They go out of the hives only when the weather is warm, and at mid- day. 187. As we have seen (122), the mating of the queen with a drone always takes place in the air. Physiologists say that it cannot be otherwise, because the sexual organs of the drone cannot be extruded unless his abdomen is swelled by the filling of all the tracheae with air. This hap- pens only in swift flight (74). Dzierzon supposes that the sound of the queen's wings, when she is in the air, excites the drones. Evidently their eyes (11) and ears (25) which are highly developed, as proven by Cheshire, help them also in the search of the queen, which is their sole occupation, when in the field. In the interior of the hive, they are never seen to notice her ; so that she is not molested, even if thousands are members of the same colony with herself. But outside of the hive, they readily follow her, led, according to Dzierzon, by the peculiar hum of her flight, and certainly also, by the senses of smell and of sight, which are more perfect than those of the worker, most likely for this single purpose. " When the queen flies abroad, the fleetest drone is more likely to succeed in his addresses than another, and thus he impresses upon posterity some part of his own superior activity and en- Plate 7. F. R. CHESHIRE, F. L. S., F. R. M. S. Author of " Bees and Bee- This writer is mentioned pages 2, 3, 4, 5, 7, 9, 10, 11, 12, 15, 16, 17, 20, 22, 23, 24, 27, 30, 37, 59, 71, 72, 80, 81, 89, 99, US, 119, 124, 142, 186, 338, 341, 376, 415, 445, 446, 447, 450, 453, 454. THE DRONE. 81 ergy. The slow and weak in the race die without heirs, so that the survival of the fittest is not an accident, but a predetermina- tion. In previous chapters we have considered his highly-devel- oped eyes, meeting at the vertex of his head, his multitudinous smell-hollows, and his strong large wings, the advantage of which now appears in a clearer light; his quickness in discover- ing a mate, whose neighborhood is to him filled with irresistible odours, and his ability in keeping her in view during pursuit, are no less helpful to his purpose than fleetness on the wing " — (Cheshire.) 188. The drone perishes in the act of impregnating the queen. Although, when cut into two pieces, each piece will retain its vitality for a long time, we accidentally ascer- tained, in the Summer of 1852, that if his abdomen is gently pressed, and sometimes if several are closely held in the warm hand, the male organ will often be permanently ex- truded, with a motion very like the popping of roasted pop- corn ; and the insect, with a shiver, will curl up and die, as quickly as if blasted with the lightning's stroke. This singu- lar provision is unquestionably intended to give additional security to the queen when she leaves her hive to have inter- course with the drone. Huber first discovered that she returned with the male organ torn from the drone, and still adhering to her body. If it were not for this arrangement, her spermatheca could not be filled, unless she remained so long in the air with the drone, as to incur a very great risk of being • devoured by birds. In one instance, some days after the impregnation of a queen, we found the male organ,* * We give, as interesting in this connection , the following extract from Mr. Langstroth's journal: "August 25th, 1852.— Found the male organ protruding from a young queen; could not remove it without exerting so much force that I feared it would kill her. Dr. Joseph Leidy examined this queea-bee with the microscope, so as to demonstrate that— to use his words — 'it was the penis audits appendages of a male, corresponding in all its anatomical peculiarities, with the same organs examined, at the same time, in other drones. The tes- ticles and vana defereutia of these drones were found to be full of the spermatic fluid. The *pt>rin ath em of the queen was distended with the same semi-fluid, spermatic matter.' This one examination demonstrate that the drones are males, and that they impregnate the queen by actual coition. " 6 82 PHYSIOLOGY OF THE HONEY-BEE. in a dried state, adhering so firmly to her body, that it could not be removed without tearing her to pieces. Fig. 32. THE ORGANS OF THE DRONE. (Magnified. FromGirard.) a, a, testicles; b,b, mucous glands ; r, seminal duct; d, part in which the spermatophore is formed; e, hollow horns and penis; f, spermatozoids, much magnified. 189. The number of drones in a hive is often very great, amounting not merely to hundreds, but sometimes to thous- ands. As a single one will impregnate a queen for life, it would seem that only a few should be reared. But as sex- ual intercourse always takes place high up in the air, the 3^oung queens must necessarily leave the hive ; and it is very important to their safety that they should be sure to find a drone without being compelled to make frequent ex- cursions ; for being larger than workers, and less active on the wing, queens are more exposed to be caught by birds, or destroyed by sudden gusts of wind. In a large Apiary, a few drones in each hive, or the num- THE DRONE. 83 ber usually found in one, would suffice. Under such cir- cumstances bees are not in a state of nature, like a colony living in a forest, which often has no neighbors for miles. A good stock, even in our climate, sometimes sends out three or more swarms, and in the tropical climates, of which the bee is probably a native, they increase with aston- ishing rapidity.* Every new swarm, except the first, is led off by a young queen; and as she is never impregnated until she has been established as the head of a separate fam- ily, it is important that each should be accompanied by a goodly number of drones : this requires the production of a large number in the parent-hive. 190. This necessity no longer exists when the bee is do- mesticated, since several colonies are kept in the same place, and the breeding of so many drones should be dis- couraged. Their brood takes useful space that might as well be occupied with worker-brood. One thousand good- for-nothing drones take up as much breeding-space as fif- teen hundred workers (224), and require as much food, with negative results. Some hives, in a state of nature, produce so many drones that a great part of the surplus crop is disposed of by these voracious loafers. Besides, the comparatively large volume of the male organs, in connec- tion with the gluttony of the drones, explains why they void their dejections in the hive, while workers retain them till they are on the wing (73), and why the cells of the combs of hives which have a large quantity of these gormands, become dark and thick sooner. The importance of preventing the over-production of drones has been corroborated by the discovery of Mr. P. J. Mahan, that those leaving the hive have quite a large drop of honey in their stomachs — while those returning from * At Sydney, in Australia, a single colony is stated to have multiplied to 300, in three years. 84 PHYSIOLOGY OF THE HONEY-BEE. their pleasure excursions, having digested their dinners, are prepared for a new supply. Aristotle (" History of Animals," Book IX, Chap. XI) speaks of the irregular and thick combs built by some colo- nies, and the superabundance of drones issuing from them. He describes their excursions as follows : " The drones, when they go abroad, nse into the air with a circular flight, as though to take violent exercise, and when they have taken enough, return home, and gorge themselves with honey." " The drone," says quaint old Butler (1609) " is a gross, sting- less bee, that spendeth his time in gluttony and idleness. For howsoever he brave it with his round velvet cap, his side gown, his full paunch, and his loud voice, yet is he but an idle compan- ion, living by the sweat of others' brows. He worketh not at all, either at home or abroad, and yet spendeth as much as two laborers : you shall never find his maw without a drop of the purest nectar. In the heat of the day he flieth abroad, aloft and about, and that with no small noise, as though he would do some great act ; but it is only for his pleasure, and to get him a stom- ach, and then returns he presently to his cheer." 191. The bee-keepers in Aristotle's time were in the habit of destroying the excess of drones. They excluded them from the hive — when taking their accustomed airing — by contracting the entrances with a kind of basket work. Butler recommends a similar trap, which he calls a '''■drone-pot." One of the modern inventions to destroy them is Alley's drone-trap* improved by J. A. Batchelder ; but it is much * The perforated zinc, used in drone-traps, which we think was invented by Coilin, (" Guide, " p. 3. Paris, 18Go), is so cat, that a worker-bee can pass through its openings, but neither queen nor drone can pass through them. Fig. 33. alley's drone-trap THE DRONE. 85 better to save the bees the labor and expense of rear- ing such a host of useless consumers. This can readily be done, when we have the control of the combs ; for, by removing the drone-comb, and supplying its place with worker-cells, the over-production of drones may be easily prevented. Those who object to this, as interfering with nature, should remember that the bee is not in a state of nature ; and that the same objection might, with equal force, be urged against killing off the supernumerary males of our domestic animals. 192. Soon after the harvest is over, or if there is a lull in the yield of honey, the drones are expelled from the hive. The worker-bees sting them, or gnaw the roots of their wings, so that when driven from the hive, they cannot re- turn. If not ejected in either of these summary ways, they are so persecuted and starved, that they soon perish. At such times they often retreat from the comb, and keep by themselves upon the sides or bottom-board of the hive. The hatred of the bees extends even to the unhatched young, which are mercilessly pulled from the cells and de- stroyed with the rest. Healthy colonies almost always destroy the drones, as soon as forage becomes scarce. In the vicinity of Philadelphia, there were only a few days in June, 1858, when it did not rain, and in that month the drones were destroyed in most of the hives. When the weather became more propitious, others were bred to take their place. In seasons when the honey-harvest has been abundant and long protracted, we have known the drones to be retained, in Northern Massa- chusetts, until the 1st of November. If bees could gather honey and could swarm the whole year, the drones would probably die a natural death. How wonderful that instinct which, when there is no longer any occasion for their services, impels the bees to destroy those members of the colony reared with such devoted attention ! 86 PHYSIOLOGY OF THE HONEY-BEE. 193. It is interesting to notice the actions of the drones when they are excluded from the hive. For a while they eagerly search for a wider entrance, or strive to force their bulky bodies through the narrow gateway. Finding this to be in vain, they solicit honey from the workers, and when refreshed, renew their efforts for admission, expressing, all the while, with plaintive notes, their deep sense of such a cruel exclusion. The bee-keeper, however, is deaf to their entreaties ; it is better for him that they should stay with- out, and better for them — if they only knew it — to perish by his hands, than to be starved or butchered by the unfeel- ing workers. Towards dark, or early in the morning — when clustered, for warmth, in the portico — they may be brushed into a vessel of water, and given to chickens, which will soon learn to devour them. 194. Drones are sometimes raised in worker-cells (150). They are smaller in size, but apparently as perfect as the full-size drones, all their organs being well developed. For the stages of development of drones, see the com- parative table at the end of this chapter (197). 195. We have repeatedly queried, why impregnation might not have taken place in the hive, instead of in the open air. A few dozen drones would then have sufficed for the wants of any colony, even if it swarmed, as in warm climates, half a dozen times, or oftener, in the same season ; and the young queens would have incurred no risks by leaving the hive for fecundation. For a long time we could not perceive the wisdom of the existing arrangement ; although we never doubted that there was a satisfactory reason for this seeming imperfec- tion. To have supposed otherwise, would have been en- tirely unphilosophical, when we know that with the increase of knowledge many mysteries in nature, once inexplicable, have been fully cleared up. The disposition cherished by many students of nature, to THE DRONE. 87 reject some of the doctrines of revealed religion, is not prompted by a true philosophy. Neither our ignorance of all the facts necessary to their fall elucidation, nor our ina- bility to harmonize these facts in their mutual relations and dependencies, will justify ns in rejecting any truth which God hath seen fit to reveal, either in the book of Nature, or in His holy Word. The man who would substitute his own speculations for the divine teachings, has embarked without rudder or chart, pilot or compass, on an uncertain ocean of theory and conjecture ; unless he turns his prow from its fatal course, storms and whirlwinds will thicken in gloom on his " voyage of life ; " no "Sun of Righteousness" will ever brighten for him the expanse of dreary waters ; no favoring gales will waft his shattered bark to a peaceful haven. The thoughtful reader will require no apology for this moralizing strain, nor blame a clergyman, if sometimes for- getting to speak as the mere naturalist, he endeavors to find " Tongues in trees, books in running brooks, " Sermons in ' bees,' and ' God ' in every thing." (102.) 196. To return to the attempt to account for the exist- ence of so many drones. If a farmer persists in what is called " breeding in and in," that is, without changing the blood, the ultimate degeneracy of his stock is the conse- quence.* This law extends, as far as we know, to all ani- mal life, man himself not being exempt from its influence. Have we any reason to suppose that the bee is an exception? or that degeneracy would not ensue, unless some provision were made to counteract the tendency to " in-and-in breed- ing?" If fecundation had taken place in the hive, the queen would have been impregnated by drones from a com- * In the above, Mr. Langstroth refers to indiscriminate breeding. In-and-in breeding, by selection, intensifies certain qualities, such as the development of fat, or of muscle, but it also intensifies the defects, generally causing a de- crease of vitality or of health in the race. 88 PHYSIOLOGY OF THE HONEY-BEE. mon parent ; and the same result must have taken place in each successive generation, until the whole species would eventually have "runout." By the present arrangement, the young queens, when they leave the hive, often find the air swarming with drones, many of which belong to other colonies, and thus, by crossing the breed, provision is con- stantly made to prevent deterioration. Experience has proved that impregnation may be effected not only when there are no drones in the colony of the young queen, but even when there are none in her immedi- ate neighborhood. Intercourse takes place very high in the air (perhaps that less risk may be incurred from birds), and this favors the crossing of stocks. 197. " Comparative Table of the Normal Duration of the Bee's Transformations from Eggs to Winged Insects. Rggs Growth of larva . Spinning of cocoon . Period of rest Metamorphosis into pupa Duration of this stage . Queen. Worker. Drone. . . days . 3 3 3 . 5J 6 6£ . 1 2 n . 2 2 3 . 1 1 1 . 3£ 7 9 Average time from egg to winged insect 16 21 24 HONEY-COMB and HOOD. A little under natural size. c, queen-cell with lid, as it often app< ars after the queen has hatched out of it; b, uuhatched queen-cell; c, remains of a queen-cell; d. queen-cell whose inmate has been destroyed; n, queen-cell in the midst of a comb; c, cells containing honey; /, cells with worker brood; g, cells with drone brood. COMB. 89 CHAPTER H. THE BUILDING OF BEES. COMB. 198. When a swarm (406) has found a suitable habi- tation, some of the bees clean it of its rubbish, if neces- sary, while others, at once, prepare to build the furniture, which is intended as cradles for the young bees, and as a store-room for the provisions, and is called comb. According to Webster, this word is probably taken from £he Anglo-Saxon "comb," which means a hollow; the combs being hollow structures, with exceedingly light walls. 199. The combs are usually begun at the highest point of the hive and built downwards, yet, when some breaking happens, the bees sometimes build them upwards; but they are far from having the usual regularity. Combs are made of wax, a natural secretion which is produced by bees as cattle produce fat, by eating. 200. " Wax is not chemically a fat or glyceride,yet it is nearly allied to the fats in atomic constitution, and the physi- ological conditions favouring the formation of one are cu- riously similar to those aiding in the production of the other. We put our poultry up to fat in confinement, with partial light, to secure bodily inac- tivity, we keep warm and feed highly. Our bees, under Nature's teaching, put themselves up to yield wax under conditions so parallel, that the suitability of the fatting coops is vindicated."— (Cheshire.) Fig. 34. WAX SCALES, (Magnified.) 90 THE BUILDING OF BEES. 201. If they remain quietly clustered together, when gorged with honey, or any liquid sweet, the wax is se- creted in the shape of deli- cate scales in four small pouches, on each side of the abdomen of worker-bees. Fig. 35. SECRETION OF WAX SCALES. (Magnified.) "These scales, of an irreg- ular pentagonal shape, are so (From the "inu s triertemenenzeitu W .») tMn and ligM? that Qne hun _ drerl of them hardly weigh as much as a kernel of wheat." — (Du- bini, "L'Ape.") 202. In the young bees, which are endowed with a great appetite, they form, probably, without their knowledge, dur- ing the honey season ; and if there is no place to use them, they are gathered in small knots here and there. This Fig. 36. THE WAX-PRODUCING ORGAN OF THE WORKER-BEE. (Magnified. From Girard.) only happens when the combs are entirely filled and sealed. It has been noticed, most especially, in hives in which a comb had been broken down by heat. (333.) In such cases, many of the bees gorge themselves with the wasting honey, and cluster on the outside, until the heat has sub- sided, and the running honey has been gathered up. COMB. 91 Scales of wax, in lumps, can then be found where they have clustered. 203. Although the faculty of producing wax is dimin- ished in old bees, who are subject to the natural law which makes it more difficult to fatten an old animal, it is proved that they also produce small scales of wax. "During the active storing of the past season, especially when comb building was in rapid progress, 1 found that nearly every bee taken from the liowers contained wax scales of varying sizes in the wax-pockets." — (A. J. Cook.) 204. The first condition indispensable for bees to pro- duce wax, is to have the stomach well filled. It is an interesting fact that honey-gathering and comb- building go on simultaneously ; so that when one stops, the other ceases also. As soon as the honey harvest begins to fail, so that consumption is in advance of production, the bees cease to build new comb, even though large portions of' their hive are unfilled. When honey no longer abounds in the fields, it is wisely ordered that they should not con- sume, in comb-building, the treasures which may be needed for Winter use. What safer rule could have been given them? It takes about twenty-four hours, for a bee's food to be- come transformed into wax. SO 5. " Having filled themselves with honey, they gather in chains ; not in a single group, but in a number of groups, hang- ing in a parallel curtain, in the direction of the comb to be con- structed. Thus a bee clings to the ceiling with her claws, or the sticky rubber of her feet, her posterior limbs hanging down ; another bee grapples the claws of these posterior feet, with the claws of her anterior limbs, letting her hind limbs hang also, to be grappled by a third, and so on, till the first chain meets an- other, and both united form an arch, top downward, (fig. 37.) This single chain becomes compound when several are in the same line (fig. 3S), and grouped near one another." — (Sartori and Rauschenfels, " L' Apicoltura in Italia," Milan, 1878.) 92 THE BUILDING OF BEES. 206. " If we examine the bees closely during the season of comb-building and honey-gathering, we shall find many of them with the wax scales protruding between the rings that form the body, and these scales are either picked from their bodies, or from the bottom of the hive or honey boxes in which they are building. If a bee is obliged to carry one of these wax scales but a short distance, he takes it in his mandibles, and looks as business-like with it thus, as a carpenter with a board on his shoulder. If he has to carry it from the bottom of the honey box, he takes it in a way that I cannot explain any better than to say he slips it under his chin, in the mandibles or jaws. When thus equipped, you would never know he was encumbered with any- thing, unless it chanced to slip out, when he will very dextrously tuck it back with one of his forefeet. The little plate of wax Fig. 37. Fig. 38. is so warm, from being kept under his chin, as to be quite soft when it gets back ; and as he takes it out, and gives it a pinch against the comb where the building is going on, one would think he might stop a while and put it into place ; but not he ; for off he scampers and twists around so many different ways, you might think he was not one of the working kind at all. An- other follows after him sooner or later, and gives the wax a pinch, or a little scraping or burnishing with his polished mandibles, then another, and so on, and the sum total of all these manoeu- vres is that the comb seems almost to grow out of nothing ; yet no bee ever makes a cell himself, and no comb building is ever done by any bee while standing in a cell ; neither do the bees ever stand in rows and ' excavate,' or any thing of the kind." COMB. 93 " The finished comb is the result of the united efforts of the moving, restless mass, and the great mystery is, that anything so wonderful can ever result at all, from such a mixed-up, skip- ping about way of working, as they seem to have." " When the cells are built out only part way, they are filled with honey or eggs, and the length is increased when they feel disposed, or 'get around to it, perhaps; as a thick rim is left around the upper edge of the cell, they have the material at hand, to lengthen it at any time. This thick rim is also very necessary to give the bees a secure foothold, for the sides of the cells are so thin, they would be very apt to break down with even the light weight of a bee. When honey is coming in rapidly, and the bees are crowded for room to store it, their eagerness is so plainly apparent, as they push the work along, that they fairly seem to quiver with excitement; but, for all that, they skip about from one cell to another in the same way, no one bee working in the same spot to exceed a minute or two, at the very outside. Very frequently, after one has bent a piece of wax a certain way, the next tips it in the opposite direction, and so on until completion ; but after all have given it a twist or a pull, it is found in pretty nearly the right spot. As near as I can dis- cover, they moisten the thin ribbons of wax, with some sort of fluid or saliva (41). As the bee always preserves the thick rib* or rim of the comb he is working, the looker-on would suppose he was making the walls of a considerable thickness, but if we drive him away, and break this rim, we will find that his mandibles have come so nearly together, that the wax between them, be- yond the rim, is almost as thin as a tissue paper." — (A. I. Root, "A. B. C. of Bee Culture.") 207. It is very difficult to ascertain who first discovered these scales of wax. According to Mr. S. Wagner, J. A. Overbeck, in his " Glossarium Melliturgium," p. 89, Bremen, 1765, claims that a Hanoverian pastor, named Herman C. Hornbostel, described them in the Hamburg Library, about the year 1745. * The constant preserving of this rih or heavy edge of the comh while the work progresses, explains why old comb lengthened and sealed with new wax, sometimes retains a part of its dark color throughout. Some of the old wax is undoubtedly mixed with the new, in the constant remodeling of this heavier edge, till the comb is sealed. 94 THE BUILDING OF BEES. They were also discovered, in Germany, by a farmer. This discovery was communicated to the naturalist Bonnet by Willelmi, under the date of August 22, 1765. (Huber.) In 1779, Thos. Wildman had noticed the scales of wax on the abdomen of the workers ; and he was so thoroughly convinced that wax was secreted from honey, that he rec- ommended feeding new swarms, when the weather is stormy, that they may sooner build comb for the eggs of the queen. From the books written in the French language, it seems that it was Duchet, who, in his "Culture des Abeilles, ,, printed inFriburg in 1771, wrote first that beeswax is pro- duced from honey, of which they eat a large quantity, " which is cooked in their bodies, as in a stove," increasing thereby the warmth of the hive, and that beeswax " exudes out of this stove" through the rings of their bod}^ which are near the corselet. This idea of Duchet led Beaunier to ex- amine bees, and he discovered that they produce, at one time, not two scales of wax only, but nine, the last ring having seemed to produce one. He adds : 20 S. " To employ this material, bees use their jaws, their tongues, and their antennae. In favorable years you can see a great quantity of these pieces of wax which have fallen on the bottom of the hives." — (" Traite sur l'Education des Abeilles," Vendome, 1808.) 209. When bees are building combs, some scales of wax are often found on the bottom board, the bees having been unable to use them before they became too tough. Some- times thejr pick them up afterwards and use them ; some races of bees, the Italian (551), for instance, often use also pieces of old combs, which may be within their reach. The comb, thus built, is easily detected on account of its darker color. Queen-cells seem to be always built of par- ticles, taken from the comb on which they hang, and are never of pure wax (104). COMB. 95 " Thus, filtered through yon flatterer's folded mail, Clings the cooled wax, and hardens to a scale. Swift, at the well-known call, the ready train (For not a buz boon Nature breathes in vain) Spring to each falling flake, and bear along Their glossy burdens to the builder throng. These with sharp sickle, or with sharper tooth. Pare each excrescence, and each angle smoothe, Till now, in finish'd pride, two radiant rows Of snow white cells one mutual base disclose. Six shining panels gird each polish'd round; The door's fine rim, with waxen fillet bound; While walls so thin, with sister walls combined, Weak in themselves, a sure dependence And." Evans. 210. The cells of bees are found to fulfill perfectly the most subtle conditions of an intricate mathematical problem. Let it be required to find what shape a given quantity of matter must take, in order to have the greatest capacity and strength, occupying, at the same time, the least space, and consuming the least labor in its construction. When this problem is solved by the most refined mathematical processes, the answer is the hexagonal or six-sided cell of the honey-bee, with its three four-sided figures at the base! The shape of these figures cannot be altered ever so lit- tle, except for the worse. 211. The bottom of each cell is formed of three lozenges, the latter forming one third of the base of three opposite cells. " If the little lozenge plates were square, we should have the same arrangement, but the bottom would be too sharp pointed as it were, to use wax with the best economy, or to best accommodate the body of the infantile bee. Should we, on the contrary, make the lozenge a little longer, w r e should have the bottom of the cell too nearly flat to use wax with most economy, or for the comfort of the young bee." (A. I. Root, "A. B. C. of Bee Culture.") 212. "There are only three possible figures of the cells," says Dr. Reid, " which can make them all equal and similar, 96 THE BUILDING OF BEES. without any useless spaces between them. These are the equi- lateral triangle, the square, and the regular hexagon. It is well known to mathematicians, that there is not a fourth way possible in which a plane may be cut into little spaces that shall be equal, similar, and regular, without leaving any interstices." An equilateral triangle would have been impossible for an insect with a round body to build. A circle seems to be the best shape for the development of the larvae ; but such a figure would have caused a needless sacrifice of space, materials, and strength. The body of the immature insect, as it undergoes its changes, is charged with a superabun- dance of moisture, which passes off through the reticulated cover of its cell ; may not a hexagon, therefore, while ap- proaching so nearly to the shape of a circle, as not to incommode the young bee, furnish, in its six corners, the necessary vacancies for a more thorough ventilation? Is it credible that these little insects can unite so many requisites in the construction of their cells? 213. The fact is that the hexagonal shape of the cells is naturally produced, and wihout any calculation, by the bee. She wants to build each cell round ; but as every cell touches the next ones, and as she does not wish to leave any space between, each one of the cells flattens at the contact, as would soap bubbles if all of the same diameter. It is the same for the lozenges of the bottom. The bee, wanting the bottom of the cell concave inside, makes it, naturally, con- vex outside. As this convexity projects on the opposite side of the median line, the bee who builds the opposite cells begins, naturally, on the tip of the convexity, the walls of cells just begun, since she wants also to make their bottom concave. The final result is that one-third of the bottom of each of three cells makes the bottom of the one cell opposite, and each one of the lozenges is flattened, so as not to encroach on the opposite cells. 214. The cells are not horizontal, but inclined from the AND SHAPE OF THE BASE. (From Sartori and Rauschenfels.) COMB. 97 orifice to the bottom (fig. 39), so as to be filled with honey more easily. The thickness of worker-brood comb is about one inch, with cells opening on each side. The distance between combs is about T 7 g- of an inch. This space is not always exact, but is never under T 5 g-, that be- Fig 3 9 ing necessary for the bees to showing the slope of the cells travel between the combs without interfering with one another. These distances can be a little increased without troubling the bees, and we place the combs in our hives one and a half inches from center to center, for easier manipulation. 215. When the combs are newly built, they are white, but they get color shortly afterwards, especially during the harvest of yellow honey. When used for breeding, the cast skins and residues from the larvae (167) give them a dark color, which becomes nearly black with age, especially if bees have suffered with diarrhoea (784), or raised a great many drones (73-190). As wax is a bad conductor, the combs aid in keeping the bees warm, and there is less risk of the honey candying in the cells. 216. Is the size of the cells mathematically exact? When the first Republic of France inaugurated the decimal system of weights and measures, Reaumur proposed to take the cells of the bees as a standard to establish the basis of the system, but it was ascertained that cells are not uni- form in size. 217. The cells in which workers are reared are the smallest. Those in which the drones are reared are larger. It is generally admitted that five worker-cells measure about 7 98 THE BUILDING OF BEES. a linear inch, or twenty-five to the square inch, but this is incorrect. If five worker-cells measured exactly an inch, the number contained in a square inch would be about twenty-nine. As they are usually somewhat larger, the av- erage number in a square inch is a trifle over twenty-seven. Drone-cells number about eighteen, in the same area. L'Abbe Collin measured the average dimensions of the cells very carefully, and the measurements given in his work (Paris, 1865) are about the same as those given above. i % wmmmwwf. 218. The queen-cells have already been described. (104.) As bees, in building their cells, cannot pass immediately from one size to another, they display an admirable sagac- ity in making the transition by a set of irregular inter- mediate cells. Fig. 40 exhibits an accurate and beautiful representation of comb, drawn for this work from nature, COMB. 99 by M. M. Tidd, and engraved by D. T. Smith, both of Boston Mass. The cells are of the size of nature. The large ones are drone- cells, and the small ones, worker- cells. The irregular, five-sided cells between them, show how bees pass from one size to another. Mr. Cheshire, in his book, has criticized this engraving, on account of the acuteness of the cells of transition, or as he terms them, of accommodation. He writes: "The head of a bee could not reach the bottom of the acute angles as they are represented." Our first impression, on reading the criticism, was that Mr. Cheshire was right. Then the thought that Mr. Langstroth had his engravings made from nature led us to inspect some combs, when we found several cells of accommodation with angles at least as acute as in the cut. But we noticed also that this acuity exists only on the rims of the cells and not inside ; the bees, inside the cells, having pushed out the walls, to be enabled to reach the bottom of the angles which were thus rounded inside.* 219. The combs are built with such economy, that the entire construction of a hive of a capacity of nine gallons does not yield more than two pounds of bees-wax when melted. According to Dr. Donhoff, the thickness of the sides of a cell in a new comb is only the one hundred and eightieth part of an inch ! Cheshire states that he found some that measured only the four hundreth of an inch. 220. Most Apiarists before Huber's time supposed that wax was made from pollen, either in a crude or digested state. Confining a new swarm of bees to a hive in a dark and cool room, at the end of five days he found several beau- tiful white combs in their tenement ; these being taken from them, and the bees supplied with honey and water, new •Mr. Langstroth wrote to us, in regard to this criticism of Mr. Cheshire: * ' This piece of comh was actually copied from nature hy a man of extraordi- nary accuracy . " LOFC. 100 THE BUILDING OP BEES. combs were again constructed. Seven times in succession their combs were removed, and were in each instance re- placed, the bees being all the time prevented from ranging the fields to supply themselves with pollen. By subsequent experiments, he proved that sugar-syrup answered the same end with honey. Giving an imprisoned swarm an abundance of fruit and pollen, he found that they subsisted on the fruit, but refused to touch the pollen ; and that no combs were constructed, nor any wax-scales formed in their pouches. Notwithstanding Huber's extreme caution and unwearied patience in conducting these experiments, he did not dis- cover the whole truth on this important subject. Though he demonstrated that bees can construct comb from honey or sugar, without the aid of pollen, and that they cannot make it from pollen, without honey or sugar, he did not prove that when permanently deprived of it they can con- tinue to work in wax, or if they can, that the pollen does not aid in its elaboration. Some pollei is alwa} T s found in the stomach of wax-pro- ducing workers, and they never build comb so rapidly as when they have free access to this article. It must, therefore, in some way, assist the bee in producing it. 221. The experiments made by Berlepsch show that bees, which are deprived of pollen when they construct combs, consume from sixteen to nineteen pounds of honey to produce a pound of comb, while, if provided with it, the amount of honey is reduced to ten or twelve pounds. If the experiment is continued without pollen for some time, the bees become exhausted and begin to perish. It is therefore demonstrated that although nitrogen, which is one of the elements of pollen, does not enter into the composition of bees- wax (222), yet it is indispensable as food to sustain the strength of bees during their work in comb making. COMB. 101 222. Honey and sugar contain by weight about eight pounds of oxygen to one of carbon and hydrogen. When converted into wax, these proportions are remarkably changed, the wax containing only one pound of oxygen to more than sixteen of hydrogen and carbon. Now as oxy- gen is the grand supporter of animal heat, the large quan- tity consumed in secreting wax aids in generating that extraordinary heat which always accompanies comb-build- ing, and which enables the bees to mould the softened wax into such exquisitely delicate and beautiful forms. This interesting instance of adaptation, so clearly pointing to the Divine Wisdom, seems to have escaped the notice of previous writers. 223. Careful experiments prove that from ten to sixteen pounds of honey are usually required to make a single pound of wax. As wax is an animal oil, secreted chiefly from honey, this fact will not appear incredible to those who are aware how many pounds of corn or hay must be fed to cattle to have them gain a single pound of fat. From experiments made by Mr. P. Viallon here, and by Mr. De Lay ens in France, it seems that in good circumstances bees use only about seven pounds of honey to produce a pound of wax. Many bee-keepers are unaware of the value of empty comb. Suppose honey to be worth only ten cents per pound, and comb, when rendered into wax, to be worth thirty cents, the Apiarist who melts a pound of comb loses largely by the operation, even without estimating the time his bees have consumed in building it. It is, therefore, considered a first principle in bee-culture never to melt good worker- combs. A strong colony of bees, in the height of the honey- harvest, will fill them with very great rapidity. With the box hives (274), but little use can be made of empty comb, unless it is new and can be put into the surplus honey-boxes (728), but by the use of movable 102 THE BUILDING OF BEES. frames, every good piece of worker-comb may be given to the bees (286). 224. As we have seen before (217), while the small cells are designated as worker-cells, the large ones, which vary greatly in depth and are more especially prepared to store hone}', and in which the drones are raised, are known as store or drone-cells. 225. Generally, bees build a larger number of worker than of store-cells ; yet they do not follow any regulation as to the relative proportion in the quantity of each kind. Not two colonies, in the same Apiary, will show the same number of large cells, even when the hives are of equal capacity, and even if the building was done in circumstances seemingly identical. You will find a colony whose comb will consist of two-thirds worker and one-third store cells, the adjacent colon}' will have but one-sixth of the latter, another a few square inches only. In a hive all the large cells are together, in another they are scattered. Some of these drone-combs are built from top to bottom of the hive, others are at the top only, others at the side, or at the bot- tom, or scattered, etc. 226. These facts, not explainable by themselves, when added to the wonderful habits of bees, have led to the theory that it was with foresight, with perfect knowledge and for a special purpose, that bees construct such a varied propor- tion of the two kinds of cells. Bees are represented as knowing the sex of the eggs which each kind of cells will receive ; and foreseeing that their queen may not live long and that the young queens have to be fecundated (120), they build large cells in which drones could be raised. 227. We have demonstrated (213) that bees construct their cells without any geometrical calculation. We had previously (142) established that the queen does not know the sex of the eggs she is laying, and although regretting to decrease the charm with which bees were surrounded by COMB. 103 the imagination of bee-keepers, we will try to demonstrate that, in the building of cells, they simply follow their incli- nation ; as do all other beings, in the acts that they perform. But we have first to put forward a few facts, which are gen- erally accepted, on which we will ground our reasoning. 228. 1st, A swarm (406), hived on empty frames, always begins its constructions by worker or small cells : 2d, If the queen of a swarm is very prolific (97), very little of large, or store-comb, will generally be built by her bees: 3d, If, on the contrary, from old age, or from some other cause, the fecundity of a queen is deficient (155), her bees will fill the hive with a large quantity of store- combs : 4th, If the queen of a swarm is removed, or dies while the bees are building, all the combs, made during her ab- sence, will consist of store-cells : 5th, If all or part of the store-combs of a hive are re- moved, the bees will rebuild large cells, at least three times out of four. 229. Besides these five propositions, we will remember that queens prefer to lay in small cells (145), and that they seem to know how to ask the workers to narrow the orifices of the store-cells, when there are no others in the hive to receive their impregnated eggs (146 to 148). We have to remark also that, while the queen prefers the narrow cells, the workers prefer to build the wide ones, since they cease to construct worker-cells when the queen is gone, or when she is not on the spot, to remind them, by her presence, that she needs narrow cells for her impregnated eggs (146), and we will find out the cause of such differ- ences, in the number and in the position of each kind of combs, by following the work of the bees, in some of the circumstances in which they may have to build. 230. (a) The queen of a swarm is very prolific, the crop 104 THE BUILDING OF BEES. is abundant, and the building goes on very fast. The queen lays in all the cells, as soon as begun, disputing for them with the workers, who want to fill them with honey. As she follows the builders, waiting for cells, no large cells are made. After about three weeks, the bees of the first laid eggs begin to leave their cells (171); the queen goes back to fill these empty cells, and the workers, hence- forth free from restraint, follow their preferences by build- ing store-combs. Result: A few large cells, placed on the side or at the back of the hive. 231. (b) This other swarm has a queen as prolific as the one above. For two weeks she follows the builders as the first did, laying in the cells as soon as built. But, the crop stopping suddenly, both the building and the laying slacken, when only two-thirds of the constructions are made. After three weeks of scarcity, abundance comes again, and the building is resumed. But the queen is no longer among the workers, waiting for cells ; she is at the other end of the hive, where she lays in the cells which were left empty when the larvae that they harbored were born. Result : About one-third of store-combs. 232. (c) This third swarm has a queen whose prolific- ness is deficient, yet she has been able to follow the build- ers for a few days. She is at last left behind, and the workers begin combs with large cells. On reaching these cells, one or two days later, she passes over them without laying (149), and rejoins the builders, who hasten to coin- ply with her desire to have worker-cells. But she is soon left behind for the second time, and the workers, unre- strained again, build large cells till she again rejoins them, to be again left behind, and so on. Result : Parts of store- combs mixed, here and there, with worker-combs. 233. (d) We have removed from a hive all its drone- combs ; but as the queen is occupied in filling empty worker- cells in another part of the hive, the builders, following their PROPOLIS. 105 preference, reconstruct large cells, thus annulling our work of removal. 234. (e) We have given one or two combs to a swarm as soon as it was hived (422), and we wonder why its bees have built so much drone-comb. The cause is obvious: the queen, finding empty cells to fill, remained a long time far from the builders, who, following their inclination, con- structed drone-cells. 235. We have to utilize the facts just enunciated. If we desire to prevent a swarm from building too many store- combs, we should watch the builders, and remove the large cells as soon as built ; these combs, if worth saving, may be used in the surplus sections (728). We must remember that, to succeed, it is indispensable that no other cells but the ones to be rebuilt be left at the disposal of the queen. The same rule applies also to the removal of drone-combs at any time ; and as the fulfilling of this condition is not always possible, it is better to replace the removed combs with worker comb or comb foundation (674). The above rules are not without exceptions, for unnoticed circumstances may have some influence on the building of combs ; but we think that we have stated the main causes of variation. Propolis. 236. This substance, which is used by the bees to coat the inside of the bee-hive, and make it water and air tight, is obtained from the resinous buds and limbs of trees ; the different varieties of poplar yield a rich supply. When first gathered, it is usually of a bright golden color, and so sticky that the bees never store it in cells, but apply it at once to the purposes for which they procured it. If a bee is caught while bringing in a load, it will be found to adhere very firmly to her legs. \ 106 THE BUILDING OF BEES. Huber planted in Spring some branches of the wild pop- lar, before the leaves were developed, and placed them in pots near his Apiary ; the bees alighted on them, separated the folds of the large buds with their forceps, extracted the varnish in threads, and loaded with it, first one thigh and then the other ; for they convey it like pollen, from one leg to the other. We have seen them thus remove the warm propolis from old bottom-boards standing in the sun. Propolis is frequently gathered from the alder, horse- chestnut, birch, and willow ; and as some think, from pines and other trees of the fir kind. Bees will often enter var- nishing shops, attracted evidently by their smell ; and in the vicinity of Matamoras, Mexico, where propolis seems to be scarce, we saw them using green paint from window-blinds, and pitch from the rigging of a vessel. Bevan mentions the fact of their carrying off a composition of wax and turpen- tine from the trees to which it had been applied. Dr. Evans says he has seen them collect the balsamic varnish which coats the young blossom-buds of the holly-hock, and has known them to rest at least ten minutes on the same bud, moulding the balsam with their fore-feet, and trans- ferring it to the hinder legs, as described by Huber. " With merry hum the Willow's copse they scale, The Fir's dark pyramid, or Poplar pale ; Scoop from the Alder's leaf its oozy flood, Or strip the Chestnut's resin-coated bud ; Skim the light tear that tips Narcissus' ray, Or round the Hollyhock's hoar fragrance play ; Then waft their nut-brown loads exulting home, That form a fret-work for the future comb ; Caulk every chink where rushing winds may roar, And seal their circling ramparts to the floor." Evans. 237. A mixture of wax and propolis being much more adhesive than wax alone, serves admirably to strengthen the attachments of the combs to the top and sides of the hive. PROPOLIS. 107 If the combs are not filled with honey or brood soon after they are built, they are varnished with a delicate coating of propolis, which adds greatly to their strength ; but as this natural varnish impairs their snowy whiteness, the bees ought not to be allowed access to the surplus honey-recep- tacles, except when about ready to store them with honey. (734.) 238. Bees make a very liberal use of propolis to fill any crevices about their premises ; and as the natural summer- heat of the hive keeps it soft, the bee-moth (802) selects it as a place of deposit for her eggs. Hives ought, therefore, to be made of lumber entirely free from cracks. The corners, which the bees usually fill with propolis, may have a melted mixture run into them, consisting of three parts of resin and one of bees-wax ; this remaining hard during the hottest weather, will bid defiance to the moth. 239. Bees gather propolis, especially when they can find neither honey nor pollen in the fields. Thus, during the honey-crop, very little of it is taken. In soma countries, they use it much more plentifully, owing to its being found more readily. 240. Propolis is hard and brittle in the Winter, and its use by the bees to glue up all parts of the hive, has created the greatest objection to drawers, close-fitting frames, hinged doors, etc., with which some patent hives are pro- vided, and which become entirely immovable, when once coated with it. It is, at all times, the greatest hindrance to the neat handling of the combs, and in warm weather daubs the hands of the Apiarist. It can only be cleaned from the fingers by the use, in place of soap, of a few drops of turpentine, alcohol, spirits of hartshorn, or ether. 241. Propolis is sometimes put to a very curious use by the bees. "A snail, having crept into one of M. Reaumur's hives early in the morning, after crawling about for some time, adhered, by 108 THE BUILDING OF BEES. means of its own slime, to one of the glass panes. The bees hav- ing discovered the snail, surrounded it, and formed a border of propolis round the verge of its shell, and fastened it so securely to the glass that it became immovable." — (Bevan.) " Forever closed the impenetrable door; It naught avails that in its torpid veins Year after year, life's loitering spark remains." Evans. " Maraldi, another eminent Apiarist, states that a snail without a shell having entered one of his hives, the bees, as soon as they observed it, stung it to death ; after which, being unable to dis- lodge it, they covered it all over with an impervious coat of propolis." " For soon in fearless ire, their wonder lost, Spring fiercely from the comb the indignant host, Lay the pierced monster breathless on the ground, And clap in joy their victor pinions round : While all in vain concurrent numbers strive To heave the slime-girt giant from the hive — Sure not alone by force instinctive swayed, But blest with reason's soul-directing aid, Alike in man or bee, they haste to pour, Thick, hardening as it falls, the flaky shower ; Embalmed in shroud of glue the mummy lies, No worms invade, no foul miasmas rise." Evans 242. In these instances, who can withhold his admiration of the ingenuity and judgment of the bees? In the first case, a troublesome creature gained admission to the hive, which, from its unwieldiness, they could not remove, and which, from the impenetrability of its shell, they could not destroy ; here, then, their only source was to deprive it of locomotion, and to obviate putrefaction ; both which objects they accomplished most skillfully and securely, and, as is usual with these sagacious creatures, at the least possible expense of labor and materials. They applied their cement where alone it was required — -round the verge of the shell. In the latter case, to obviate the evil of decay, by the total PROPOLIS. 109 exclusion of air, they were obliged to be more lavish in the use of their embalming material, and to case over the " slime-girt giant," so as to guard themselves from his noi- some smell. What means more effectual could human wis- dom have devised, under similar circumstances? 243. In bygone days, it was a prevalent belief, that when any member of a family died, the bees knew what had happened ; and some were superstitious enough to put the hives in mourning, to pacify their sorrowing occupants ; imagining that, unless this was done, the bees would never afterwards prosper!* It was frequently asserted that they sometimes took their loss so much to heart, as to alight upon the coffin whenever it was exposed. A clergyman told the writer that he attended a funeral, where, as soon as the coffin was brought from the house, the bees gathered upon it so as to excite much alarm. Some years after this occurrence, being engaged in varnishing a table, the bees alighted upon it in such numbers, as to convince him, that love of varnish, rather than sorrow or respect for the dead, was the occasion of their conduct at the funeral. How many superstitions, believed even by intelligent persons, might be as easily explained, if it were possible to ascertain as fully all the facts connected with them ! 244. Commercial Uses of Propolis. — " Dissolved in alcohol and filtered, it is used as a varnish, and gives a polish to wood, and a golden color to tin. A preparation made with finely-ground propolis, gum arabic, incense, storax, benzoin, sugar, nitre, and charcoal, in quantities varied at will, is moulded into fumigating cones, for perfuming rooms or halls." — (Dubini, Milan, 1881.) 245. The following letter from a noted Russian Apiarist, to Mr. E. Bertrand, editor of the Revue Internationale d* Apiculture, of Nyon, Switzerland, one of the most pro- gressive bee-publications, will be found of interest: * Whittier has written a little poem entitled "Telling the Bees," apropos of their knowing of some one's death. 110 THE BUILDING OF BEES. "During my pleasant stay at your pretty villa, I spoke to you of the utilization of propolis in the varnish of our wooden ware, which resists the dissolving power of hot water so well. I have just found a description of the process, and will communicate it to you. " Propolis is purchased by hucksters, who pay five copecks — a little over two cents — and sometimes even less, for permission to scrape or plane the propolis from the walls of a hive that has lost its bees. The shavings, covered with propolis, are heated, put into a wax-press, and subjected to the treatment used in the extraction of beeswax ; the propolis is then purified in hot water, to which sulphuric acid is added. About fifty per cent, of propolis is thus obtained, which sells at forty cents per pound. " This propolis is poured into hot linseed-oil and beeswax, in the following proportions : Propolis 1, beeswax J, oil 2. Previ- ously, the oil should ' linger,' as we say, on the stove, for fifteen or twenty days, that is, remain hot without boiling, to give it the property of drying. The wooden ware is dipped into the above mentioned preparation, and must remain in it ten or fifteen min- utes, after which it is cooled, and rubbed and polished with woolen rags."— (A. Zoubareff", St. Petersburgh, Sept. 26, 1882.) We would suggest to manufacturers of supplies, that the soaking or painting of wooden feeders, and of queen-cages, with a similar preparation, would prevent the warm feed from soaking into the wood. HONEY. Ill CHAPTER III. FOOD OF BEES. HONEY. 246. The main food of bees is the honey or nectar, pro- duced by plants and flowers. That honey is a vegetable product was known to the ancient Jews, one of whose Rab- bins asks : " Since we may not eat bees, which are unclean, why are we allowed to eat honey? " and replies : " Because bees do not make honey, but only gather it from plants and flowers." 247. Yet during its sojourn in the honey-sack, the nectar undergoes a chemical change. Most of its cane-sugar, or saccharose, is changed into grape-sugar, or glucose.* This change is due to its being mixed with saliva and gastric juice in the honey-sack (63). "But the cane-sugar yet remains in large proportion in honey gathered on the moun- tains. " — (G-irard. ) 248. The nectar is produced by the plants in nectarifer- ous tissues, in which accumulations of sugar can be found, and exudes most frequently through small apertures, named stomatce. 249. It contains more or less water, according to the kind of flowers, and the conditions in which it is produced. Some flowers give nectar which is almost completely de- prived of water. Such is the Fuschia (fig. 41). When the nectar of this flower is produced in very dry weather, it sometimes crystallizes in the blossom, as it comes in con- tact with the air. * What is chemically known as glucose should not be confounded with the impure glucose of commerce. 112 FOOD OF BEES. In some other flowers, as in the Fritillaria imperialis, the nectar contains as much as nine- ty-five per cent of water. If we except dry and warm days, we can safely assert that, in most cases, the proportion of water in the nectar varies between sixty and eighty per cent. 250. The quantity of nec- tar produced by the flowers decreases during drought, and increases on the first or sec- ond day after a rain. But it is then more watery. In some seasons the saccharine juices abound, while in others they are so deficient that bees can obtain scarcely any food from fields all white with clover. A change in the secretion of honey will often take place so sud- denly, that the bees will, in a few hours, pass from idleness to great activity. As a rule, the quantity of nectar, exuded by the plants, varies according to the time of day and atmospheric condi- tions. Usually, it is most abundant in the morning. Its quantity decreases as the sun rises higher. At three o'clock in the afternoon, the flowers give the least nectar. Then the yield again increases till dark. In Algeria, Africa, in the neighborhood of Blidah, bees cannot find honey later than eight in the morning. 251. It is when the blossom is ready for fertilization, that the nectar is most abundant in it ; if it is not gathered by insects, it is re-absorbed by the plant and serves, HONEY. 113 together with the sugar accumulated in the ovaries, to nourish the seeds. 252. The accumulations of sugar in the tissues, may exist, not only in the flower, but in different parts of plants, in the cotyledons, in the leaves, in the stipules, in the brac- teas, and between the leaves and twigs. They help the development of the tissues. Sometimes the nectariferous tissues are destitute of sto- matse or openings. Then the accumulated nectar may force itself through the cuticle or skin of the plant. The water of the sap, which runs incessantly in the plants, goes out through the different tissues in unequal quantities ; as some tissues are more porous than others. Generally, water escapes in the form of steam ; but, in some circum- stances, when the air is moist, the water is emitted in liquid form, and may carry with it, to the outside, a part of the accumulations of sugar through which it has passed, thus producing honey- dew. The more sugar this water contains, the slower its evaporation will be. 253. The dampness of the soil and of the air, and a temperature producing a profuse transpiration in plants, then a sudden stop of transpiration, are the best conditions to produce the maximum of nectar in the nectariferous tis- sues and of liquid exudations on the outside. 254. Most of the above statements are taken, or rather abridged, from " Les Nectaires," of Gaston Bonnier, a professor at the !Ecole Normale Superieure of Paris (1879). This work was awarded a medal by the Academy of Science of Paris. Bonnier backs his statements with one hundred and thirty engravings made from microscopic researches. 255. He explains, not only how the nectar is formed in the blossoms, but also how the extra floral nectar, the so- called honey-dew, is produced on different parts of plants, or trees. He has noticed and described the production of nectar 8 114 FOOD OF BEES. ( honey- dew without aphides),* on many herbaceous plants, and on the following trees or shrubs : Two kinds of oak, 1 "5 ° a o ° * £ . a ° bo i a « 1- 9 & • Honey-dew without aphides was noticed in this country, on wheat, and even on wheat stubble. (J. O. Shearman, American Bee-Journal, 1887, page 503.) See also, O. W. Bellemey, "Gleanings," March, 1882, page 398, and others. HONEY. 115 the ash, two kinds of linden, the sorb, the barberry, two kinds of raspberry, the poplar, the birch, two kinds of maple, and the hazel brush. In some parts of Europe, this honey-dew is so plentiful, that some Apiarists transport their bees to the districts in which it is produced, during its yield. (Fig. 42.) 256. Bees also harvest, in some seasons, a sweet sub- stance of poorer quality, which is a discharge from the bodies of small aphides or " plant lice.''* Messrs. Kirby and Spence, in their interesting work on Entomology, have given a description of the honey-dew furnished by the aphides: " The loves of the ants and the aphides have long been cele- brated; you will always find the former very busy on those trees and plants on which the latter abound; and, if you examine somewhat more closely, you will discover that the object of the ants in thus attending upon the aphides, is to obtain the saccha- rine fluid secreted by them, which may well be denominated their milk. This fluid, which is scarcely inferior to honey in its sweetness, issues in limpid drops from the abdomen of these in- sects, not only by the ordinary passage, but also, by two setiform tubes, placed one on each side, just above it. Their sucker being inserted in the tender bark is, without intermission, employed in absorbing the sap, which, after it has passed through these or- gans, they keep continually discharging. When no ants attend them, by a certain jerk of the body, which takes place at regular intervals, they ejaculate it to a distance." 257. "Mr. Knight once observed a shower of honey-dew descending in innumerable small globules, near one of his oak trees. He cut off one of the branches, took it into the house, and, holding it in a stream of light admitted through a small opening, distinctly saw the aphides ejecting the fluid from their bodies with considerable force, and this accounts for its being * The Abbe' Boissierde Sauvages, in 1763, described two species of honey- dew. The first kind, he says, has the same origin with the manna on the ash and maple trees of Calabria and Brianron, where it flows plentifully from their leaves and trunks, and thickens in the form in which it is usually seen. — (" Observations sur l'Origine du Miel.") We have received specimens of a honey-dew from California, which is said to fall from the oak trees in sta- lactites of considerable size. 116 FOOD OF BEES. frequently found in situations where it could not have arrived by the mere influence of gravitation. The drops that are thus spurted out, unless interrupted by the surrounding foliage, or some other interposing body, fall upon the ground; and the spots may often be observed, for some time, beneath and around the trees, affected with honey-dew, till washed away by the rain. The power which these insects possess of ejecting the fluid from their bodies, seems to have been wisely instituted to preserve cleanliness in each individual fly, and, indeed, for the preserva- tion of the whole family ; for, pressing as they do upon one an- other, they would otherwise soon be glued together, and rendered incapable of stirring. On looking steadfastly at a group of these insects {Aphides saliels) while feeding on the bark of the willow, their superior size enabled us to perceive some of them elevating their bodies and emitting a transparent substance in the form of a small shower: " Nor scorn ye now, fond elves, the foliage sear, When the light aphids, arm'd with puny spear, Probe each emulgent vein, till bright below, Like falling stars, clear drops of nectar glow." Evans. 258. " Honey-dew usually appears upon the leaves as a vis- cid transparent substance, as sweet as honey itself, sometimes in the form of globules, at others resembling a syrup. It is gen- erally most abundant from the middle of June to the middle of July — sometimes as late as September. " It is found chiefly upon the oak, the elm, the maple, the plane, the sycamore, the lime, the hazel, and the blackberry ; occasion- ally also the cherry, currant, and other fruit trees. Sometimes only one species of trees is affected at a time. The oak gener- ally affords the largest quantity. At the season of its greatest abundance, the happy, humming noise of the bees may be heard at a considerable distance, sometimes nearly equalling in loud- ness the united hum of swarming." — (Bevan.) In some seasons, bees gather large supplies from these honey- dews, but it is abundant onty once in three or four years. The honey obtained from this source is usually of a dark color, and seldom of a very good quality. 259. It is very difficult to ascertain, at all times, the special source of honey-dew, whether from the trees or from HONEY. 117 the aphides. In order to give all sides a hearing, we will cite a letter from Mr. Bonnier on this subject, and leave the reader to draw his own conclusions : " Plant lice are seen even on trees, that have no extra floral nectaries. They do not produce exudations (properly speaking), but bore the tissues to eat the contents. Their presence on the plant has no connection with that of the nectar. The excreuien- tal liquid of aphides is not equally sweet in all the species, and the bees harvest only that which is very sweet. They generally prefer the true honey-dew (miellee), which exudes from the leaves at certain times, and contains mannite and saccharine matter. " I have seen bees, however, harvesting the sweet liquid of the aphides and the true miellee at the same time, on the aspen, maple, and sycamore. " I have rarely seen the extra floral nectar of the special nec- taries overflow and run in drops, but the true miellee of trees may fall in small drops, and some observers conclude from this fact, that it is produced by aphides. I have often seen some trees, and even all the trees, of a timber, covered with an abundant miellee, falling in small drops, although there was not a single louse on the higher limbs. " To sum up, we must not confound the three kinds of sweet liquid, which may be produced outside the flowers : 1st, The extra-floral nectar proper, produced, like the nectar of flowers, from special sugar tissues ; 2d, The true miellee, produced on the surface of the leaves of trees or shrubs, without the action of aphides; 3d, The excretion, more or less sweet, sometimes con- taining very little sugar, abundantly produced by a great num- ber of aphides." 260. In some blossoms, as in the red clover, the corolla is so deep and narrow, that the nectar is out of reach of the honey-bee. Larger insects, such as the bumble-bee, or smaller ones, as some wasps, enjoy it to the exclusion of our favorites. Yet in some seasons, we have seen bees working on red-clover bloom, and have attributed this to the corollas being shorter, owing to drouth, or scant growth. Mr. Bonnier has discovered that, in some such flowers, the nectar is sometimes so abundant, that the bees can reach it. It is true that insects, and even bees, can tear the 118 FOOD OF BEES. tender corollas of some blossoms, opposite the honey recep- tacle, to reach the nectar, but this is of such rare instance, in the honey-bee, that it cannot be considered of any prac- tical value. 261. The honey, when harvested, is stored in the rear of the hive, above the brood, and as near it as possible. When just gathered, it is too watery to be preserved for the use of the bees. To evaporate this water, they force a strong current of air through the hive, and the bee-keeper can ascertain the days of large honey-yield, by the greater roar of the bees in front of their hive during the night fol- lowing. If a strong colony is put on a platform scale, it will be found, during the height of the honey-harvest, to gain a number of pounds on a pleasant day. Much of this weight will be lost in the night, from the evaporation of the newly- gathered honey. A thorough upward ventilation, in hot weather, will therefore contribute to increase the ripening of honey. When the cell is about full, the bees seal it with a flat cover or capping made of wax. This capping is begun at the lower edge of the cell, and is raised gradually, as the honey is deposited within, till the cell is entirely sealed. These cappings being flat, depressed, or uneven, are easily distinguished from the caps of the brood, which are convex and of a darker color. 262. Are the caps of the honey-cells air-tight? This much-debated question is not yet satisfactorily answered. The caps of the brood-cells, made of pollen and wax, are undoubtedly porous enough to allow the air to reach the larva; and some Apiarists question the imperviousness of the sealing of hone} T -comb. Mr. Cheshire himself, while of opinion that " the bee aims at compact coverings for her honey," says that " not more than ten percent, of these are absolutely impervious to air." Yet his own description of the cause of the well-known whiteness of the cappings, POLLEN. 119 owing to the air which is left behind and " cannot escape," would prove that these cappings are originally made as air- tight as a thin coat of wax can make them. The fact that honey shrinks and swells inside of the cell, is only a proof that, like many other things, its volume depends on the temperature. Again, its fermenting in sealed cells, proves only that it contains the elements of fermentation, and these can be developed at certain degrees of temperature, even in air-tight vessels. Mr. Cheshire's tests of honey-combs, steeped in water, to ascertain whether the honey in sealed cells would absorb moisture and expand, have been tried by us with altogether contrary results. The difference of opinion on this subject may be due to the fact that the cap- pings are very fragile, and crack imperceptibly, when ex- posed to variations of temperature outside of the hive. Would it be possible that the thin coat of wax, though evidently air-tight, be, in some circumstances, porous enough to allow moisture to soak through it slowly, like water through leather? Pollen. 263. The pollen, or fertilizing dust of flowers, is gath- ered by the bees from blossoms, and is indispensable to the nourishment of their young — repeated experiments having proved that brood cannot be raised without it. It is very rich in the nitrogenous substances which are not contained in honey, and without which ample nourishment could not be furnished for the development of the growing bee. Dr. Hunter, on dissecting some immature bees, found that their stomachs contained pollen, but not a particle of honey. We are indebted to Huber for the discovery, that pollen is the principal food of the young bees. As large supplies were often found in hives whose inmates had starved, it was 120 FOOD OF BEES. evident that, without honey, it could not support the mature beas ; and this led former observers to conclude that it served for the building of comb. Huber, after demonstrat- ing that wax can be secreted from an entirely different sub- stance, soon ascertained that pollen was used for the nourishment of the embryo bees. Confining some bees to their hive without any pollen, he supplied them with honey, eggs, and larvae. In a short time, the young all perished. A fresh supply of brood being given to them, with an ample allowance of pollen, the development of the larvse pro- ceeded in the natural way. 264. We had an excellent opportunity of testing the value of this substance, in the backward Spring of 1852. On the oth of February, we opened a hive containing an artifi- cial swarm of the previous year, and found many of the cells filled with brood. The combs being examined on the 23d, contained neither eggs, brood nor bee-bread ; and the col- ony was supplied with pollen from another hive ; the next day, a large number of eggs were found in the cells. When this supply was exhausted, laying again ceased, and was only resumed when more was furnished. During the time of these experiments, the weather was so unpromising, that the bees were unable to leave the hive. Dzierzon is of opinion that bees can furnish food for their youn^, without pollen ; although he admits that they can do it only for a short time, and at a great expense of vital en- ergy ; just as the strength of an animal nursing its young is rapidly reduced, if, for want of proper food, the very sub- stance of the mother's body must be converted into milk. The experiment just described does not corroborate this theory, but confirms Huber's view, that pollen is indispen- sable to the development of brood. Gundelach, an able German Apiarist, says that if a col- ony with a fertile queen be confined to an empty hive, and supplied with huney, comb will be rapidly built, and the POLLEN. 121 cells filled with eggs, which in due time will be hatched ; but the worms will all die within twenty-four hours. Sometimes bees, unable to feed their brood for lack of pollen, desert their hives (407). 265. In September, 1856, we put a very large colony ol bees into a new hive, to determine some points on which we were then experimenting. The weather was fine, and they gathered pollen, and built comb very rapidly ; still for ten days, the queen-bee deposited no eggs in the cells. During all that time, these bees stored very little pollen in the combs. One of the days being so stormy that they could not go abroad, they were supplied with rye flour (207), none of which, although very greedily appropriated, could be found in the cells. During all this time, as there was no brood to be fed, the pollen must have been used by the bees either for nourishment, or to assist them in secreting wax ; or, as we believe, for both these purposes. 266. Bees prefer to gather fresh pollen, even when there are large accumulations of old stores in the cells. With hives giving the control of the combs, the surplus of old colonies may be made to supply the deficiency of young ones ; the latter, in Spring, being often destitute of this important article.* If honey and pollen can both be obtained from the same blossom, the industrious insect usually gathers a load of each. To prove this, let a few pollen-gatherers be dissected when honey is plenty ; and their honey-sacks will ordinarily be full. When the bee brings home a load of pollen, she stores it away, by inserting her body in a cell, and brushing it from her legs ; it is then carefully packed down, being often cov- ered with honey, and sealed over with wax. Pollen is sel- dom deposited in any except worker-cells. This fact * Although the bees of queenless colonies do not usually go in quest of pollen , some occasionally harvest it, and as it is not used, it accumulates in the hive. 122 FOOD OF BEES. supports the idea that large cells are not built to raise brood (224). Aristotle observed, that a bee, in gathering pollen, con- fines herself to the kind of blossom on which she begins, even if it is not so abundant as some others ; thus a ball of this substance taken from her thigh, is found to be of a uniform color throughout ; the load of one insect being yellow, of another, red, and of a third, brown ; the color varying with that of the plant from which the supply was obtained. They may prefer to gather a load from a single species of plant, because the pollen of different kinds does not pack so well together. Reaumur has estimated, that a good colony may gather and use as much as one hundred pounds of it in a year. 267. When bees cannot find pollen, in early Spring, they will gather flour, or meal, or even fine sawdust, as a substi- tute. This was noticed by Hartlib, as early as 1655. Dzierzon, early in the Spring, observed his bees bringing rj^e-meal to their hives from a neighboring mill, before they could procure any pollen from natural supplies. The hint was not lost ; and it is now a common practice, wherever bee-keeping is extensively carried on, to supply the bees early in the season with this article. Shallow troughs or boxes are set not far from the Apiaries, filled about two inches deep with finely-ground, dry, unbolted rye-meal, oat- meal or even ivith flour. Where bolted flour, or meal, is given, it should be tightly pressed with the hands, to pre- vent the bees from drowning in it. lo attract them to it, we bait them with a few old combs, or a little honey. The boxes must be placed in a warm spot sheltered from the wind. Thousands of bees, when the weather is favor- able, resort eagerly to them, and return heavily laden to their hives. This artificial pollen or bee-bread, is kneaded by them with saliva, or honey brought from the hive. This is easily POLLEN. 123 ascertained by tasting the little pellets, which in the hurry are loosened from their baskets, and fall to the bottom of the flour box. In fine, mild weather, they labor at this work with great industry ; preferring the meal to the old pollen stored in their combs. They thus breed early, and rapidly recruit their numbers. The feeding is continued till, the blossoms furnishing a preferable article, they cease to carry off the meal. We will here add that, as a rule, colonies that do not carry in meal or pollen, at the opening of Spring, are without brood, either because they are queenless, or from want of honey, or from some other cause. The discovery of flour, as a substitute for pollen, removes a very serious obstacle to the culture of bees. In many districts, there is for a short time such an abundant supply of honey, that almost any number of strong colonies will, in a good season, lay up enough for themselves, and a large surplus for their owners. In many of these districts, how- ever, the supply of pollen is often quite insufficient, and in Spring, the swarms of the previous year are so destitute, that unless the season is early, the production of brood is seriously checked, and the colony cannot avail itself prop- erly of the superabundant harvest of honey. 268. As bees carry on their bodies the pollen, or fertil- izing substance, they aid most powerfully in the impregna- tion of plants, while prying into the blossoms in search of honey or bee-bread. In genial seasons, fruit will often set abundantly, even if no bees are kept in its vicinity ; but many Springs are so unpropitious, that often during the critical period of blossoming, the sun shines for only a few hours, so that those only can reasonably expect a remuner- ating crop whose trees are all murmuring with the pleasant hum of bees. 269. One of the laws of Nature is that the crossing of the races produces offspring with greater vigor, endurance, 124 FOOD OF BEES. and faculty of reproduction. Fruits succeed better, when the pollen, which fertilizes the pistil, conies from some other blossom ; and the insects are intrusted with the mission of transporting this pollen from one blossom to another, while gathering it for their own use. In some plants, fertilization would have been impossible, without the help of insects. For instance, some plants, such as the willows, are diecious, having their male organs on one tree, and their female or- gans on another. The bees after visiting the one for pollen, go to the other for honey, and the fecundation is effected. B Fig, 43. SCROPHULARIA NODOSA. (Magnified. From Cheshire.) A, young blossom. s, stigma. B, section of blossom, ra, calyx; r, corolla; aa, , stigma; I, lip; a, anthers; », nectar; bl, black lip. C, older blossom, s, dropping stigma; a, anthers. aborted anthers; In some other plants, such as the Scrophularia Nodosa (Simpson honey plant — Fig. 43), the female organs are ready for fecundation earlier than the male. But as the flower secretes a large quantity of honey, which is replaced in its nectaries as fast as the bees gather it, the bees, in traveling from one blossom to another, carry the pollen of an old blossom to the pistil of a younger one, and fertiliza- tion is accomplished. Some plants, corn, for instance, pro- TOLLEN. 125 duce such quantities of pollen, that the agency of insects is less indispensable to the fertilization of their blossoms. 270. To determine the advantages which flowers derive from insect fertilization, any one can wrap a few flowers in gauze, just before the opening of the bud, and compare the number of fertile seeds, from flowers thus treated, with those of other blossoms. We have heard farmers mention the fact that the first crop of red clover furnishes but little seed, compared with the second crop. This is because the bumble-bees, which help its fertilization, are very scarce in Spring, while they are much more plentiful in Summer. " In Australia it was found impossible to obtain seed from red clover until the bumble-bees were imported into that country " (Darwin). A large fruit-grower told us that his cherries were a very uncertain crop, a cold northeast storm frequently prevailing when they were in blossom. He had noticed that, if the sun shone only for a couple of hours, the bees secured him a crop. If those horticulturists, who regard the bee as an enemy, could exterminate the race, they would act with as little wisdom as those who attempt to banish from their inhospit- able premises every insectivorous bird, which helps itself to a small part of the abundance it has aided in producing. By making judicious efforts early in the Spring, to entrap the mother-wasps and hornets, which alone survive the Winter, an effectual blow may be struck at some of the worst pests of the orchard and garden. In Europe, those engaged extensively in the cultivation of fruit, often pay a small sum in the Spring for all wasps and hornets destroyed in their vicinity. 126 FOOD OF BEES. Water. 271. Water is necessary to bees to dissolve the honey, which sometimes granulates in the cells, and to raise brood. They can raise a certain amount of brood without water, but they alwaj^s seem to suffer more or less in consequence (682). In the Winter, they breed but little, and the moisture which condenses on the walls of the hive is gener- ally sufficient. Yet we have noticed that as soon as bees are brought out of the cellar (653), if the temperature is sufficiently warm, * a great many will be seen sucking water. This fact shows that Berlepsch was right when he advised bee-keepers to give water to bees during Winter, to avoid what he called disease of the thirst. Besides, every one may notice that bees take advantage of any warm Winter day to bring it to their hives ; and, in early Spring, may be seen busily drinking around pumps, drains, and other moist places. Later in the season, they sip the dew from the grass and leaves. 272. Every careful bee-keeper will see that his bees are well supplied with water. If he has not some sunny spot, close at hand, where they can safely obtain it, he will fur- nish them with shallow wood- en troughs, or vessels filled with floats or straw, from which — sheltered from cold winds, and warmed by the genial rays of the sun — they can drink without risk of drowning. A barrel half filled with Fig. 44. earth and then filled with WATER SUPrLY B0TTLE * water, in which some water- (From Sar ffi an & i? a a i? 8 ) heufel3 ' ot WATER. 127 cress or other aquatic plants are kept, to preserve it from putrefaction, and to prevent the bees from drowning, will do very well. For a small Apiary, a jug or bottle (fig. 44), filled with water, and inverted on a plate, covered with a small piece of carpet, will be sufficient. It can also be given in the combs. Mr. Vogel, editor of the Bienen-Zeitung, on the 19th of March gave to a colony a comb containing crys- tallized honey, and another containing about three-fourths of a pound of water. Within sixteen hours, both combs were altogether emptied by the bees. 273. A learned French bee-keeper, Mr. De Layens, made many experiments in regard to this matter. *' In the month of May, 1878, I put a lump of sugar near a spot where a great many bees came for water; they paid no attention to it. The sugar was then moistened and covered with honey. The bees, attracted by the honey, came in great numbers, and sucked up most of the moist sugar. After they became accustomed to this, I decreased the moistening, till I gave them nothing but dry sugar, when they brought water to dissolve the sugar, and removed all except the parts which were too hard to be dissolved easily." — (Bulletin de la Suisse, Nov. 1880.) The same writer has noticed that, in Spring, if the bees are compelled to go very far for water, many of them per- ish. He found a loss of three hundred and fifty grammes of bees — four-fifths of a pound — from a hive, during a sud- den Spring storm. From the 10th of April to the 31st of July, forty colonies consumed 187 litres of water, about fifty gallons ; the great- est quantity used in a day being seven litres, or about fif- teen pints. That bees do not need water, in circumstances other than those above named, is evidenced from the fact that, in im- porting bees from Italy, we did not succeed in receiving them alive, until our shippers reluctantly consented to send them without water (595). 128 FOOD OF BEES. Salt. 274. Bees seem to be so fond of salt, that they will alight upon our hands to lick up the saline perspiration. " During the early part of the breeding season," said Dr. Bevan, " till the beginning of May, I keep a constant supply of salt and water near my Apiary, and find it thronged with bees from early morn till late in the evening. About this period the quantity they consume is considerable, but afterwards they seem indiffer- ent to it. The eagerness they evince for it at one period of the season, and their indifference at another, may account for the opposite opinions entertained respecting it." HIVES WITH IMMOVABLE COMBS. 129 CHAPTER IV. THE BEE-HIVES. HIVES WITH IMMOVABLE COMBS. 275. The first hives that were provided for bees were as rude as their natural abodes. We do not need to look back very far to remember the " bee-gum," so called, probably, because it had often been made out of the gum tree, with two sticks crossing in the middle, and a rough board nailed on top, while a notch in the lower end formed the entrance. In the Old World, they manufactured straw or willow " skeps " and pottery hives, which are still used in Asia and Africa. The earthen hive was simply a tube, laid on its side, and closed at each end with a movable wooden disk. This disk was removed to take the honey, which is always located at the back part of the hives. Fig. 45. EARTHEN HIVE OF AFRICA AND CYPRUS. (Erom "L'Apicoltore," Milan.) These earthen hives were, unquestionably, the most sensible of those old kinds. In the Islands of Greece they were set in thick stone walls, built on purpose with the entrance on one side of the wall. Sometimes they were located in the walls of the houses, and the honey was removed from the inside of the house, or, if in walls, from behind, out of the flight of bees. 9 130 THE BEE-HIVES. 276. To get the honey from the gums, or boxes, the bee-keepers used at first to drive the bees to another hive (574) and take all the contents. But most of the thus impoverished colonies perished. This led to the thought that killing bees would be more facile, and the brim- stone-pit was invented. This killing of bees was so cus- tomary that, about one hundred years ago, Joseph II, Emperor of Austria, decreed that every bee-keeper who would cut the combs in Spring, instead of brimstoning the bees, would receive one florin (about forty cents) per colony. Fig. 46. STRAW HIVE, WITH CAP. (From Hamet.) Fig. 47. BOX HIVE, WITH CAP. (From Hamet.) 277. Nearly sixty years ago, our senior, then a boy, saw this harvesting of combs for the first time. Clothed with a heavy linen frock, equipped with a mask of wire, strong enough to be sword-proof, and sweating under a scorching sun in this heavy garment, he helped (?) the old priest of his village to prune about twenty colonies, removing the back combs with a curved knife, from the upturned hives. It was in April ; and, while the crop thus harvested HIVES WITH IMMOVABLE COMBS. 131 was light, the damage inflicted to the bees was immense, for they had to rebuild their combs at a time when queens begin their greatest laying. But the bee-keepers of old were persuaded that this crop of beeswax was beneficial to bees, since it compelled them to make new combs, which were considered better than older ones (676). Fig. 48. STRAW EKE HIVE. (FromHamet.) B, body; A , hole to connect the stories with the surplus cap . Fig. 49. THE RADOUAN EKE HIVE. (From Hamet.) 278. Some bee-keepers, having noticed that bees place their honey at the highest part of the hive, added a cap or upper story, which communicated with the hive through a hole in the top of the latter (figs. 46 and 47). Still later, Apiarists found out that when the hive was very deep and the connecting hole small, the bees refused to store their honey in the cap, and they made their hives with open ceil- ings, replacing the top board of the breeding-story with slats or bars. The hives were afterwards divided into several hor- izontal sections, called " ekes" (figs. 48 and 49). Instead of using a cap, some Apiarists removed the upper story, when full of honey, and placed anew story under the others. 132 THE BEE-HIVES. The bees then continued their constructions downwards. To separate the sections from one another, they used a wire that cut the combs. Butler, in his " Feminine Monarchy," 1634, shows hives composed of four sections, piled upon one another. Palteau, in 1750, advises bee-keepers to use a perforated ceiling at the top of each section. Radouan, in 1821, instead of a perforated ceiling, uses triangular bars, to which the bees attach their combs (fig. 49). Chas. Soria, in 1845, used these bars at the bottom of each story as well as at the top, with bee space between, so that they can be removed, exchanged, or reversed, without crushing any bees, or damaging a single cell (fig. 50). Fig. 50. Fig. 51. EKE OF CHAS. SORIA. DIVIDING HIVE .OF JONAS. (FromHamet.) DE GELIEU. (From Hamet.) 279. Other Apiarists divided their hives vertically, con- formably with the shape of the combs of the bees, which hang vertically. If we are correctly informed, it was Jonas de Gelieu who inaugurated this style (fig. 51). He made his hive divisible into only two parts. GEttl, towards the middle of this century, made a straw hive divided into three vertical parts. The main advantage of these hives resides in the facility of dividing them for artificial swarming. But as this method of making artificial swarms is defective, as will be shown further, (471), and as all these contri- REQUISITES OE A COMPLETE HIYE. 133 varices did not allow a close study of the habits of the bee, or permit the needed manipulations, it became necessary to invent a hive whose every comb, and every part, the Apiarist could promptly and easily control ; a hive which, to employ the forcible expression of Mr. Hamet, could " se demonter comme un jeu de marionettes;" (be taken to pieces like a puppet-show). Requisites of a Complete Hive. 280. 1. A complete hive should give the Apiarist such perfect control of all the combs, that they may be easily taken out without cutting them, or exciting the anger of the* bees. 2. It should permit all necessary operations to be per- formed without hurting or killing a single bee. Some hives are so constructed, that they cannot be used without injuring or destroying some of the bees ; and the destruction of even a few materially increases the difficulty of managing them (399). 3. It should afford suitable protection against extremes of heat and cold, sudden changes of temperature, and the injurious effects of dampness. The interior of a hive should be dry in Winter, and free in Summer from a pent and almost suffocating heat. 4. Not one unnecessary motion should be required of a single bee. As the honey-harvest, in most locations, is of short con- tinuance, all the arrangements of the hive should facilitate, to the utmost, the work of the busy gatherers. Hives which compel them to travel with their heavy burdens through densely crowded combs, are very objectionable. Bees instead of forcing their way through thick clusters, must easily pass into the top surplus honey-boxes of the 134 THE BEE-HIVES. hives, from any comb in the hive, and into every box, with- out traveling much over the combs. 5. It should be capable of being readily adjusted to the wants of either large or small colonies (349). 6. It should allow every good piece of worker-comb to be given to the bees, instead of melting it into wax, and should permit of the use of comb-foundation (674). 7. It should prevent the over-production of drones, by permitting the removal of drone-comb from the hive. A hive containing too much comb suitable only for storing honey, or raising drones, cannot be expected to prosper. 8. It should allow the bottom board to be loosened or fastened at will, for ventilation, or to clear out the dead bees in Winter. If suffered to remain, they often become mouldy, and injure the health of the colony. In dragging them out, when the weather moderates, the bees often fall with them on the snow, and are so chilled, that they never rise again; for a bee, in flying away with the dead, fre- quently retains its hold until both fall to the ground. 9. No part of the interior of the hive should be below the level of the place of exit. If this principle is violated, the bees must, at great dis- advantage, drag, up hill, their dead, and all the refuse of the hive. 10. It should afford facilities for feeding bees, both in warm and cool weather, in case of need. 11. It should furnish facilities for enlarging, contracting, and closing the entrance, to protect the bees against rob- bers ; and when the entrance is altered, the bees ought not, as in some hives, to lose valuable time in searching for it. 12. It should furnish facilities for admitting at once a large body of air, that the bees may be tempted to fly out and discharge their faeces, on warm days in Winter, or early Spring (344). If such a free admission of air cannot be given, the bees, REQUISITES OP A COMPLETE HIVE. 135 by losing a favorable opportunity of emptying themselves, may suffer from diseases resulting from too long confine- ment. 13. It should allow the bees, together with the heat and odor of the main hive, to pass in the freest manner, to the surplus honey-receptacles. In this respect, many hives with which we are acquainted are more or less deficient ; the bees being forced to work in receptacles difficult of access, and in which, in cool nights, they find it impossible to maintain the requisite heat for comb-building, or, in which, in hot days, they cannot send air enough to make the place habitable. 14. Each of the parts of every hive in an Apiary should be so made, as to be interchangeable from one hive to an- other. In this way, the Apiarist can readily make the exchanges of brood, honey, or pollen, which circumstances demand. 15. The hive should permit the surplus honey to be taken away in the most convenient, beautiful and salable forms. 16. It should be equally well adapted to be used as a swarmer, or non-swarmer. 17. It should enable the Apiarist to multiply his colonies with a certainty and rapidity which are impossible if he depends on natural swarming. 18. It should enable the Apiarist to supply destitute col- onies with the means of obtaining a new queen. 19. It should enable him to catch the queen, for any purpose ; especially to remove an old one whose fertility is impaired by age. 20. It should enable a single bee-keeper to superintend several hundred colonies for different individuals. Many persons would keep bees, if an Apiary, like a gar- den, could be superintended by a competent individual. No person can agree to do this with the common hives. If the 136 THE BEE-HIVES. bees are allowed to swarm, he may be called in a dozen dif- ferent directions at once, and if any accident, such as the loss of a queen, happens to the colonies of his customers, he can usually apply no remedy. 21. All the joints of the hive should be water-tight and moth-proof (804), and there should be no doors or shutters liable to shrink, swell, or get out of order. 22. A complete hive should be protected against the de- structive ravages of mice in Winter (348). 23. It should permit the honey, after the gathering sea- son is over, to be concentrated where the bees will most need it. 24. It should permit the space for spare honey recepta- cles to be enlarged or contracted at will, without any alter- ation or destruction of existing parts of the hive. Without the power to do this, the productive force of a colony is in some seasons greatly diminished. 25. Its surplus honey receptacle should be as close to the brood as possible. 26. A complete hive, while possessing all these requisites, should, if possible, combine them in a cheap and simple form, adapted to the wants of all who are competent to cultivate bees. 281. There are a few desirables to which a hive, even if it were perfect, could make no pretensions ! It could not promise splendid results to those who are too ignorant or too careless to be entrusted with the man- agement of bees. In bee-keeping, as in all other pursuits, man must iirst understand his business, and then proceed upon the good old maxim, that "the hand of the diligent maketh rich." " In a word, to succeed it is indispensable to know what to do, and to do it just in time." — (S. Wagner). It could not have the talismanic influence to convert a bad situation for honey into a good one ; or give the Apiarist an abundant harvest, whether the season was productive or MOVABLE-COMB HIVES. 137 otherwise. As well might the farmer seek for some kind of wheat which will yield an enormous crop, in any soil, and in every season. It could not enable the cultivator, while rapidly multiply- ing his stocks, to secure the largest yield of honey from his bees. As well might the breeder of poultry pretend, that in the same year, and from the same stock, he can both raise the greatest number of chickens, and sell the largest number of eggs. MOVABLE-COMB HlVES. 282. The bee-keepers of Greece and of Candia seem to have been the first to provide their hives with movable bars, under which bees suspended their combs. Della-Rocca men- tions these and gives engravings of them in his work, pub- lished in 1790. In 1838, Dzierzon revived this hive and improved it. In spite of the difficulty of its management, since the combs not being attached to movable-frames, but D Fig. 52. DIVERS MOVABLE BARS TO SUPPORT THE COMBS. to top bars (fig. 52), cannot be removed without cutting them loose from the sides of the hive, Dzierzon succeeded in making discoveries, in bee physiology, which rank among the most important (132). His success was marvelous for the epoch. Mr. Wagner wrote of him in 1852 : 138 THE BEE-HIVES. 283. "As the best test of the value of Mr. Dzierzon's system is the results which have been made to flow from it, a brief ac- count of its rise and progress may be found interesting. In 1835, he commenced bee-keeping in the common way, with twelve colonies, and after various mishaps which taught him the defects of the common hives and the old mode of management, his stock was so reduced, that, in 1838, he had virtually to begin anew. At this period he contrived his improved hive, in its ruder form, which gave him the command over all the combs, and he began to experiment on the theory which observation and study had enabled him to devise. Thenceforward his progress was as rapid, as his success was complete and triumphant. Though he met with frequent reverses, about seventy colonies having been stolen from him, sixty destroyed by fire, and twenty-four by a flood, yet, in 1846, his stock had increased to three hundred and sixty colonies, and he realized from them that year six thousand pounds of honey, besides several hundred weight of wax. At the same time, most of the cultivators in his vicinity, who pursued the common methods, had fewer hives than they had when he commenced. "In the year 1848, a fatal pestilence, known by the name of 'foul brood' (TST), prevailed among his bees, and destroyed nearly all his colonies before it could be subdued, only about ten having escaped the malady which attacked alike the old stocks and his artificial swarms. (469). He estimates his entire loss that year at over five hundred colonies. Nevertheless, he suc- ceeded so well in multiplying by artificial swarms, the few that remained healthy, that, in the Fall of 1851, his stock consisted of nearly four hundred colonies. He must therefore have multi- plied his stocks more than three-fold each year." But in the Dzierzon hive, it is often necessary to cut and remove many combs to get access to a particular one ; thus if the tenth from the end is to be removed, nine must be taken out. This hive cannot furnish the surplus honey in a form the most salable in our markets, or admitting of safe transportation in the comb. Notwithstanding these disad- vantages, it has achieved a great triumph in Germany, and given a new impulse to the cultivation of bees. Dzierzon builds hives in structures of two, four and even more colonies, piled upon one another. On the frontispiece MOVABLE-FRAME HIVES. 139 to the first edition of this work, Mr. Langstroth gave a rep- resentation of a triple hive. The little that can be saved in the first cost of such hives, he found to be more than lost by the great inconvenience of handling them. Movable-Frame Hives. 284. About one hundred years ago, Huber invented the leaf -hive, which enabled him to make his discoveries. It consisted of twelve frames, each an inch and a quarter in width, which were connected together by hinges, so that they could be opened or shut at pleasure, like the leaves of a book. (Fig. 53.) THE HUBER LEAF HIVE. (FxomHamet.) 285. This hive was lately improved upon by several bee- keepers in Europe and America, the most noted of whom are the late Mr. Quinby, and his son-in-law, L. C. Root, author and publisher of one of the most progressive bee- books, " Quinby' s New Bee-keeping." This style of hive 140 THE BEE— HIVES. is generally known as the closed-end standing-frame hive. Mr. Armstrong of Illinois, seems to be successful with a hive almost entirely similar to the Huber leaf-hive in its principles. Mr. Heddon, of Michigan, has also patented a closed-end frame hive, which is praised by some bee-keepers of note. The reader will understand that, in these hives, the combs hang separately in frames, which, when joined together, make a body, enclosed in an outer covering. Their being used by a number of Apiarists, shows that these hives have some advantages, the greatest objection to them being the difficulty of fitting the frames together, after in- spection, without crushing some bees, unless they have been previously shaken out. 286. Several attempts were made, in the first half of this century, to invent a practical hanging-frame hive ; that is, a hive in which each comb, hanging in a separate frame, could be readily taken out and replaced without jarring the hive, or removing the other frames. Propokovitsch, in Russia, Munn, in England, Debeauvoys, in France, tried and failed. At last, in October, 1851, Mr. Langstroth invented the top-opening movable-frame hive, now used the'world over, in which the combs are attached to movable frames so suspended in the hives as to touch neither the top, bottom, nor sides ; leaving, between the frames and the hive walls, a space of from one-fourth to three-eighths of an inch, called bee-space. (Fig. 54.) 287. By this device the combs can be removed at pleas- ure, without any cutting, and speedily transferred to an- other hive. Our congenial friend, Prof. A. J. Cook, of the Michigan State Agricultural College, and author of "The Bee-keeper's Guide," says of it: " It is this hive, the greatest Apiarian invention ever made, that has placed American Apiculture in advance of that of all other coun- tries." And no one knows, better than the revisers of this work, that such is the plain truth, as they have watched MOVABLE-FRAME HIVES. 141 the progress of bee-keeping in Europe, through its French, Italian, Swiss, and German bee-papers, for twenty years past. lllllllllllllllllllMK:.),' . ,;/""■ ; .i.'illlip Fig. 54. ORIGINAL LANGSTROTH HIVE. b,b, front and rear of hive; d,d, pieces forming the rabbets for the frames to rest upon; c,c, sides of hive; /, movable cover; u,u,t, movable frame. 288. Mr. Langstroth, however, modestly disclaimed the idea of having attained perfection in his hive. He wrote : "Having carefully studied the nature of the honey-bee, for many years, and compared my observations with those of writ- ers and cultivators who have spent their lives in extending the 142 THE BEE-HIVES. sphere of Apiarian knowledge, I have endeavored to remedy the many difficulties with which bee-culture is beset, by adapting my invention to the actual habits and wants of the insect. I have also tested the merits of this hive by long continued experi- ments, made on a large scale, so that I might not, by deceiving both myself and others, add another to the useless contrivances which have deluded and disgusted a too credulous public. I would, however, utterly repudiate all claims to having devised even a perfect bee-hive. Perfection belongs only to the works of Him, to whose omniscient eye were present all causes and effects, with all their relations, when He spake, and from nothing formed the Universe. For man to stamp the label of perfection upon any work of his own, is to show both his folly and pre- sumption." 289. A short time after the issuing of the Langstroth patent, the Baron Von Berlepsch, of Seebach, Thuringia, invented frames of a somewhat similar character. Carl T. E. Von Siebold, Professor of Zoology and Comparative Anatomy, in the University of Munich, thus speaks of these frames : "As the lateral adhesion of the combs built down from the bars frequently rendered their removal difficult, Berlepsch tried to avoid this inconvenience, in a very ingenious way, by sus- pending in his hives, instead of the bars, small quadrangular frames, the vacuity of which the bees fill up with their comb, by which the removal and suspension of the combs are greatly fa- cilitated, and altogether such a convenient arrangement is given to the Dzierzon-hive, that nothing more remains to be desired." (? ? ?) Mr. Cheshire (2d vol. page 46) was mistaken in attribut- ing to Dzierzon the invention of the frame-hive, for Dzier- zon has not even invented, but only perfected the movable- comb hive (282-283), having always, to this day, been opposed to frames. So the German hive is known as the Berlepsch hive. 290. For years, both of these inventions shared equally the attention of bee-keepers in Europe. Berlepsch' s hive is used principally in Germany, Italy, and part of Switzer- land; Langstroth's in England, France, and the French- MOVABLE-FRAME HIVES. H3 speaking part of Switzerland ; but it is to be noted, that hives made on the principle of the Langstroth invention, are steadily gaining ground wherever both styles are used.* 291. And this is not to be wondered at. The Berlepsch Fig. 55. BERLEPSCH HIVE WITH BACK CUSHION. (From the ' ' Illustrierte Bienenzeitung." hive opens from the rear, like a cupboard. Two stories are used for the brood, and the third for surplus honey. This is sometimes separated from the main apartment by perforated zinc (467), to exclude the queen, or by a board * At the Italian Bee-keepers' Convention, held in Milan, in Septemher 1885, several Apiarists exhihited hives of this style, and yet none could be found in Italy, sixteen years ago. The first Langstroth hive which appeared in Italy was introduced by us, in 1872. 144 THE BEE-HIVES. with a square hole in the center. The frames are sus- pended, in grooves, by the ends of their upper bars, and have to be taken out with pincers. 292. The worst feature of this hive is that, if it is nec- essary to reach the last frame, every one of the others has to be taken out. There are twenty combs in the brood- chamber. It is safe to say, that a hive built on the Lang- stroth principle, can be visited five times more rapidly, than a hive built on the Berlepsch idea. These inconven- iences, coupled with the fact that the brood apartment of the Berlepsch hive is divided into two stories, and that the surplus apartment cannot be enlarged, ad infinitum, make the Berlepsch hive inferior ; and we can safely predict that hives with movable ceiling will, some day, be exclusively used throughout the world. ■G&. Fig. 56. SHOWING SOME OF THE EARLY IMPROVEMENTS OF THE LANGSTROTH HIVE, STILL IN USE IN SOME SECTIONS. 293. The superiority of the Langstroth hive is so evi- dent that we were not surprised to read in the Revue In- ternationale ft Apiculture, Sept. 1885 : Plate 9. M. QUINBY, Author of '* The Mysteries of Bee-Keeping." This writer is mentioned pages 139, 147, 148, 150, 151, 152, 153, 157 168, 189, 363, 471. MOVABLE-FRAME HIVES. 145 " The question of the mobility of the ceiling was discussed at length at the Bee-keepers' Meeting held in Milan, Italy, in September 1885. Mr. Cowan and I were unable to conceal from the Italian bee-keepers our wonder that it was not solved for them, as it has been, for a long time, in the countries of large produc- tion. "We can predict, and without any fear of mistake, that the principles on which the Langstroth hive is based will be ad- mitted sooner or later by the most progressive bee-keepers of the world."— (Ed. Bertrand.) 294. The introduction of the Langstroth hive in Italy, and especially in Germany, has been hindered, so far, by the premature adoption of a standard frame, which " shuts the door to progress." — (Ed. Bertrand.) 295. The success of American bee-culture, in the last twenty years, was first attributed, by European bee-keepers, to the honey-proclucing power of the country ; but the most intelligent Apiarists, who have tried the American methods, with the Langstroth hive, now recognize that success is principally due to the manipulations that it permits. 296. Nay, if the student will but refer to the former re- vision of this very book (1859), the first words of it will show him the progress accomplished since then : ' ' Practical bee-keeping in this country is in a very de- pressed condition, being entirely neglected by the mass of those most favorably situated for its pursuit. Notwithstand- ing the numerous hives which have been introduced, the ravages of the bee-moth have increased, and success is becom- ing more and more precarious. While multitudes have abandoned the pursuit in disgust, many even of the most experienced are beginning to suspect that all the so-called ' Improved Hives ' are delusions or impostures ; and that they must return to the simple box or hollow log, and ' take up ' their bees with sulphur in the old-fashioned way." 297. Mr. Gravenhorst, also a German, invented a mov- able-frame hive made of straw. We give a cut of his hive 10 146 THE BEE-HIVES. and Apiary, not that they have any practical importance for us, but because his system is peculiar. The frames are removed from the bottom, so that, in order to open one of THE GRAVEXHORST HIVE. (From the " Illustrierte Bienenzeitung.") these hives, it requires the strength of a strong man to in- vert it, especially if it is full of honey. The Gravenhorst hive is not intended for ladies. Fig. 58. OLD STANDARD LANGSTROTH FRAME MOVABLE-FRAME HIVES. 147 298. Although the movable frame, hanging in the hive, by projections of the top bar (figs. 54, 58), as invented by Mr. Langstroth, is the style now almost universally adopted, there is a great diversity of opinions as to the proper size and shape of the frames, and the number, which a hive should contain. Hundreds of different sizes are used with success, from Maine to California, and from Canada to Texas. We herewith give a diagram of the principal frames 18# 'quinby" UK 17* 'SIMPLICITY' & 12 'AMERICAN" Fig. 59. DIAGRAM OF PRINCIPAL FRAMES IN USE. Figures given are outside dimensions in inches. Suspended frames have %-inch supporting arms, or an equal prolongation of top bar. in use. The " Simplicity " is almost exactly similar to the original Langstroth frame: so much so, in fact, that they are interchangeable. This style of frame has been manu- factured and sold, by the most prominent dealers, to such an extent, that it may be called the Standard Frame of America. 299. The "Hanging Quinby " is the frame preferred by 148 THE BEE-HIVES. the writers. The " Gallup " frame is used with success by such practical Apiarists as G-. M. Doolittle and O. Clute, author of a charming little novel entitled "The Blessed Bees/' under the nom de plume of "John Allen." The "American" and "Adair" frames are somewhat in use also. The " Closed-End Quinby " (285) is not a hanging frame, but it is nevertheless used by such bee-keepers as Messrs. L. C. Root, Hetherington, Bingham, etc. 300. It is evident that profit can be derived from bee- culture with almost any style of frame ; but it is certain also, that, in every pursuit, some conditions produce better effects than others, under the same circumstances. In Apiculture, as in everything else, we should try to ob- tain the best results with the least labor and expense, and these can only be attained by studying the habits of the bee, and complying with them, as far as is practicable. The combs of the brood-chamber, or main apartment of the hive, are used by the bees to raise their young, and to store their food for Winter. The size of frames must be considered, with reference to this. 301. We have seen (153) that the queen lays her eggs in a circle. In fact, it is necessary that she should do so, in order to lose no time in hunting for cells ; else how could she lay three thousand eggs, or more, per day? Avery shallow frame will break the circle, and compel her to lose time. In a comb five inches deep, for instance, and fifteen or sixteen inches long, the largest circular area contains less than twenty square inches, or five hundred and fifty worker-cells on each side. When these are occupied with eggs, the queen, while hunting for empty cells, will find wood above and below, instead of comb, at every half turn, and will lose not only time, but eggs ; for, in the busy sea- son, her eggs have to drop, like mature fruit, if not laid in the cells. Loss of eggs is loss of bees; loss of bees at the proper time is loss of honey. MOVABLE-FRAME HIVES. 149 302. A two-story shallow brood-chamber is objection- able for the same reason. Besides, the bees which cover the brood and keep it warm, must also keep warm the lower bar of the top frame, the upper bar of the lower frame, and the space between the two, without deriving any benefit from such an arrangement. This division of the brood-combs into two shallow stories, is one of the causes, which prevent the bee-keepers of Germany from raising as many bees, in their hives, as we do here in the ordinary Langstroth hives. This disadvantage was so evident that the bee-keepers of Switzerland, who had adopted, as a standard, the Berlepsch hive (fig. 55), decided to replace the double story by a single one of the same dimension, as the Italian bee-keepers had done before, but for half the hive only. G A DIAGRAMS OF GALLUP AND LANGSTKOTH HIVES. (From the "A. B. C. of Bee- Culture.") A small frame like the Gallup (fig. 59), presents another objection, the cluster being divided among a greater num- ber of frames. "For Winter, it is evident that the sides of the clusters A. B. and C. D. (fig. 60) are better protected than the ends G-. H. and E. F., and also that the long frames protect the center of the brood-nest much better than the short ones." — (A. I. Boot, "A. B. C") Even a cross-bar through a frame (fig. 54) will hinder the laying of the queen, so that brood will often be raised only on one side of it. Any one can easily try this. 150 THE BEE-HIVES. 303. From the foregoing, it appears that a square frame is the best for breeding. But square frames are objection- able. If they are small, they do not have enough space in each frame for Winter supplies, above or behind the brood. If they are large, they are unhandy, and their depth makes them difficult to take out without crushing bees. We have used some sixty hives, American frames, 12 by 12, for eighteen years or more, and this is our greatest objection to them. 304. A deeper frame is still more objectionable for the same reason,* and because the surplus cases on top are too remote from the brood. (278.) In early Spring, the bees have more difficulty in keeping the lower end of such frames warm, as the heat always rises, and a part of it is wasted, warming up the stores, which in this hive are all above the brood. In hot weather, the combs are also more apt to break down from heat and weight combined. Such a hive is deficient in top-surface for the storing of honey in boxes. 305. It is thus evident, that Mr. Langstroth and Mr. Quinbyf were right in using frames of greater length than depth, especially as these frames allow of more surplus room above the brood, a matter of some importance. 306. But we must beware of excess in anything. A * The deeper the frames, the more difficult it is to make them hang true on the rabbets, and the greater the difficulty of handling them without crushing the bees or breaking the combs. t The late Mr. M. Quinby, of St. Johnsville, New York, in calling my attention to some stocks, which he had purchased in box hives of this shape, informed me that bees wintered in them about as well as in tall hives, the bees drawing back among their stores in cold weather, just as in tall hives they draw up among them. My hive, as at first constructed, was fourteen and one- eighth inches from front to rear, eighteen and one-eighth inches from side to side, and nine inches deep, holding twelve frames. After Mr. Quinby called my attention to the wintering of bees in his long box-hives, I constructed one that measured twenty-four inches from front to rear, twelve inches from side to side, and ten inches deep, holding eight frames. I have since preferred to make my hives eighteen and one-eighth inches from front to rear, fourteen and one-eighth inches from side to side, and ten inches deep. Mr. Quinby pre- ferred to make my movable frames longer and deeper.— Ii. L. L. MOVABLE-FRAME HIVES. 151 shallow frame has too little honey above the cluster in Winter, and in long cold Winters, like that of 1884-5, a great many bees die for want of food above them, in hives containing plenty of honey (630), the combs, back of the cluster, being too cold. The Langstroth-Simplicity frame is long enough, but hardly deep enough. The Quinby frame is deep enough, but would be better if a little shorter. 307. We have used on a large scale Quinby, American and Standard Langstroth-sized frames for years, and have obtained better results from the Quinby, both for wintering out of doors, and for honey producing. Yet, the Lang- stroth-Simplicity being the standard frame of America, we would hesitate to advise any Apiarist to change from this size ; knowing, by practical experience, how annoying it is, not to have all frames and all hives in one Apiary uniform in size. But we would counsel beginners to use the Quinby size, — especially if they intend to winter out-of-doors, — or at least to use a frame as long as the standard Langstroth and as deep as the Quinby. 308. The number of frames to be used in a hive depends on their size ; for we should manage our bees, as we do our other domestic animals, and give them as much space as is necessary to obtain the best results. What would we think of a farmer who would build a barn without first consider- ing the number of animals and the amount of feed which he intended to shelter in it ? 309. Many hives cannot hold one-quarter of the bees, comb, and honey which, in a good season, may be found in large ones ; while their owners wonder that they obtain so little profit from their bees. A good swarm of bees, put, in a good season, into a diminutive hive, may be compared to a powerful team of horses harnessed to a baby wagon, or a noble fall of water wasted in turning a petty water-wheel. 152 THE BEE-HIVES. As the harvest of honey is always in proportion to the number of bees in the hive, and as a large colony requires no more labor from the Apiarist than a small one, the hive should afford the queen sufficient space to deposit all the eggs, which she is able to lay* during twenty-one days, the average time for an egg to be transformed into a worker. Besides, it should contain a certain amount of food, honey and pollen. 310. We have seen before (97) that a good queen can lay 3,500 eggs per day in the good season, so that 73,500 cells may be occupied with brood at one time. If we add to this number about 20,000 cells for the provisions needed in the breeding season, we have about 94,000 cells as the number required for a strong colony. As every square inch of comb contains about 55 cells (217), 27 to 28 on each side, the combs of a hive should measure over 1,700 square inches. This space must, of course, allow of contraction, according to the needs of the colony, by what is called mov- able division boards. (349.) 311. If the reader will refer to the dimensions of frames given (298), he will ascertain that as a Quinby frame measures 189 square inches inside, a hive should contain at least 9 of these frames. As the Standard Langstroth-Simplicity frame measures about 149 square inches, the hive must contain 12 frames. The American frames must number 13, and the Gallup 14. 312. We know that many Apiarists objectf to these fig- ures, because they succeed, and harvest good crops, with * It is un questionable that the quality of a queen depends on the quantity of eggs that she is able to lay. Then why limit her, by using hives so narrow that she cannot develop her fertility? t It is perhaps necessary to say here, that we have found more opposition on this subject than on any other, especially in the bee-papers. But we take this opportunity of again energetically asserting that our preference for large hives is based on a successful practice of more than twenty years, with several hun- dred colonies in different sized hives, while our opponents could bring forward nothing but their preconceived ideas. AN APIARY 1 Plate 10. GERMANY. MOVABLE-FRAME HIVES. 153 smaller hives. But figures, based on facts, cannot lie. Smaller hives will do only in localities, where late Springs and short honey crops make it impossible for the queen to lay to the utmost of her capacity, before the time when her bees would be useful. 813. It is only by testing different sizes of hives and frames side by side, for years, on a large scale, and with the same management, as we have done, that the compari- son can be made serviceable. Our experiments prove also that small frames impede the laying of the queen. The brood- chamber of a large hive can easily be reduced in size, if need be; but a small hive cannot be enlarged at will, ex- cept by the addition of upper stories, which should properly be devoted to the storing of honey. 314. In addition to the disadvantages of small frames and small hives already enumerated, another — and the greatest of all — is the excess of natural swarming which they cause. The leading advocates of small hives, some of whom are large honey producers, invariably acknowledge that they have too much natural swarming; nor is it to be wondered at, since swarming is mainly caused by the lack of breeding room for the queen. (406.) 315. The main criterion of a good farmer, is the care that he takes to improve his stock, by selecting the best an- imals as reproducers. If we use hives so narrow that we cannot discern which are our most prolific queens, and that they incite natural swarming, we are unable to improve our bees by selection. (452, 511.) 316. The distance, between frames from center to center, can be varied, as we have seen before (214), from If inches to 1£, in the breeding apartment, of which we are now treating. In the surplus cases, it may be made much greater. 317. The distance of 1| inches, advised by Mr. Quinby, is preferable two for reasons : 154 THE BEE— HIYES. 1st, It facilitates the taking out of the combs, giving a little more room to handle them, and thus aids in inter- changing combs, which may have slight irregularities ; when such changes are necessary to help weak colonies with brood or honey from stronger ones. 2nd, It gives more room between brood-combs for the bees to cluster in Winter, and a greater thickness of honey above them, thereby placing the bees in better condition for Winter. 318. The frames must be properly distanced in the hive, and the combs must be built straight in them ; for a mov- able-frame hive, with crooked combs, is worse than a hive without any frames. 319. The building of straight combs in the frames was formerly tolerably secured by the use of a triangular wooden guide fastened to the underside of the top bar of the frame, and which the bees follow in most instances. Something of this kind was mentioned by Delia Rocca as early as 1790. (" Traite Complet sur les Abeilles.") Fig. 61. The figure 61 shows the form of a metallic stamp, invented by Mr. Mehring, of Bavaria, Germany, for print- ing or stamping the shape of the combs upon the under side of the top bar of the frames. After the outlines were made he rubbed melted wax over them, and scraped off all that did not sink into the depressions. Mr. Mehring rep- resented this device as enabling him to dispense with guide combs, the bees appearing to be delighted to have their work thus accurately sketched out for them.* In practice it * This invention should not be confused with that of comb-foundation, made a few years later by the same distinguished Apiarist . (677) MOVABLE-FRAME HIVES. 155 was found to be inferior to the triangular comb guides. Pieces of worker-comb, glued to the under side of the top bar with melted wax, were used successfully. But the introduction of comb-foundation (674) has finally given us the means of securing straight combs at all times, and it may be used, for this purpose, in such narrow strips, that its cost cannot be an objection. 320. Standard L. Movable Frame. — Top bar, 19 J long x i wide x f thick. In each end a notch -^-Xl^e- is made in the thickness of it, leaving a projecting or support- ing shoulder which is to rest in a rabbet in the upper ends of the hive, and by which the frame is suspended (fig. 54). Ends or vertical pieces : two pieces 8| long X i wide X -f$ thick. Bottom bar 16 1 long x I wide X I. We will call the attention of manufacturers to the fact, that this makes a much stronger frame than the former style, given in pre- vious editions, and preserves the exact outside measure- ments. The ends, or vertical pieces, are nailed both ways to the top bar (fig. 71), and the bottom bar is nailed inside of them, instead of under them as formerly. 321. We must not forget that these bottom bars some- times have to support the weight of heavy combs, as in transferring (574), and that the bees may glue them fast to lumps, which happen to be on the bottom board. Hence the necessity of having them nailed, so that they will not pull out.* All the parts of the movable frames should be cut out by circular saws, and the measurement should be exact, so that the frames when nailed together may be square. If they are not strong and perfectly square, the proper working of the hive will be greatly interfered with. 322. The under side of the top bar may be cut to a tri- * As a rule, manufacturers make the top bar of the frames too weak; some have remedied this by excessive wiring, and a tin brace in the center. Such contrivances are costly and worse than useless . 156 THE BEE-HIVES. angular edge, but where comb foundation is used, the flat top bar will be found much better (693). Above all, the outside measurements of the frame must be carefully pre- served. 323. The width of the top bar has something to do with the amount of bridges and brace combs (397), built by the bees, between the brood-chamber and the upper stories. A wide top bar, leaving but a narrow space for passage above, will almost altogether prevent the building of bridges, but it has other disadvantages that have rendered it unpop- ular, although some bee-keepers of note — Col. Camm of Illinois, among others — use it. In producing extracted honey (749) these bridges and brace combs do not annoy much. 324. L. Simplicity Frame (fig. 59). — This frame has been made and sold so largely by A. I. Root, and other dealers, that it is established now. The length of the top bar and the height of the frame are the same as those of the Standard L. Frame, the frame itself being one-fourth inch longer outside. They are sometimes made with metal cor- ners invented by A. I. Root (fig. 62). Fig. 62. METAL CORNER AND ITS POSITION IN THE HIVE. The engraving is full size. The % board B is supposed to he the end of the hive. A is a section of the metal rabbet, and C is the corner. E is the space between the hive and the frame ; F is the beveled edge to receive the upper story.— ("A. B. C. of Bee-Culture.") 325. These tin corners have the advantage of making the frames very strong ; and as the tin shoulder rests by a MOVABLE-FRAME HIVES. 157 "knife edge," C, on another tin edge, at right angles with it, A., nailed in the rabbet of the hive, the bees cannot glue the frames fast. But these frames have the dis- advantage of getting out of place easily, too easily in fact, and their sharp edges make them very inconvenient to handle. 326. For the L. Quinby suspended frame, see diagram (fig. 68). This frame is one-fourth inch deeper than that originally given by Mr. Quinby in his ' ' Mysteries of Bee- keeping." Mr. Quinby had too much space in the hive, under the frame. 327. It is necessary that the hive should always slant forward, toward the entrance, when occupied by bees, to facilitate the carrying out of dead bees, and other useless substances ; to aid the colony in protecting itself against robbers, to carry off moisture, and prevent rain from beat- ing into the hive. 328. For this, and other reasons, the combs should run from front to rear, — so as to hang perpendicularly — and not from side to side as they do in the Berlepsch hive. 329. The Langstroth hive, from the simple form given in fig. 54, was im- proved upon in many dif- ferent ways. The Standard Langstroth hive has been, for a long time (fig. 63), a hive with portico, honey-board, permanent bottom-board, and ten frames. 330. In this hive, the " observing-glass" in the rear, 158 THE BEE— HIVES. was first discarded, and replaced by a board, making the hive more simple and cheaper. The glass in the rear is of no use, in practical bee-keeping, and for experimenting, the observing hives such as described (375), with only one comb, and both sides of glass, are to be preferred (fig. 80). 331. The movable honey-board, between the brood- chamber and the upper stories, has been also discarded of late years, the great objection to honey-boards being that the bees glue them, and build small pieces of comb or bridges, in the space between them and the frames ; the jar of their breaking, when the honey-board is removed, anger- ing the bees. 332. The permanent bottom-board has lost favor with the great majority of bee-keepers, and is now replaced by mov- able bottom-boards adjustable at will. The Van Deusen hive- clamp (fig. 64), is used by many Apiarists for fastening movable bottoms or additional stories. We have discarded the permanent bottom-board, owing to the difficulty of prompt- ly cleaning it of dead bees and rubbish, when removing bees from the cellar in Spring, or after a hard winter passed out of doors. 333. In the ventilation of the hive, we should endeavor, as far as possible, to meet the necessities of the bees, under all the varying circumstances to which they are exposed in our uncertain climate, whose severe extremes of temperature forcibly impress upon the bee-keeper, the maxim of Virgil, " Utraque vis pariter apibus metuenda." " Extremes of heat or cold, alike are hurtful to the bees." To be useful to the majority of bee-keepers, artificial ventilation must be simple, and not as in Nutt's hive, and Fig. 64. VAN DEUSEX CLAMP. MOVABLE-FRAME HIVES. 159 other labored contrivances, so complicated as to require almost as close supervision as a hot-bed or green-house. Fig. 65. HIVE, WITH EXTRACTING SUPERS SET BACK FOR VENTILATION IN VERY HOT WEATHER. The cap is thrown back to show the straw mat. 334. With an independent bottom-board, ventilation can 160 fHE BEE-H1VBS. be given to any amount by raising the hive, as in fig. 65, or even more. By furnishing ventilation independent of the entrance, above the brood-chamber, or between the differ- ent surplus apartments, if necessary, we improve upon the method which bees, in a state of nature, are compelled to adopt, when the openings in their hollow trees are so small, that they must employ, in hot weather, a larger force in ven- tilation, than would otherwise be necessary. 335. The bees, finding their home more pleasant, will cease to cluster on the outside, as long as there will be honey to gather, and room to store it in. 336. On the other hand, by the use of movable blocks, the entrance may be kept so small, in cool weather, that only a single bee can go in at once, or it may be entirely closed. While sufficient airing must be given, the supply should be controlled, so as not to injure the brood by ad- mitting too strong a current of chilly air. In the chapter on wintering bees, directions are given for ventilating the hives in cold weather, so as to carry off all superfluous moisture. (636.) 337. For the benefit of beginners, it may be necessary to add, that the bees will glue up with propolis (236), and sooner or later entirely close any ventilating holes through which they cannot pass Hence air holes, covered with wire cloth, miss their purpose altogether. In the same manner, and with a great deal of labor, bees will try to close any upper entrances, such as that of figs. 65 and 54d, if these remain open, when not needed for the welfare of the colony. 338. The portico of the Langstroth hive has advantages, and disadvantages, which about balance one another. Its advantages are, that it shelters the bees from rain in Sum- mer, and from cold and snow in Winter. Its disadvantages are, that it sometimes harbors enemies of bees, moths, spi- MOVABLE-FRAME HIVES. 161 ders, etc., etc., and sometimes helps to hide the queen from the Apiarist's diligent search. It hinders the bee-keeper when he wants to watch closely the sport of bees before the entrance. DOUBLE-STORY LANGSTROTH " SIMPLICITY, ' WITH PORTICO 339. When the portico-hive is used, two entrance blocks are provided, as per accompanying diagram. By changing fc v, Fig. 67. ENTRANCE BLOCKS. a, hive closed; b, c, d, e,f, gradually enlarged openings. 11 162 THE BEE-HIVES. the position of these blocks on the alighting-board (see fig. 67, in which some of the positions are shown), the size of the entrance to the hive may be varied in a great many ways, and the bees always directed to it by the shape of the block, without any loss of time in searching for it. The Hive We Prefer. 340. The diagram we give (fig. 68), of the hive we pre- fer to all others, can be taken as a pattern for any other size, by changing the size of the pieces and retaining only the exact distances between the frames and the body, and the height of the entrance. Its details can be varied ad infinitum. It can hold eleven frames, but generally we use only nine frames and two contracting, or division-boards, or ten frames and one division-board. (349.) This hive, in the dimensions given, is not a new, untried pattern. We have used several hundreds of them for years, with the best of success. It is used extensively by several large producers. 341. In consequence of our writings in the Swiss and French bee-papers, it was adopted, under the name of the Quinby-Dadant hive, by several progressive bee-keepers on the other side of the Atlantic, where it gets new partisans every year. The publisher of the Revue Internationale d' Apiculture, Mr. Ed. Bertrand, in the number of October 1887, writes : "These wide hives, several bee-keepers find that they are too small ; for some have increased them to thirteen frames in- stead of eleven, and I have seen such large hives, last Summer, filled with bees and honey, besides two upper stories of thirteen half-frames each, the whole containing 120 quarts, all occupied by the daughters of the same queen." In the same number, a German bee-keeper, Mr. Chas. MOVABLE-FRAME HIVES. 163 Regnier, of Sarrelouis, gives the result of a comparison of the Standard German (289) with these hives. He Fig. 68. DIAGRAM OF OUR HIVE. A A , cross-pieces to support the bottom, 18x2x4. B, bottom, 25xl7Kx%. C, apron, 10xl7>£x%. DD, front and rear of the hive, 16^xl2J4x%. E, entrance, 8x%. F, double board nailed at the rear, 17Kxl3x%. GG, square slats to support the cover. H, lath, }£xl% to widen the top edge of the front board. /, top bar of the frame, 20Mx%x%. JJJJ, rabbets X wide x% high, dug in front and rear boards, and famished with sheets of iron % inches wide, projecting % of an inch, on which the frame-shoulders are supported. If the grooves are not provided with the sheets of iron, their size should be )$x% . KKKK, show how the uprights NN of the frames are nailed to the top bar. M, bottom bar of the frame, 17%x}£x%. NN, sides of the Irame, ll^x5-16x% . PP, front and rear of the cap, 18>£x9x% . RR, front and rear of the surplus-box, 16>£x6%x%. T, empty space on top of the surplus-box, 1%. U, top bar of the surplus-frame, same as top-bar I. V, bottom bar of the surplus frames, same as M. YY, sides of the surplus frames, 6xMx%. The space between M and B is about K inch; between DN, ND, VI, RY, YR, should be % of an inch. Hives of every size can be constructed on this diagram, with the only caution to preserve the spaces of the width indicated. 164 THE BEE-HIVES. writes that the crop of his German averaged about twenty- one pounds, while his Dadant hives averaged about forty- eight pounds, adding that, at the start, his German were full of combs, while the Dadant had several combs to build. (Fig. 69.) a, front of the hive; b, slanting board; c, movable block; d, cap; c, straw mat; /, enamel cloth; g, frames with combs. 342. Its movable bottom board (fig. 69), is adjusted or encased in the body of the main hive, on all sides but the front, to shed the rain and better protect the colon}- against ants and moths. It projects forward three inches, at least, MOVABLE-FRAME HIVES. 165 to support an adjustable entrance-block. Some Apiarists use a tin slide, instead of an entrance-block. We object to it, because, if glued by bees it may be bent in handling, and if it is mislaid, it cannot always be promptly replaced ; while any square wooden-block can take the place of the entrance-block, if necessary. Fig. 70. HIVE, SETTING FLAT ON THE BOTTOM. 343. The apron, or slanting-board, helps overladen workers to reach the entrance, when they have fallen to the ground. The blocks that support the bottom, may be made of unequal height, so as to give the hive the proper forward slant, on level ground. If the grain of the lumber in the bottom-board runs from front to rear, it will shed water 166 THE BEE-HIVES. more readily, and rot less. If the bottom is nailed on the cross-blocks, it will not be in danger of warping. Our Swiss friends make the bottom-board with the grain running from side to side. They say that in this way they can make it fit exactly in the lower rabbet of the hive, without swelling or shrinking. They also make the apron, with hinges fastened on the bottom-board, and in snowy or cold weather, they raise it and lean it against the hive, to protect the entrance. 344. The adjustable bottom board is convenient in many instances. If in taking the bees from a winter repositor}^, it is found wet and mould}' - , you can at once exchange it for a dry one, and wipe the wet board at leisure. Or, if a comb breaks down in Summer, by weight and heat, the hive can be lifted off its bottom, and placed on a clean stand, so that the leaking honey and broken combs can be instantly removed, and robbing or daubing of bees avoided. Moreover, the bottom-board is the first part of the hive to decay, and a hive-body and cover will usually outlast two bottom-boards. The movable bottom allowing the raising of the hive for ventilation, in extremely hot weather, en- ables us also to discard the back ventilator, of the old hive (fig. 63.) 345. The body of the hive is made double on the back, which should always be the North side of the hive. (567.) This, with the division-board inside, on the West, shelters the colony more efficiently than a single board against the cold North- West winds of Winter. If the bees are to be wintered indoors, the double back may be dispensed with. A more simple form of body, setting flat on the bottom, as in fig. 70, can Fig. 7i. also be made. The rabbet in which the frames hang, is made with a MOVABLE-FRAME HIVES. 167 ' ( fi g- 71 )> sheet-iron shoulder, supporting the frame, similar to Root's tin edge. This can be dispensed with altogether, but in such cases, the rabbet should be only deep enough for the frame to hang as represented in fig. 54. The plain Fig. 72. SHOWING HOW THE SPACING WIRE IS FIXED. wooden rabbet is objectionable, because the bees glue the frame shoulders with propolis. Yet we use it in our hives almost altogether, because of the difficulty of fitting the division-board closely otherwise. 168 THE BEE-HIVES. 346. In any style of hanging-frame hives, it is indispen- sable for the frames to be so suspended, that a bee can pass between them and the body, bottom, and upper story, to prevent the gluing of them with propolis. (See bee-space, 286.) In our hives, we give only one-eighth of an inch of space, above the frames, below the top edge of the hive, ancf give one-fourth inch under the frames of the upper-story, which preserves the three-eighths bee-space, between each story (286). We found, in practice, that there was danger of crushing bees, in handling the upper stories, when they were made so that the frames were flush with their lower edge. (Fig. 73.) SHOWING THE TOOL USED TO BEND THE WIRE BRACES. 347. The Spaci7ig-ivire, an improvement on Quinby's wire brace, to space the frames at the bottom, is found very convenient in hives as deep as this. It is also useful in in- dicating to novices the number of frames to be placed in Fig. 74. SHOWING HOW THE WIRE IS REMOVED. MOVABLE-FRAME HIVES. 169 the hive. Even a practical bee-keeper will sometimes make the mistake of putting eleven or thirteen frames, in a hive that should hold twelve. With this wire, mistakes are im- possible, as they will at once be detected. Besides, if the hive has to be transported some distance, it keeps the frames from jarring. Its cost is insignificant. Some Swiss Apiarists use two of these, one in each end. 348. The entrance should not be less than five-sixteenths, or more than three-eighths of an inch in depth, in order to give easy passage to the bees, and at the same time, keep out mice. Round holes are objectionable. Each hive is furnished with an entrance-block, somewhat heavy, and cut as in fig 69, to reduce, or close the entrance, according to the emergencies. 349. The division board, also called contractor or dummy, is an indispensable feature of all good hives. With its help, the hive may be ad- justed to the size of the weakest swarm, and in Winter, the Fi °- 75 - space behind it can DIVISIOX BOARD. , „-.. , ... be filled with warm and absorbing material (636). The constant use of a division board, even in the strongest colonies, renders the handling of combs much easier. All Apiarists know that the first comb is the hardest to remove. By removing the board first, the combs are at once free and can be easily taken out. 350. This board is made of the same depth as the- frames, with a similar top-bar. Some Apiarists use a di- vision-board the full depth of the hive, but in moving it, bees are crushed under it, and if any bees happen to be on the outside of it, they cannot escape, and die there. On 170 THE BEE-HIVES. the other hand, this bee-passage is not objectionable, since heat, having a tendency to rise, does not escape through it. The board is made one-fourth inch shorter than the inside of the hive, and a strip of oil- cloth or enamel cloth, one and a half inches wide, is tacked on, to fill the spaces at each end. In this way, the board fits well against the ends, and is never glued so as to make it difficult to remove. A small half-round pine-strip, laid against the end of the board, while tacking on the cloth, and pulled out afterwards, helps to tack the cloth properly. To prevent the bees from tear- ing or gnawing the edge of the cloth, some Apiarists nail a small strip of tin over it. 351. In the diagram (fig. 68), the reader will notice the strip H, used to widen the upper surface of the rabbeted end of the hive. This wide surface is very convenient, to make the cloth and straw-mat fit closely, as they can thus be cut a little longer. 352. The oil-cloth or enamel-cloth, first applied to hive purposes by R. Bickford, is used over the brood-frames in Spring. It fits closely, concentrates the heat, and can be removed without jar or effort. When the sur- plus arrangement, or upper story, is put on, this cloth is removed and placed at the top. (759) All Apiarists, Fig - 76 - or nearly all, who have heddon's skeleton honey-board. ..-.,, ., , ,, , tried the oil- cloth and honey-board simultaneously, have discarded the latter for- ever, except in some cases of comb-honey production, when a skeleton honey-board (fig. 76) is used between the stories. The oil-cloth is sometimes gnawed, or rather pulled to pieces by the bees in a few years, but its cost is so small, and its use so great, that it is worth while to replace it as often as necessary. MOVABLE-FRAME HIVES. 171 Fig. 77. FRAME TO MAKE STRAW MATS. 353. The straw-mat is one of the most useful and neces- sary implements of the bee-hive. It is far superior to the wooden-mat described by one or two writers. It is flexible and porous, warm in Winter, cool in Summer. It may be made of rye straw, or of what is called slough-grass, a tough and coarse grass growing in marshy places, and abounding on the bottoms of the Mississippi Valley. The mat shown in fig. 69 is only about one inch thick. Mr. C. F. Muth man- ufactures mats much thicker and stronger ; they are equal to a cushion. In fig. 77 we present to our readers an engraving of a frame, for making these mats. They are very simple in construction. It is well, in making them, to use strong twine, soaked in linseed-oil ; for the moisture, which escapes from the bees in Winter, would soon rot the string. The enamel-cloth is removed before Winter (635), and the mat placed immediately over the frames. A good mat will last as long as the hive. 172 THE BEE-IIIVES. Fig. 78. blanton's two-story hive. 354. The upper story or cover may be a half-story cap, in one piece (fig. 65), or in two pieces (fig. 70), or, if only full stories are used for surplus, it may be a shallow cover (fig. 78) , which will fit over either the first or the second story. We prefer the half -story cap, which can be readily filled with absorbents for Winter, and is adapted to any style of supers.* 355. The caps must fit freely so as to be easily removed. They may be made of lighter lumber than the body of the hive, to save fatigue to the Apiarist in handling them. The top of the hive must be water-tight. Cracks, knots and seams should be avoided, or should be thoroughly painted with roof-cement. Before putting together the boards which form the top of the cap of our hives, we make, along both sides of the joints, a rounded groove, three-eighths of an inch wide and one-fourth of an inch deep, in which the rain-water runs, instead of leaking inside. Mr. McCord of Oxford, O., makes the covers of his hives water-tight, by covering them with strong muslin, tacked on with a strip nailed to the edges, and thoroughly painted. Mr. G. M. Doolittle of Borodino, N. Y., and Dr. C. C. Miller, of Ma- rengo, 111., both among the leading bee-writers and success- ful producers of honey, use tin, painted white, on the tops of their hives. The Swiss and French bee-keepers do the same. 356. The hives should always be painted, not only to make them last, but to give them a neat appearance. No * This term is used by Apiarists to designate any Tipper box placed over the main lower hive. MOVABLE-FRAME HIVES. 173 dark colors should be used, as they absorb the sun's heat, nor should all the hives be of the same tint (503). If the joints are painted when they are put together, they will last much longer. Every old Apiarist well knows that the joints are the first to decay. 357. Each hive, in an Apiary, should bear a number, on the back of the brood apartment ; and this should be printed in black characters, large enough to be seen at a distance. In small Apiaries bee-keepers use a slate, on each hive ; but in large ones, where many operations are performed, it is better to keep a record of the condition of the colonies, and of all the operations, in a special book. We will add, that a hive which does not furnish a thor- ough control over every comb cannot allow of the manipu- lations which the bee-keeper's necessities demand. Of such hives, the best are those which best unite cheapness and simplicity, with protection in Winter, and ready access to the spare honey-boxes. 358. In closing this chapter on hives, we caunot refrain from advising the beginners in bee-culture to be very cau- tious in buying patent hives. More than eight hundred patents on bee-hives and implements have been issued in the United States since January, 1873. Not ten of these have proved to be of any use to bee-keepers. The mention of this fact will suffice to show the small value of these 790 patents, and the loss incurred by those who have bought them, before they were able to judge of their merits. Materials for Bee-hives. 359. The variety of opinions respecting the best mate- rials for hives, has been almost as great as on the subject of their proper size and shape. Columella* and Virgil rec- * Columella, about the middle of the first century of the Christian Era, WTote twelve books on husbandry — ' 'Z)e re rustica." 174 THE BEE-HTVES. ominend the hollowed trunk of the cork tree, than which no material would be more admirable if it could only be cheaply procured. Straw hives have been used for ages, and are warm in Winter and cool in Summer. The difficulty of making them take and retain the proper shape for improved bee-keeping, is an objection to their use. Hives made of wood are, at the present time, fast superseding all others. The lighter and more spongy the wood, the poorer will be its power of conducting heat, and the warmer the hive in Winter and the cooler in Summer. Cedar, bass-wood, poplar, tulip-tree, and especially soft pine, afford excellent materials for bee-hives. The Apiarist must be governed, in his choice of lumber, by the cheapness with which any suitable kind can be obtained in his own immediate vicin- ity. Scholz, a German Apiarist, recommends hives made of adobe — in which frames or slats may be used — as cheaply constructed, and admirable for Summer and Winter. Such structures, however, cannot be moved. But in many parts of our country, where both lumber and saw-mills are scarce, and where people are accustomed to build adobe houses, they might prove desirable. The material is plastic clay, mixed with cut straw, waste tow, etc. 360. To make the movable-frame hives to the best advantage, the lumber should be cut out by a circular saw, driven by steam, water, or horse-power, or even by foot- power. We have used the foot and hand circular-saws made by W. F. & J. Barnes, for years, and could not do without them in our shops. In buildings where such saws are used, the frames may be made from the small pieces of lumber, seldom of any use, except for fuel, and may be packed almost solid in a box, or in a hive which will afterwards serve for a pattern. One frame in such a box, properly nailed together, will serve as a guide for the rest. The parts of the hive can easily and cheaply be made MATERIALS FOR BEE-HIVES. 175 by any one who can handle tools, but cannot be profitably manufactured to be sent far, unless made where lumber is cheap, and the parts closely packed, — in the flat, — to be put together after reaching their destination. 361. If the Apiarist desires minute instructions, on how to file his saws and keep them in order, select his lumber, and make his hives, with pleasure and profit, let him send to A. I. Root, of Medina, Ohio, for his "A. B. C, of Bee- Culture." He will be repaid a hundred-fold, by the many good points he will find in it. 362. We here cite, with illustration, his explanation of " why boards warp" : Frji^gZ Fig. 79. " Before going further, you are to sort the boards so as to have the heart side of the lumber come on the outside of the hive. If you look at the end of each board, you can see by the circles of growth, which is the heart side, as is shown in the cuts. At B, you see a board cut off just at one side of the heart of the tree ; at C, near the bark; at A, the heart is in the centre of the board. You all know, almost without being told, that boards always warp like C ; that is, the heart side becomes convex. The reason is connected with the shrinkage of boards in seasoning. When a log lies until it is perfectly seasoned, it often checks as in fig. 2. You will observe that the wood shortens in the direction of the circles, and but very little, if any, along the lines that run from the bark to the centre. To allow this shrinkage in one direction, the log splits or checks in the direction shown. JSTow to go back to our boards, you will see that B shrinks more than A, because A has the heart of the tree in its' centre ; that C will shrink, in seasoning, much more on the bark side, than on the 176 THE BEE-HIVES. heart side ; that this cannot fail to bring the board out of a level; and that the heart side will always be convex. You have all seen bee-hives, probably, with the corners separated and gaping open, while the middle of the board was tight up in place. The reason was that the mechanic had put the boards on, wrong side out. If the heart side had been outward, the corners of the hive would have curled inwardly, and if the middle had been nailed securely, the whole hive would have been likely to have close, tight joints, even if exposed to the sun, wind, and rain." — ("A. B. C. of Bee-Culture," page 103.) 363. Double-walled hives, chaff hives, and Winter cov- ers, will be described in the chapter on "Wintering" (619). The upper-stories, half-stories, wide frames, sections, etc., for comb, or extracted honey, will be discussed in the chap- ter on honey producing (716). Ventilation of the Bee-Hive. 364. If a populous colony is examined on a warm da} r , a number of bees may be seen standing upon the alighting- board, with their heads turned towards the entrance of the hive, their abdomens slightly elevated, and their wings in such rapid motion, that they are almost as indistinct as the spokes of a wheel, in swift rotation on its axis. A brisk current of air may be felt proceeding from the hive ; and if a small piece of down be suspended at its entrance, by a thread, it will be drawn out from one part, and drawn in at another. Why are these bees so deeply absorbed in their fanning occupation, that they pay no attention to the busy numbers constantly crowding in and out of the hive ? and what is the meaning of this double current of air? To Huber, we owe the satisfactory explanation of these curious phe- nomena. The bees, thus singularly plying their rapid wings, are ventilating the hive ; and this double current is caused by pure air rushing in, to supply the place of the foul air which Plate 11. A. I, ROOT ("Novice"), Author of "The A. B. C. of Bee Culture;" Editor of "Gleanings in Bee Culture." This writer is mentioned, pages 61, 62, 92, 93, 95, 149, 156, 167, 175, 176, 272, 285, 288, 307, 312, 314, 315, 319, 320, 342, 368, 370, 422, 429, 438, 485, 486. VENTILATION OF THE BEE-HIVE. 177 is forced out. By a series of beautiful experiments, Huber ascertained that the air of a crowded hive is almost as pure as the surrounding atmosphere. Now, as the entrance to such a hive is often very small, the air within cannot be renewed, without resort to artificial means. If a lamp is put into a close vessel, with only one small orifice, it will soon exhaust the oxygen, and cease to burn. If another small orifice is made, the same result will follow ; but if a current of air is by some device drawn out from one open- ing, an equal current will force its way into the other, and the lamp will burn until the oil is exhausted. 365. It is on this principle of maintaining a double cur- rent by artificial means, that bees ventilate their crowded habitations. A file of ventilating bees stands inside and outside of the hive, each with head turned to its entrance, and while, by the rapid fanning of their " many twinkling" wings, a brisk current of air is blown out of the hive, an equal current is drawn in. As this important office demands unusual physical exertion, the exhausted laborers are, from time to time, relieved by fresh detachments. If the interior of the hive permits inspection, many ventilators will be found scattered through it, in very hot weather, all busily engaged in their laborious employment. If its entrance is contracted, speedy accessions will be made to their num- bers, both inside and outside of the hive ; and if it is closed entirely, the heat and impurity quickly increasing, the whole colony will attempt to renew the air by rapidly vi- brating their wings, and in a short time, if unrelieved, will die of suffocation. 366. Careful experiments show that pure air is neces- sary not only for the respiration of the mature bees, but for hatching the eggs, and developing the larvae ; a fine netting of air-vessels enveloping the eggs, and the cells of the larvse being closed with a covering filied with air-holes (168). In Winter, if bees are kept in a dark place, which is 12 178 THE BEE-HIVES. neither too warm nor too cold, they are almost dormant, and require very little air ; but even under such circum- stances, they cannot live entirely without it ; and if they are excited by atmospheric changes, or in any way disturbed, a loud humming may be heard in the interior of their hives, and they need almost as much air as in warm weather. (621.) 367. If bees are greatly disturbed, it will be unsafe, es- pecially in warm weather, to confine them, unless they have a very free admission of air ; and even then, unless it is ad- mitted above, as well as below the mass of bees, the venti- lators may become clogged with dead bees, and the colony perish. Bees under close confinement become excessively heated, and their combs are often melted ; if dampness is added to the injurious influence of bad air, they become diseased ; and large numbers, if not the whole colony, may perish from diarrhoea. Is it not under precisely such cir- cumstances that cholera and dysentery prove most fatal to human beings? the filthy, damp, and unventilated abodes of the abject poor, becoming perfect lazar-houses to their wretched inmates. 368. We have several times examined the bees of new swarms which were brought to our Apiary, so closely con- fined, that they had died of suffocation. In each instance, their bodies were distended with a yellow and noisome sub- stance, as though they had perished from diarrhoea. A few were still alive, and although the colony had been shut up only a few hours, the bodies of both the living and the dead were filled with this same disgusting fluid, instead of the honey they had when they swarmed. In a medical point of view, these facts are highly inter- esting ; showing as they do, under what circumstances, and how speedily, diseases may be produced resembling dysen- tery or cholera. 369. In very hot weather, if thin hives are exposed to VENTILATION OF THE BEE-HIVE. 179 the sun's direct rays, the bees are excessively annoyed by the intense heat, and have recourse to the most powerful ventilation, not merely to keep the air of the hive pure, but to lower its temperature. Bees, in such weather, often leave, almost in a body, the interior of the hive, and cluster on the outside, not merely to escape the close heat within, but to guard their combs against the danger of being melted. 370. Few novices have an adequate idea of the danger to heavily laden combs from heat, especially if the cluster of bees, outside, happens to obstruct the entrance, by hang- ing in front of it. In the Summer of 1877, we have seen whole rows of hives, which were exposed to the sun's rays, in a large Apiary, "melt down" almost simultaneously, — causing a loss of hundreds of dollars, — for lack of sufficient ventilation, owing to the clustering of the bees in front of the entrance. 371. After one comb breaks down, the leaking honey spreads over the bottom board, runs out of the entrance, daubs the bees, and prevents further ventilation ; then the rest of the combs fall pell-mell on one another, crushing the brood, the queen, and the remaining bees. It is utter de- struction. 372. In very hot weather, the bees are specially careful not to cluster on new combs containing sealed honey, which, from not being lined with cocoons, and from the extra amount of wax used for their covers, melt more readily than the breeding-cells. Apiarists have noticed that bees often leave their honey- cells almost bare, as soon as they are sealed ; but it seems to have escaped their observation, that this is absolutely necessary in very hot weather. In cool weather, they may frequently be found clustered among the sealed honey-combs, because there is then no danger of their melting. Few things are so well fitted to impress the mind with 180 THE BEE-HIVES. their admirable sagacity, as the truly scientific device by which they ventilate their dwellings. In this important mat- ter, the bee is immensely in advance of the great mass of those who are called rational beings. It has, to be sure, no ability to decide, from an elaborate analysis of the chem- ical constituents of the atmosphere, how large a proportion of oxygen is essential to the support of life, and how rapidly the process of breathing converts it into a deadly poison. It cannot, like Liebig, demonstrate that God, by setting the animal and the vegetable w r orld, the one over against the other, has provided that the atmosphere shall, through all ages, be as pure as when it first came from His creating hand. But shame upon us ! that with all our boasted intel- ligence, most of us live as though pure air was of little or no importance ; while the bee ventilates with a philosophical precision that should put to the blush our criminal neglect. 373. It is said that ventilation cannot, in one case, be had without cost. Can it then be had for nothing, by the indus- trious bees? Those ranks of bees, so indefatigably plying their busy wings, are not engaged in idle amusement ; nor might they, as some shallow utilitarian may imagine, be better employed in gathering honey, or superintending some other department in the economy of the hive. At great ex- pense of time and labor, they are supplying the rest of the colony with the pure air so conducive to their health and prosperity. What a difference between them and some human beings, who, " if they lived in a glass bottle, would insist on keeping the cork in! " Impure air, one would think, is bad enough ; but all its inherent vileness is stimulated to still greater activity by air- tight, or rather lung-tight stoves, which can economize fuel only by squandering health and endangering life. Not only our private houses, bat all our places of public assemblage, are either unimproved with any means of ventilation, or to VENTILATION OF THE BEE-HIVE. 181 a great extent, supplied with those so deficient, that they only "Keep the word of promise to our ear, To break it to our hope." Men may, to a certain extent, resist the injurious influences of foul air ; as their employments usually compel them to live more out of doors : but alas, alas ! for the poor women ! In the very land where they are treated with such merited de- ference and respect, often no provision is made to furnish them with that first element of health, cheerfulness, and beauty, heaven's pure, fresh air. Observing Hives. 374. For nearly a century, hives have been in use con- taining only one comb, inclosed on both sides by glass. These hives are darkened by shutters, and, when opened, the queen is as much exposed to observation as the other bees. Mr. Langstroth has discovered that, with proper precau- tions, colonies can be made to work in observing-hives, even when exposed continually to the full light of day ; so that observations may be made at all times, without interrupting by any sudden admission of light, the ordinary operations of the bees. In such hives, many intelligent persons from various States in the Union have seen the queen-bee depos- iting her eggs in the cells, while surrounded by an affection- ate circle of her devoted children. They have also witnessed with astonishment and delight, all the mysterious steps in the process of raising queens from eggs, which with the ordinary development would have produced only the com- mon bees. Often for more than three months, there has not been a day in our Apiary, in which some colonies were not engaged in rearing new queens to supply tie place of those taken from them ; and we have had the pleasure of 182 THE BEE-HIVES. exhibiting these facts to bee-keepers, who never before felt willing to credit them. 375. An Apiarist may use the box hives a whole life- time, and, unless he gains his information from other sources, may yet remain ignorant of some of the most im- portant principles in the physiology of the honey-bee ; while any intelligent cultivator may, with an observing- hive and the use of movable-frames, in a single season, verify for himself the discoveries which have been made only by the accumulated toil of many observers, for more than two thousand years. "An opportunity of beholding the proceedings of the queen, in hives of the old form, is so very rarely afforded, that many Apia- rists have passed their lives without enjoying it; and E.6aumur himself, even with the assistance of a glass-hive, acknowledges that it was many years before he had that pleasure." — (Bevan.) Swammerdam, who wrote his wonderful treatise on bees, before the invention of observing-hives, was obliged to tear hives to pieces in making his investigations ! When we see what important results these great geniuses obtained, with means so imperfect, if compared with the facilities which the veriest tyro now possesses, it ought to teach us a be- coming lesson of humility. The sentiments of the following extract from Swammer- dam, ought to be engraven upon the hearts of all engaged in investigating the works of God: " I would not have any one think that I say this from a love of fault-finding" — he had been criticising some incorrect drawings and descriptions — u my sole design is to have the true face and disposition of Nature exposed to sight. I wish that others may pass the like censure, when due, on my works ; for I doubt not that I have made many mistakes, although 1 can, from the heart, say, that I have not, in this treatise designed to mislead." 376. This hive is a simplified form, but Mr. D. F. Sav- age suggests a still more simple one, by making the top so OBSERVING HIVES. 183 narrow as not to conceal any of the bees, and leaving off the shutters entirely, to replace them with a dark cloth thrown over the hive. But this cloth can be used only when the hive is established inside the house. Its main advan- tages are to do away with the noise and jar of opening the shutters. Fig. 80. OBSER VING-H I VE . (From Alley's "Handy -Book.") a, stand; B,CC, movable glass frame: E, moulding under which the top of the shutter H slips, to darken the hive, if needed; F, movable top, held in place by hooks. The comb of brood and bees is put in, by remov- ing the top and one side. 377. A parlor observing-hive of this form may be con- veniently placed in any room in the house ; the alighting- board being outside, and the whole arrangement such that the bees may be inspected at all hours, day, or night, with- out the slightest risk of their stinging. Two such hives may be placed before one window, and put up or taken down in a few minutes, without cutting or defacing the wood- work of the house. An observing-hive will prove an unfailing source of pleas- ure and instruction ; and those who live in crowded cities, 184 THE BEE-HIVES. may enjoy it to the full, even if condemned to the penance of what the poet has so feelingly described as an " endless meal of brick." The nimble wings of the agile gatherers will quickly waft them above and beyond ' ' the smoky chimney-pots ; " and they will bear back to their city homes the balmy spoils of many a rustic flower, "blushing unseen," in simple loveliness. Might not their pleasant murmurings awaken in some the memory of long-forgotten joys, when the happy country child listened to their soothing music, while intently watching them in the old homestead-garden, or roved with them amid pastures and hill-sides, to gather the flowers still rejoicing in their " meadow-sweet breath," or whispering of the precious perfumes of their forest home ? - »' To me more dear, congenial to my heart, One native charm than all the gloss of art ; Spontaneous joys, where nature has its play, The soul adopts and owns their first-born sway ; Lightly they frolic o'er the vacant mind, Unenvied, unmolested, unconfined, But the long pomp, the midnight masquerade, With all the freaks of wanton wealth array'd, In these, ere tritlers half their wish obtain, The toilsome pleasure sickens into pain ; And e'en while fashion's brightest arts decoy, The heart distrusting asks, if this be joy." Goldsmith. HANDLING BEES. 185 CHAPTER V. HANDLING BEES. The Honey-bee Capable op Being Tamed. 378. If the bee had not such a formidable weapon both of offense and defense, many who now fear it might easily be induced to enter upon its cultivation. As the present system of management takes the greatest possible liberties with this insect, it is important to show how all necessary operations may be performed without serious risk of excit- ing its anger. Many persons are unable to suppress their astonishment, when they see an Apiarist, with the help of a little smoke, opening hive after hive, removing the combs covered with bees, and shaking them off in front of the hives ; forming- new swarms, exhibiting the queen, transferring the bees with all their stores to another hive ; and in short, dealing with them as if they were as harmless as flies. We have sometimes been asked, whether the hives we were opening had not been subjected to a long course of training ; when they contained swarms which had been brought only the day before to our Apiary. We shall, in this chapter, show that any one favorably situated may enjoy the pleasure and profit of a pursuit which has been appropriately styled, " the poetry of rural economy," without being made too familiar with a sharp little weapon, which speedily converts all the poetry into sorry prose. It must be manifest to every reflecting mind, that the Creator intended the bee, as truly as the horse or the cow, 186 HANDLING BEES. for the comfort of man. In the early ages of the world, and indeed until quite modern times, honey was almost the only natural sweet; and the promise of " a land flowing with milk and honey" had once a significance which it is difficult for us fully to realize. The honey-bee, therefore, was created not merely to store up its delicious nectar for its own use, but with certain propensities, without which man could no more subject it to his control, than he could make a useful beast of burden of a lion or a tiger. 379. One of the peculiarities which constitutes the foun- dation of the present system of management, and indeed of the possibility of domesticating at all so irascible an insect, has never to our knowledge been clearly stated as a great and controlling principle by any one before Mr. Langstroth. It may be thus expressed : A honey-bee when heavily laden ivith honey never volunteers an attack, but acts solely on the defensive.* This law of the honeyed tribe is so universal, that a stone might as soon be expected to rise into the air, without any propelling power, as a bee well filled with honey to offer to sting, unless crushed or injured by some direct assault. The man who first attempted to hive a swarm (428) of bees, must have been agreeably surprised at the ease with which he was able to accomplish the feat ; for it is wisely ordered that bees, when intending to swarm, should fill their honey-bags to their utmost capacity. They are thus so peaceful that they can easily be secured by man, besides having materials for commencing operations immediately in their new habitation, and being in no danger of starving, if several stormy days should follow their emigration. 380. While swarming, bees issue from their hives in the most peaceable mood imaginable ; and unless abused allow themselves to be treated with the greatest familiarity. The * This statement has been contradicted by a high authority , but we persist in affirming it, and will adduce several proofs in different passages. TIIE HONEY-BEE CAPABLE OF BEING TAMED. 187 hiving of them might always be conducted without risk, if there were not, occasionally, some improvident or unfortu- nate ones, who, coming forth without a sufficient amount of the soothing supply, are filled instead with the bitterest hate against any one daring to meddle with them. Such thriftless radicals are always to be dreaded, for they must vent their spleen on something, even though they perish in the act. (84.) If a whole colony, on sallying forth, possessed such a ferocious spirit, no one could hive them unless clad in a coat of mail, bee-proof ; and not even then, until all the windows of his house were closed, his domestic animals be- stowed in some place of safety, and sentinels posted at suit- able stations, to warn all comers to keep at a safe distance. In short, if the propensity to be exceedingly good-natured after a hearty meal, had not been given to the bee, it could never have been domesticated, and our honey would still be procured from the clefts of rocks or the hollows of trees. Probably the good nature resulting from a hearty meal is not the only cause of the above fact. There is another physiological fact connected with it (85). When her stomach is empty, a bee can curve her abdomen easily to sting. If her honey-sack is full, the rings of the abdomen are distended, and she finds more difficulty in taking the proper position for stinging. 381. A second peculiarity, in the nature of bees, gives an almost unlimited control over them, and may be ex- pressed as follows : Bees, when frightened, usually begin to Jill themselves with honey from their combs. If the Apiarist only succeeds in frightening his little sub- jects, he can make them as peaceable as though they were incapable of stinging. By the use of a little smoke, the largest and most fiery colony may be brought into complete subjection. As soon as the smoke is blown among them, 188 HANDLING BEES. they retreat from before it, raising a subdued or terrified note ; and, seeming to imagine that their honey is to be taken from them, they cram their honey-bags to their utmost capacity. They act either as if aware that only what they can lodge in this inside pocket is safe, or, as if expecting to be driven away from their stores, they are determined to start with a full supply of provisions for the way. The same result may be obtained by shutting them up in their hive and drumming upon it for a short time, but this latter process is only successful with some races of, bees easily frightened, like the black bees (559). 382. The bellows-smokers, in present use, for smoking bees and controlling them, are as far superior to the old method of blowing; smoke on them with the mouth from a Fig. 81. BINGHAM BEE-SMOKER. Fig. 82. MUTH BEE-SMOKER. piece of punk or rotten wood, or a bunch of rags, as the movable-frame hive is superior to the box hive of old. The writer of this, who kept bees in large numbers in several Apiaries before the introduction of the practical bellows- smoker, has man}^atime felt dizzy from the fatigue of blow- ing smoke on the bees. Bellows-smokers were used in Europe long ago, but they were not practical, as they could not be used with one hand. THE HONEY-BEE CAPABLE OF BEING TAMED. 189 Quinby, one of the veterans of progressive Apiculture, invented the first bellows-smoker that had the bellows on the side of the fire-box, that could stand up and draw like a chimney, and that could practically be held with one hand. Bingham afterwards greatly improved on this smoker. Since then, others have made different styles, all based on Quinby' s or on Bingham's ideas. The Improved Quinby-Bingham smokers have been imitated all over the world, especially in England and France, and we are sorry to say, some of these imitations have been sold as personal inventions, without any credit being given to the real inventors. A bee-smoker is indispensable to any Apiarist, and should be properly filled, when used, with dry wood, lighted at the bottom by a few hot coals. With a good smoker any kind of wood may be used. When the bees are located in an or- chard, dead limbs of apple- trees, are handiest and will make good smoke. Shavings, leaves, rags, can also be used, if no wood is at hand. By setting the smoker upright, when not held in the hand, so as to create a good draft, and refilling it from time to time, a good smoke can be kept up from morning till night, if necessary. 383. Some Apiarists of England have tried several liquids, for rubbing on the hands, to pacify the bees. Most of these liquids are hydro-carbonous fluids, or volatile oils of plants, such as wintergreen, turpentine, bergamot, cloves, thyme, etc. Mr. Grimshaw, after divers trials, in- vented a compound of several of these oils, to which he seems to have added ether and chloroform, if our sense of smell does not mislead us. He calls it Apifuge. Several Apiarists praise this drug, while others say that their bees did not mind it, and sting them as usual ; and some complain of blisters on their hands after its use. {British Bee- Journal. ) Mr. Cowan presented us with a vial of Apifuge, but, 190 HANDLING BEES. after trying, we cannot see much advantage to be derived from its use. 384. Mr. Raynor advises the use of a carbolized sheet, to frighten bees : " Make a solution of 3 oz. carbolic acid in a quart of water, and preserve for use. Mix H oz. of this solution with 1} oz. of glycerine ; put the mixture in a quart of water, shake well before using ; steep in the mixture a piece of calico, or cheese cloth, sufficiently large to cover the top of the hive, wring out dry and spread over the hive as soon as the quilt is removed. "You may use the same to drive the bees out of the sections. Keep the bottles well corked for future use." — (Rev. G-. Raynor, in the British Bee-Journal.) The same liquid may be forced among the bees through an atomizer. As it evaporates it leaves no bad smell behind. 385. A neighbor of ours, who is a magnetist, told our foreman- Apiarist that bees could be pacified by simply la}'- Fig. 83. VEIL ABOVE THE HAT. BEE-VEILS. 191 ing one's hands above the combs while the cloth is care- fully removed. We have seen bees withdraw from the frames inside the hive, under this laying on of hands ; but we are not sure that such magnetism, if there be magnetism in it, is sufficient to prevent the bees from stinging. 386. A bee-veil, although objectionable to some bee- keepers, who prefer to handle their bees barefaced, is really a necessity in a large Apiary. Timid persons feel safer in using it, and even the boldest bee-keepers recognize the necessity of wearing one, when colonies become aroused by accident. The best veils are sewed to outer-edge of the rim of a straw-hat ; with a rubber at their lower extremity, to fasten around the neck. The veil can be slipped on and off in a twinkling, if necessity requires ; when not in use, it is simply folded into the crown of the hat, where it is always at hand. We keep a number of these veil hats in our bee-house, for the ac- commodation of visit- ors, who wish to look through the wonders of the bee-hive, without fear of stings. Some veils are made removable, with a rub- ber at each end ; the up- per one being slipped over the crown of the hat. This veil can be taken off at will, and carried in the pocket. In his " Success In Bee-Culture," Mr. Heddon says: "A bee-veil should never be any color but black, as all other shades are more or less difficult to see through clearly," and Fig. 84. VEIL SEWED AROUND REVI OF HAT. 192 HANDLING BEES. we fully agree with him. White veils are most especially objectionable. Green is the best color after black. 387. The hands may be protected by india-rubber gloves, such as are now in common use. These gloves, while impenetrable to the sting of a bee, do not materially inter- fere with the operations of the Apiarist. As soon, however, as he acquires confidence and skill, he will much prefer to use nothing but the bee-hat, even at the expense of an occasional sting on his hands. An English Apiarist advises persons using gloves to cut the tips of the fingers so as to handle the frames more dexterously, and to wash their fingers with some kind of Apifuge. Stings on the hands usually cause but little suffering or swelling, while stings on the face are quite painful ; and the grotesque appearance which the swelling often gives to the human face, makes it much more desirable to protect the head than the hands. If the hands are wet with honey, they will seldom be stung. 388. All woolen clothes are more objectionable to bees than linen or cotton, for wool resembles the hair of ani- mals, being made of it, while linen or cotton resembles the twigs and leaves of plants, being made of vegetable fibre. Butler says : " They use their stings against such things as have outwardly some offensive excrement, such as hair or feathers, the touch whereof provoketh them to sting. If they alight upon the hair of the head or heard, they will sting if they can reach the skin. When they are angry their aim is most commonly at the face, but the hare hand that is not hairy, they will seldom sting, unless they be much offended. "—(^Feminine Monarchy," 1609.) 389. In handling bees, it is not always necessar} T to compel them to fill themselves with honey. With the quiet Italians (551), a few puffs of smoke, at the entrance, HANDLING BEES. 193 when opening the hive, and occasionally on the combs, if they show any disposition to anger, are quite sufficient to keep them down. Some of our best Apiarists often open their hives and handle the bees without smoke. It takes practice, patience and firmness. While the timid, if unprotected, are almost sure to be stung, there is something in the fearless movements of a skillful operator, that seems to render a colony submissive to his will. 390. Some races, however, like the Cyprian (559), cannot be controlled without a cloud of smoke, but they promptly retreat before the overpowering argument of a good smoker. 391. Bees can be handled at all times; but they are quietest in the middle of the day. At such a time, the old bees, which are the Grossest in the colony, are out in the field. In cold, cloudy, or stormy weather, they are most irri- table, especially if there is a scarcity of honey, as the lurking robbers excite the bees. Old bees that come home loaded, are not cross, while those going out empty, are easily angered. During a plentiful honey flow, when the hives are crowded for room, the bees are nearly all full of honey, and the colonies can then be handled without smoke (379). By our methods you can superintend a large Apiary, performing every operation necessary for pleasure or profit, without as much risk of being stung, as must frequently be incurred in attempting to manage a single hive in the old way. 392. Let all your motions about your hives be gentle and slow ; never crush or injure the bees ; acquaint yourself fully with the principles of management detailed in this treatise, and you will find that you have little more reason to dread the sting of a bee, than the horns of a favorite cow, or the heels of your faithful horse. 13 194 HANDLING BEES. Cotton, quoting from Butler, who, in these remarks, fol- lows mainly Columella, says : 393. " Listen to the words of an old writer : — 'If thou wilt have the favour of thy hees, that they sting thee not, thou must avoid such things as offend them : thou must not be unchaste or uncleanly; for impurity and sluttiness (themselves being most chaste and neat) they utterly abhor; thou must not come among them smelling of sweat, or having a stinking breath, caused either through eating of leeks, onions, garlick, and the like, or by any other means, the noisonieness whereof is corrected by a cup of beer ; thou must not be given to surfeiting or drunken- ness ; thou must not come puffing or blowing unto them, neither hastily stir among them, nor resolutely defend thyself when they seem to threaten thee ; but softly moving thy hand before thy face, gently put them by ; and lastly, thou must be no stranger unto them. In a word, thou must be chaste, cleanly, sweet, sober, quiet, and familiar; so will they love thee, and know thee from all others. When nothing hath angered them, one may safely walk along by them ; but if he stand still before them in the heat of the day, it is a marvel but one or other spying him, will have a cast at him.'* "Above all, never blow f on them; they will try to sting di- rectly, if you do. " If you want to catch any of the bees, make a bold sweep at them with your hand ; and if you catch them without pressing them, they will not sting. I have so caught three or four at a time. If you want to do anything to a single bee, catch him ' as if you loved him,' between your finger and thumb, where the tail joins on to the body, and he cannot hurt you." When gorged with honey, they ma}^ be taken up by hand- fuls, and suffered to run over the face, and may even have their glossy backs gently smoothed as they rest on our per- sons ; and all the feats of the celebrated Wildman may be * Many persons imagine themselves to be quite safe, if they stand at a con- siderable distance from the hives; whereas, cross bees delight to attack those whose more distant position makes them a surer mark to their long-sighted vision, than persons who are close to their hives. t While bees resent the warm breath exhaled slowly from the lungs, we have ascertained, that they will run from a blast of cold air blown upon them by the mouth of the operator, almost as quickly as from smoke. Before employ- ing smoke Mr. Langstroth often used a pair of bellows. IGNORANCE OF BEE-KEEPERS. 195 safely imitated by experts, who, by securing the queen, can make the bees hang in large festoons from their chin, with- out incurring any risk of being taken by the beard. " Such was the spell, which round a Wildman's arm, Twin'd in dark wreaths the fascinated swarm ; Bright o'er his breast the glittering legions led, Or with a living garland hound his head. His dextrous hand, with firm yet hurtless hold, Could seize the chief, known by her scales of gold, Prune 'mid the wondering train her filmy wing, Or o'er her folds the silken fetter fling." 394. The ignorance of most bee-keepers of the almost un- limited control which may be peaceably acquired over bees, has ever been regarded by the author of this treatise as the greatest obstacle to the speedy introduction oj movable-frame hives. Such ignorance has led to the invention of costly and complicated hives, all the ingenuity and expense lav- ished upon which, are known, by the better informed, to be as unnecessary as a costly machine for lifting up bread and butter, and gently pushing it into the mouth and down the throat of an active and healthy child. We have before us a small pamphlet, published in Lon- don in 1851, describing the construction of the "Bar and Frame Hive " of W. A. Munn, Esq. The object of this in- vention is to elevate frames, one at a time, into a case with glass sides, so that they may be examined without risk of annoyance from the bees. Great ingenuity is exhibited by the inventor of this very costly and very complicated hive, who seems to imagine that smoke " must be injurious both to the bees and their brood." 395. In opening a hive, little danger may be feared from the bees that are exposed to the light, unless quick motions are made, as they are completely bewildered by their sudden exposure, and removal from the hive. It is not merely the sudden admission of light, but its introduction from an unexpected quarter, that for the time, 196 HANDLING BEES. disarms the hostility of the bees. They appear, for a few moments, almost as much confounded as a man would be, if, without any warning, the roof and ceiling of his house should suddenly be torn from over his head. Before they recover from their amazement, they are saluted with a puff of smoke, which, by alarming them for the safety of their treasures, induces them to snatch whatever they can. In the working season, the bees near the top are gorged with honej" ; and those coming from below are met in their threatening ascent, by a small amount of harmless smoke, which excites their fears, but leaves no unpleasant smell behind. No genuine lover of bees ought ever to use the sick- ening fumes of tobacco. 396. Heddon says ("Success in Bee-Culture," page 18) : ' ' I know of but one instance where the use of smoke can do harm, and that is in smoking the guards of a colony that is in danger of being robbed." (664.) To this important state- ment, we would add, that too much smoke to a colony already subdued, will drive them from their combs, and often cause them to get in the way of the Apiarist. But the greatest care should be taken to repress by smoke, the first manifestations of anger ; for, as bees com- municate their sensations to each other with almost magic celerity, while a whole colony will quickly catch the pleased or subdued notes uttered by a few, it will often be roused to fury by the angry note of. a single bee. When once they are thoroughly excited, it will be found very difficult to subdue them, and the unfortunate operator, if inexperi- enced, will often abandon the attempt in despair. It cannot be too deeply impressed upon the beginner, that nothing irritates bees more than breathing upon them, or jarring their combs. Every motion should be deliberate, and no attempt whatever made to strike at them. If in- clined to be cross, they will often resent even a quick REMOVING FRAMES. 197 pointing at them with the finger, by darting upon it, and leaving their stings behind. 397. The first thing to be done, after having opened a hive and removed the cloth (352), is to remove the divis- ion-board (349) from the inside of the hive — to give room for handling the frames, — with the help of a common wood chisel. Then the frames which have been glued (236) fast to the rabbets by the bees, must be very gently pried loose ; this may be done without any serious jar, and with- out wounding or enraging a single bee. They may be all loosened for removal in less than a single minute. If there is no division-board (349) in the hive, the Api- arist should gently push the third frame from either end of the hive, a little nearer to the fourth frame ; and then the second as near as he can to the third, to get ample room to lift out the end one, without crushing its comb, or injuring an}- of the bees. To remove it, he should take hold of its two shoulders which rest upon the rabbets, and carefully lift it, so as to crush no bees by letting it touch the sides of the hive, or the next frame. If it is desired to remove any particular frame, room must be gained by moving, in the same way, the adjoining ones on each side. As bees usu- ally build their combs slightly waving, it will be found impossible to remove a frame safely, without making room for it in this way. If the combs are built on foundation (674), however, the} T will be much easier to remove, as they are then perfectly straight. In handling heavy frames in hot weather, be careful not to incline them from their perpendicular, or the combs will be liable to break from their own weight, and fall out of the frames. If more combs are to be examined, after lifting out the outside frame, set it carefully on end, near the hive, when the second one may be easity moved towards the vacant space, and lifted out. After examination, put it in the place of the one first removed; in the same way, examine the 198 HANDLING BEES. third, and put it in the place of the second, and so proceed until all have been examined. If a division-board is used, it will not be necessary to set any of the frames down out- side of the hive, as the removal of this board will leave one vacant space in the hive. If the frames, as they are removed, are put into an empty hive, or a comb-bucket, they may be protected from the cold, and from robber-bees. Fig. 85 COMB-BUCKET. The inexperienced operator, who sees that the bees have built small pieces of comb, or bridges (237), between the outside of the frames and the sides of the hive, or slightly fastened together some parts of their combs, may imagine that the frames cannot be removed at all. Such slight attachments, however, offer no practical difficulty to their removal.* The great point to be gained, is to secure * If sufficient room for storing surplus honey is not given to a strong colony. in its anxiety to amass as much as possible, it will fill the smallest accessible places. If the bees build comb between the tops of the frames and the under side of the upper story, it can be easily cut off, and used for wax. If this shallow chamber were not used, they would fasten the upper story to the frames so tightly, that it would be very difficult to remove it ; and every time REMOVING FRAMES. 199 a single comb on each frame ; and this is effected by the use of the triangular comb-guides, or better, by comb-foun- dation (674). If bees were disposed to fly away from their combs, as soon as they are taken out, instead of adhering to them with such remarkable tenacity, it would be far more difficult to manage them ; but even if their combs, when removed, are all arranged in a continued line, the bees, and most es- pecially the Italian bees, instead of leaving them, will stoutly defend them against the thieving propensities of other bees. 398. In returning the frames, care must be taken not to crush the bees between them and the rabbets on which they rest ; they should be put in so slowly, that a bee, on feeling the slightest pressure, may have a chance to creep from un- der them before it is hurt. The frames should be returned, as far as possible, in the same position, as they were found, with the brood in the forward part of the hive, and the honey in the back, for bees always live and breed in front of their stores, to more easily defend their treasures against intruders. In shutting up the hive, the surplus story, if any is there, should be carefully slid on, so that any bees which are in the way may be pushed before it, instead of being crushed. A beginner will find it to his advantage to practice — using an empty hive — the directions for opening and shutting hives, and lifting out the frames, until confident that he fully understands them. If any bees are where they would be imprisoned by closing the upper cover, it should be propped up a little, until the}' have flown to the entrance of the hive, or, they may be brushed away gently. it was taken off, they would glue it still faster, so that, at last, it would he well nigh impossihle, in getting it off, not to start the frames so as to crush the hees between the combs. 200 HANDLING BEES. Mismanagement of Bees. 399. When a colony of bees is unskillfully dealt with, they will "compass about" their assailant with savage ferocity; and woe be to him, if they can creep up his clothes, or find a single unprotected spot on his person. Not the slightest attempt should be made to act on the offensive ; for, if a single one is struck at, others will avenge the insult ; and if resistance is continued, hundreds, and at last, thousands, will join them. The assailed party should quickly retreat to the protection of a building, or, if none is near, should hide in a clump of bushes, and lie perfectly still, with his head covered, until the bees leave him. When no bushes are at hand, they will generally give over the attack, if he lies still on the grass, with his face to the ground. A practical Apiarist, sheltered with a veil and armed with a well lighted smoker, will not retreat much before the most ferocious swarm of bees. Those who are alarmed if a bee enters the house, or ap- proaches them in the garden or fields, are ignorant of the important fact, that a bee, at a distance from its hive, never volunteers an attack. Even if assaulted, they seek onry to escape, and never sting, unless they are hurt. If they were as easily provoked away from home, as when called to defend those sacred precincts, a tithe of the merry gambols, in which our domestic animals indulge, would speedily bring about them a swarm of infuriated enemies ; we should be no longer safe in our quiet rambles among the green fields ; and no jocund mower could whet or swing his peaceful sc3 T the, unless clad in a dress impervious to their stings. The bee, instead of being the friend of man, would, like savage wild beasts, provoke his utmost efforts for its extermination. Let none, however, take encouragement from the con- MISMANAGEMENT OF BEKS. 201 trast between the conduct of bees at home and abroad, to reserve all their pleasant ways for other places than the domestic roof ; for, towards the members of its own family the bee is all kindness and devotion ; and while, among human beings, a mother is often treated by her own children with disrespect or neglect, among bees she is always waited upon with reverence and affection. 400. Huber has demonstrated, that bees have an ex- ceedingly acute sense of smell, and that unpleasant odors quickly excite their anger.* Long before his time, Butler said, "Their smelling is excellent, whereby, when they fly aloft into the air, they will quickly perceive anything under them that they like, even though it be covered." They have, therefore, a special dislike to those whose habits are not neat,f and who bear about them a perfume not in the least resembling " Sabean odors From the spicy shores of Araby the blest." Ahorse, when assailed by them, is often killed; as, in- stead of running away, like most other animals, it will plunge and kick until it falls overpowered. The Apiary should be fenced in, ' to prevent horses and cattle from molesting the hives. We have known of a horse, which happening to be loose in a bee-yard, was attacked by a few bees. In trying to defend himself against them by kicking and rolling he upset one hive and then another, till tens of thousands of bees assailed him, and the poor animal was * Strong perfumes, however pleasant to us, are disagreeable to bees; and Aristotle observes, that they will sting those scented with them. We have known persons ignorant of this fact to be saverely treated by bees. f Some persons, however cleanly, are assaulted* by bees as soon as they approach their hives. It is related of a distinguished Apiarist that, after a severe attack of fever, he was never able to be on good terms with his bees. That they can readily perceive the slightest differences in smell, is apparent from the fact that any number of bees, fed from a common vessel, will be gen- tle towards each other, while they will assail the first strange bee that alights on the feeder. "202 HANDLING BEES. stung to death, before his owner could come to the rescue. We were informed by an eye-witness, that although the car- cass remained unburied two days, neither dogs, crows, buzzards, nor any of the usual scavengers of decaying flesh, attempted to feed upon it, so great was the amount of poison (79) instilled into it by the revengeful bees. 401. The sting of a bee (78) upon some persons, pro- duces very painful, and even dangerous effects. We have often noticed that, while those whose systems are not sen- sitive to the venom, are rarely molested by bees, they seem to take a malicious pleasure in stinging those upon whom their poison produces the most virulent effect. Something in the secretions of such persons may both provoke the attack and render its consequences more severe. The smell of their own poison (87) produces a very irri- tating effect upon bees. A small portion of it offered to them on a stick, will excite their anger. " If you are stung," says old Butler, " or any one in the com- pany — yea, though a bee hath stricken but your clothes, espe- cially in hot weather — you were best be packing as fast as you can, for the other bees, smelling the rank flavor of the poison, will come about you as thick as hail." Remedies for the Sting of a Bee. 402. If only a few of the host of cures, so zealously advocated, could be made effectual, there would be little reason to dread being stung. The first thing to be clone after being stung, is to pull — or rather push — the sting out of the wound as quickly as possible. When torn from the bee, the poison-bag, and all the muscles which control the sting, accompany it ; and it penetrates deeper and deeper into the flesh, injecting con- tinually more and more poison into the wound. If extracted at once, it will very rarely produce any serious consequen- REMEDIES FOR THE STING OF A BEE. 203 ces ; but, in extracting it, it should not be taken between the fingers. In so doing, most of the poison will be pressed into the wound. It mast be rubbed or scraped off by a quick motion of the finger-nail, so as to prevent any more of the poison of the sack from getting into the flesh. After the sting is removed, the utmost care should be taken not to irritate the wound by the slightest rubbing. However intense the smarting, and the disposition to apply friction to the wound, it should never be done, for the moment that the blood is put into violent circulation, the poison is quickly diffused over a large part of the system, and severe pain and swelling may ensue. On the same principle, by severe friction, the bite of a mosquito, even after the lapse of several days, may be made to swell again. As most of the popular remedies are rubbed in, they are worse than nothing. When the operator is perspiring abundantly, the stings are less painful, as some of the poison exudes with the sweat. If the mouth is applied to the wound, unpleasant conse- quences may follow ; for, while the poison of snakes, affect- ing only the circulating system, may be swallowed with impunity, the poison of the bee acts with great power on the organs of digestion. Distressing headaches are often produced by it, as any one, who has been stung, or has tasted the poison, very well knows. 403. In our own experience, we have found cold water to be the best remedy for a bee-sting. The poison is quickly dissolved in it ; and the coldness of the water has also a powerful tendency to check inflammation. The leaves of plantain, crushed and applied to the wound, are a very good substitute, when water cannot at once be procured. Bevan recommends the use of spirits of hartshorn, and sa}^s that, in cases of severe stinging, its internal use is also beneficial. In very serious cases, the 204 HANDLING BEES. ammonia ma}^ be taken, in quantities of from five to twent} T drops,— for an adult, less for a child, — in hot tea, with ben- eficial results. It causes an increased perspiration, and neutralizes the effects of the poison. ("Commentaires Therapeutiques," Gubler, Paris, 1874.) 404. It may be some comfort to novices to know that the poison will produce less and less effect upon their S3 r stem. Old bee-keepers, like Mithridates, appear almost to thrive upon poison itself. When we first became inter- ested in bees, a sting was quite a formidable thing, the pain being often ver}^ intense, and the wound swelling so as sometimes to obstruct our sight. At present, the pain is usually slight, and, if the sting is quickly extracted, no unpleasant consequences ensue, even if no remedies are used. Huish speaks of seeing the bald head of Bonner, a celebrated practical Apiarist, covered with stings, which seemed to produce upon him no unpleasant effects. The Rev. Mr. Kleine advises beginners to allow themselves to be stung frequently, assuring them that, in two seasons, their system will become accustomed to the poison ! An old English Apiarist advises a person who has been stung, to catch another bee as speedily as possible, and make it sting on the same spot. Even an enthusiastic dis- ciple of Huber might hesitate to venture on such a singular homoeopathic remedy ; bat, as this Apiarist had stated, what we had verified in our own experience, that the oftener a person is stung the less he suffers from the venom, the waiter determined to make trial of his prescription. Allow- ing a sting to remain until it had discharged all of its poison, he compelled another bee to insert its sting, as nearly as pos- sible, in the same spot. He used no remedies of any kind, and had the satisfaction, in his zeal for new discoveries, of suffering more from the pain and swelling than for years before. That the bee-keeper becomes inoculated with the poison BEES AS MEANS OF DEFENSE. 205 of the bee, and usually becomes proof against it, is no more to be doubted than the fact that vaccination is a preservative against small-pox. The recent discoveries of Pasteur, for the cure of hydrophobia, are another evidence of the efficiency of inoculation. Bees as Means of Defense. 405. "A small corsair, equipped with forty or fifty men, and having on hoard some bees, purposely taken from a neighboring island, and confined in earthen hives (275), was pursued by a Turkish galley. As the latter boarded her, the sailors threw the hives from the masts down into the galley. The earthen hives broke into fragments and the bees dispersed all over the boat. The Turks who had looked on the small corsair with contempt, as an easy prey, did not expect so singular an attack. Finding themselves defenseless against the stings, they were so fright- ened, that the men of the corsair, who had provided themselves with masks and gloves, took possession of the galley, almost without resistance." "Amurat, Emperor of Turkey, having besieged Alba, and made a breach in the walls, found the breach defended by bees, whose hives had been brought on the ruins. The Janissaries, the bravest militia of the Ottoman empire, refused to clear the obstacle." — (Delia Rocca, 1790,) 206 NATURAL SWARMING. CHAPTER VI. NATURAL SWARMING. 406. In the Spring, as soon as the combs of a hive, well filled, can no longer accommodate its teeming popula- tion, the bees prepare for emigration, or in other words, for departing with their queen, by building a number of ro3 T al- cells (104). These cells are begun about the time that the drones make their appearance in the open air ; and when the young queens arrive at maturity, the males are usually ver}^ numerous (186). The swarmino- of bees is one of the most beautiful sights in the whole compass of rural econonry. Although those who use movable-comb hives prefer the artificial multiplica- tion of colonies, it being more profitable, all Apiarists delight in the pleasing excitement of natural swarming. " Up mounts the chief, and to the cheated eye Ten thousand shuttles dart along the sky; As swift through aether rise the rushing swarms, Gay dancing to the beam their sun-bright forms ; And each thin form, still ling'ring on the sight, Trails, as it shoots, a line of silver light. High pois'd on buoyant wing, the thoughtful queen, In gaze attentive, views the varied scene. And soon her far-fetch'd ken discerns below The light laburnum lift her polish'd brow, Wave her green leafy ringlets o'er the glade, And seem to beckon to her friendly shade. Swift as the falcon's sweep, the monarch bends Her flight abrupt ; the following host descends. Round the fine twig, like cluster'd grapes, they close In thickening wreaths, and court a short repose." Evans. NATURAL SWARMING. 207 407. Bees sometimes abandon their hives very early in Spring, or even late in Summer or Fall (264). Although exhibiting the appearance of natural swarming, they leave, not because the population is so crowded that they wish to form new colonies, but because it is either so small, or the hive so destitute of supplies, that they are driven to desper- 208 NATURAL SWARMING. ation. Seeming to have a presentiment that they must perish if they stay, instead of awaiting the sure approach of famine, they sally out to see if they cannot better their condition. Such desertions should not be mistaken for natural swarming. 408. The time, when new swarms may be expected, depends, of course, upon the climate, the forwardness of the season, and the strength of the colonies. In our Northern and Middle States, they seldom issue before the latter part of May ; and June may there be considered as the great swarming month. In Brownsville, Texas, on the lower Rio Grande, bees 'often swarm quite early in March. Swarming does not always take place in Spring, although this is the usual time for it. Swarms are likely tg issue in any locality, whenever the hive is crowded for room, or nearry so, during a good and prolonged hone} T -harvest. In warm latitudes, it lasts for several months, owing to a con- tinuous flow of honey. Wherever there are two distinct honey crops (705), there are also two swarming seasons, especially along the low lands or river bottoms, where Fall pasturage is abundant. Swarms, hived during the fore- part of either of these honejr seasons, are always the best; having a few weeks of hone}- crop before them, they have ample time to build comb (198), and fill it with honey and brood ; while swarms which are cast during the latter part of either the clover or the Fall harvest, coming as they do. just before a dearth of honey, are unable to build comb and raise brood, and easily perish, if left to themselves. Thus, a swarm harvested in August, in this latitude, at the open- ing of the Fall crop, stands better chances than one har- vested in Jury, at the close of the clover and basswood crop. PRIMARY SWARM. 209 First or Primary Swarm 409. The first swarm is almost invariably led off by the old queen, unless she has died from accident or disease, when it is accompanied by one of the j^oung ones reared to supply her loss. There are no signs from which the Apia- rist can predict the certain issue of a first swarm. For 3)i minutes from the time she was introduced, a bee was seen to enter with pollen on her legs! We both observed the entrance for sonae time, and saw many bees carry in pollen."— P. J. Mahan. LOSS OF THE QUEEN. 261 sion, while his joy- quickened steps proclaim that he feels that there is no place like the cheerful home where his chosen wife and companion presides as its happy and honored Queen.* If your home is not full of dear delights, try all the virtue of winning words and smiles, and the cheerful discharge of household duties, and exhaust the utmost pos- sible efficacy of love, and faith, and prayer, before those words of fearful agony, " Anywhere, anywhere Out of the world ! " are extorted from your despairing lips, as you realize that there is no home for you, until you have passed into that habitation not fashioned by human hands, or inhabited by human hearts. 509. The neglect of a colony to expel drones (192), when they are destroyed in other hives, is always a suspi- cious sign, and generally an indication either that it has no queen, or else a drone-laying one (134), or drone-laying workers (176). A colony, in these circumstances, will not even destroy the drones of other hives, which may come to it, until a healthy queen has been raised in the hive, and is fertilized (133), and laying worker-eggs. 510. In opening a queenless hive, the plaintive hum of the bees (76), the listless and intermittent vibrating of their wings, and the total lack of eggs, or young worker brood, tell their condition. A comb, with hatching bees,f should be given to it from *' ' The tenth and last species of women were made out of a bee; and happy is the man who gets such a one for his wife . She is full of virtue and prudence, and is the best wife that Jupiter can bestow. " — Spectator, No. 209. t That class of bee-keepers who suppose that all such operations are the "new fangled" inventions of modern times, will be surprised to learn that Col- umella, 1800 years ago, recommended strengthening feeble colonies, by cutting out combs from stronger ones, containing workers ' ' just gnawing out of their eells." 262 Queen reading. a stronger colony, together with another comb, of eggs and larvae, from the best colony in the Apiary ; and the number of its combs should be reduced to suit the size of the clus- ter. A better way yet to supply the loss, is to give the colony a queen-cell (104) or a young queen raised in the manner to be now described. Rearing Improved Races. 511. We will see (550) that some races of bees are su- perior to others. Even in the same Apiary, some colonies are better than others, in prolificness, honey-gathering, en- durance, gentleness, etc. It is very important to improve the Apiary by rearing queens from the best breeds, for the increase of colonies, as well as to replace the inferior ones. To this end, the bee-keeper should select two or more of the best colonies in his Apiary, one for the production of drones, the others for the production of queens. Italian (551) bees are universally preferred ; and as they are now almost as easily found as common bees, and are very cheap, we advise the novice to begin with at least two queens of this race. A slight mixture of Cyprian or Syrian (559) blood is good, provided the issue be gentle and peaceable. Hybrids of common bees and Italians are generally inferior, both in quality and disposition. 512. In selecting a colony for drone production, the color and size of the drones should not be considered so much, as the prolificness of its queen, and the qualities of its workers, unless you wish to breed for beauty, in prefer- ence to honey-production. Place two drone-combs (224) in the center of the brood- chamber of this colony, as soon as it has recuperated from REARING IMPROVED RACES. 263 its winter losses. If the colony is kept well supplied with honey, enough drones will be raised to impregnate all the queens in the neighborhood ; otherwise, they might destroy these early drones after having raised them. If our directions on the removal of drone-comb (675) are followed, but few drones will be raised outside of those colonies specially intended for drone-breeding. As soon as they begin to hatch, we may make preparations for queen-rearing, the best time being at the opening of fruit- blossoms. Some queen-breeders begin earlier, but early breeding gives much trouble and little pay, and our advice to Northern Apiarists, who want early queens, is to buy them from some reliable Southern Apiarist, as they can be raised earlier in the South, much more cheaply than in the North. 513. In an Apiary composed of several colonies, there are always some comparatively weak ones, either because their queens are old, or because they are not prolific. Such queens are of very little value, and should be replaced. Select one of these colonies — not the poorest, unless it is populous enough to raise good queens. Kill its queen, and exchange its brood-combs, after having brushed the bees off, for a less number of combs, containing eggs and larvae, from your best queen. It may be well to feed the colonies containing the select queens beforehand, so as to incite the laying of eggs (154) and nursing of the brood. 514 If you desire to raise queens from eggs, (490), or larvae just hatching, prepare for it, by giving your select colony some frames of dry comb, or comb foundation, (674) a few days ahead, for the queen to lay in. In this case, only those combs that contain eggs should be given to the queenless colony. It is always better to give but a small number of brood-combs to the colony intended for queen-raising, and to reduce its space with the division- board (349) ; as they can best keep it warm, in this man- ner, and raise better queens. 264 QUEEN REARING. 515. The largest number of queeu-cells (104) can be obtained by cutting holes into the combs under the cells containing young larvae or eggs, and feeding the bees plentifully. Some Apiarists hold that, by leaving them without brood of any kind for a few hours, they will raise more cells afterwards. 516. Nine days after the furnishing of the brood to the queenless colony, count the number of queen-cells raised, remembering that one has to be left to the colony that raised them. On the same day, make swarms, (475) or nuclei, (522) or destroy worthless queens (155) which you desire to replace next day. 517. The next day, with a sharp pen- knife, carefully remove a piece of comb, an inch or more square, that contains a queen-cell (Fig. 89), and in one of the brood combs of the hive to which this cell is to be given, cut a place just large enough to receive and hold it in a natural position. (Fig. 90.) Each queenless stock can thus be supplied with a queen, Fig. 89. QUEEN-CELL, REMOVED. Fig. 90. (From Gravenhorst.) CUTTING OUT AND INSERT- ING QUEEN-CELLS. A, Unsealed cell . B, Insert- ed cell. C, Unfinished cell. D, Deceptive cell just be gun. REARING IMPROVED RACES. 265 ready to hatch, from the best breeding mother. Unless very great care is used in transferring a royal cell, its inmates will be destroyed, as her body, until she is nearly mature, is so exceedingly soft, that a slight compression of her cell — -especially near the base, where there is no cocoon — generally proves fatal. For this reason, it is best to defer removing them, until they are within three or four days of hatching. A queen-cell, nearly mature, may be known by its having the wax removed from the lid, by the bees, so as to give it a brown appearance. 518. If the weather is warm, and the hive, to which a queen-cell is given, is very populous, the cell may be intro- duced by simply inserting it in its natural position between two combs of brood. It is very important to have the queen- cell in or near the brood, or the bees might neglect it. Sometimes, the bees so crowd their royal cells together (fig. 91) that it is difficult to remove one without fatally it m mm, in (Fig. 91.) CLUSTER OF CELLS. (From Alley's Handy- Book.) injuring another, as, when a cell is cut into, the destruction and removal of the larva usually follows. Mr. Alley, by his method, given further on (528), found a remedy for this. If many queens are to be raised, it 'is well to have a new supply of cells started every week o even oftener. 266 QUEEN REARING. 519. A day or two after introducing the queen-cells, the Apiarist can ascertain, by examination, whether they have been accepted. If they have not been accepted, the cells will be found torn open, on the side (fig. 92), instead of on the end, and the colonies will have begun queen-cells of their own brood. These queen-cells must be de- stroyed and replaced by other ; from the next supply. In removing them, the greatest en re should be taken not to pass the deceptive queen-cells, if any are there (fig. 90), which, although less appar- ent, would disappoint the end in view. 520. When queens are raised ahead of time for artificial in- crease, Italianizing, or for sale, it is more profitable to use nuclei in- stead of full colonies to hatch these queens. The word nuclei (plural of nucleus), from the Latin nucleus a nut, a kernel, was first applied b} T Mr. Langs troth to diminutive colonies of bees. This term is now universally adopted on both continents. 521. When we were raising queens for sale, we had contrived a divisible frame (fig. 93) to make these nuclei of combs taken from full colonies. Our combs could be thus separated in two, and used in smaller hives, and in the Fall, these same combs were returned to the full colonies. Two small frames are (Fig 92 ) QUEEN-CELLS. , hatched cell; b. sealed cell; c, rudimentary cell; d, cell toru by the bees. NUCLEI. 267 more advantageous than one large frame, as they give more compactness to the cluster. Besides, these small colonies can be built up easily afterwards by coupling the frames, and uniting the combs of 3 or 4 nuclei into one large hive. It is not necessary to have many of these frames in an Api- ary, as a few are sufficient to make a number of nuclei, if they are placed in the centre of full colonies early in Spring. (Fig. 93.) DIVISIBLE FRAME. Two frames thus made from one standard Langstroth frame measure about 8? by 8? inches each, a very conven- ient size for nucleus frames. In the Fall, a number of nuclei may be united, in a full sized hive, on their own combs, by this method. 522. To make a nucleus, take from a colony, as late in the afternoon as there is light enough to do it, a comb con- taining worker-eggs, and bees just gnawing out of their cells, and put it, with the mature bees that are on it, into an empty hive. If there are not bees enough adhering to it, to prevent the brood from being chilled during the night, more must be shaken into the hive from other combs. If the transfer is made so late in the day that the bees are not disposed to leave the hive, enough may have hatched, by 268 QUEEN REARING. morning, to supply the place of those which will return to the parent stock. 523. In every case, when a swarm has left its hive for another quarter, each bee, as she sallies out, flies with her head turned towards it, that by marking the surrounding objects, she may find her way back. If, however, the bees did not emigrate of their own free will, most of them appear- ing to forget, or not knowing, that their location has been changed, return to their familiar spot ; for it would seem that, " A ' bee removed ' against her will, Is of the same opinion still." Should the Apiarist, ignorant of this fact, place the nu- cleus on a new stand without providing it with a sufficient number of young bees, it would lose so many of the bees which ought to be retained in it, that most of its unsealed brood would perish from neglect. If the comb used in forcing such a nucleus was removed at a time of day when the bees would be likely to return to the parent stock, they should be confined to the hive, until it is too late for them to leave ; and if the number of bees, just emerging from their cells, is not large, the entrance to the hive should be closed, until about an hour before sunset of the next day but one. The hive containing this small col- ony, should be properly ventilated, and shaded — if thin — from the intense heat of the sun ; it should always be well supplied with honey. The space unoccupied in the hive should be separated from the nucleus by a division board (349). 524. Beginners must remember that it is bet er to have these small nuclei strong with bees ; but, in giving them young bees, care should be taken not to give them the queen. If a nucleus is made at mid-day, nearly all the bees given to it will be young bees, as the old bees are then in the field. REARING IMPROVED RACES. 269 The best manner to add young bees from strange colo- nies to weak nuclei, is to shake or brush them, on the apron board in front of the entrance, as is done in swarm- ing (428). 525. Hives, or nuclei in which queen-cells are to be in- troduced, should be aware of their queenless condition be- fore a queen-cell is given them. Hence the necessity of preparing them 24 hours previous. 526. A vigilant eye should be kept upon every colony that has not an impregnated queen ; and when its queen is about a week old it should be examined, and if she has be- come fertile, she will usually be found supplying one of the central combs with eggs. If neither queen nor eggs can be found, and there are no certain indications that she is lost, the hive should be examined a few days later, for some queens are longer in becoming impregnated than others, and it is often difficult to find an unimpregnated one, on ac- count of her adroit way of hiding among the bees. As soon as the young queen lays, she may be introduced to a queenless colony, or sold, and if qneen-cells are kept on hand, another one can be given to the nucleus the next day. Thus, nuclei may be made to raise two queens or more in a month. 527. If the queens are to be multiplied rapidly, the nuclei must never be allowed to become too much reduced in numbers, or to be destitute of brood or honey. With these precautions, the oftener their queen is taken from them, the more intent they will usually become in supplying her loss. There is one trait in the character of bees which is wor- thy of profound respect. Such is their indomitable energ}^ and perseverance, that under circumstances apparently hopeless, they labor to the utmost to retrieve their losses, and sustain the sinking State. So long as they have a queen, or any prospect of raising one, they struggle vigor- 270 QUEEN REARING. ously against impending ruin, and never give up until their condition is absolutely desperate. We once knew a colony of bees not large enough to cover a piece of comb four inches square, to attempt to raise a queen. For two whole weeks,, they adhered to their forlorn hope ; until at last, when they had dwindled to less than one-half their original number, their new queen emerged, but with wings so imperfect that she could not fly. Crippled as she was, they treated her with almost as much respect as though she were fertile. In Fig. 92&. (From Alley.) the course of a week more, scarce a dozen workers remained in the hive, and a few days later, the queen was gone, and only a few disconsolate wretches were left on the comb. 528. Mr. Alley, who raises queens by the thousand, has published his method of queen-rearing. His queens are all raised in very small nuclei which he calls miniature hives. From a light-colored worker-comb filled with hatching eggs, he cuts strips with a sharp knife, as in fig. 925. "After the comb has been cut up, lay the pieces flat upon a board or table, and cut the cells on one side down to within one fourth of an inch of the foundation or septum, as seen in fig. 93£which represents the comb ready to place in position for cell build- ing. While engaged in this work, keep a lighted lamp near Fig. 93&. (From Alley.) at hand, with which to heat the knife, or the cells will be badly jammed ***** alley's method. 271 The strips of comb being ready, we simply destroy each alter- nate larva or egg, (fig. 926. In order to do this, take the strios carefully in the left hand, and insert the end of a common lucifer match into each alternate cell, pressing it gently on the bottom of the cell, and then twirling it rapidly between the thumb and fingers. This gives plenty of room for large cells to be built with- out interfering with those adjoining, and permits of their being separated without injury to neighboring cells." — "Bee-keepers' Handy Book," Wenham, 1885. This strip, Mr. Alley fastens under a trimmed comb cut slightly convex, by dipping the cells, which have been left full length, into a mixture of two parts rosin and one of Fig. 94. (From Alley.) bees-wax, taking care not to over-heat this mixture, as the heat might destroy the eggs (fig. 94). The comb thus pre- pared is given to a miniature colony, which has been queen- 272 QUEEN REARING. less and without brood for ten hours, Mr. Alley having no- ticed that the eggs may be destroyed if given to a colony just made queenless. This method is probably the most expeditious and the cheapest that can be followed, for raising a large number of queens ; but we would hardly advise Apiarists to use as small nuclei as Mr. Alley does (5 combs, 4| inches square). The stronger the colony in which a queen is raised, the better the queen. 529. As it happens very often, that more queen-cells are raised than are needed immediately, and as the bees usually destroy all after the first one has hatched, Apiarists have devised queen-nurseries to preserve the supernumer- ary cells until needed. It is not- safe to leave the queen- cells under the control of the bees after ten days, as a queen may hatch at any time. There are several ways to make queen-nurseries. Messrs. Root, Hayhurst, Heddon and Hutchinson, warm their nur- series with lamps, while the nurseries used by Messrs. Alley, Demaree and others, are placed in well populated hives. 530. The lamp-nursery is a doubled-walled tin box,* of the right size to receive the breeding frames. The space between the walls and the bottom is filled with water, and a kerosene lamp is lighted under it, with the flame about one foot from the bottom of the box. The temperature of this lamp-nursery is regulated by raising or lowering the flame, and is kept between 90° and ^00°. The combs containing the sealed queen-cells are placed in this box, and if the brood in the combs is all of the same age, every queen will hatch, at least, five days before any of the workers. These queen- cells have to be examined every few hours, for the first queens hatched would destroy the others. The Alley queen-nursery is composed of a number of small * Mr. Hayhurst, of Kansas City, who is one of the most successful Western, queen breeders, uses a galvanised iron nnrsery, packed in a chaff case. QUEEN NURSERIES. 273 cages, covered with wire cloth on each side and inserted in a frame. Each cage has two holes at the top, one for a sponge saturated with honey, the other to receive the queen- cell. The frame is inserted in a strong colony, not neces- sarily queenless, since these young queens are caged, and have feed at hand when they hatch. The hatching of queens in nurseries properly belongs to the trade of the queen-breeder. The honey producer, who raises queens for himself only, does not need fresh queens every day. Besides, the introducing of these young virgin queens to nuclei, previous to impregnation, is quite difficult and uncertain. (541.) 531. Before we pass to the subject of introducing queens, we cannot refrain from noticing the rapid progress of the business of queen rearing in the last 20 years. The intro- duction of brighter races has greatly increased the spread- ing of Apiarian science, and many facts which, years ago, were known only to the few, now belong to the public do- main. 532. In breeding the new races, let the novice remem- ber that the qualities he should seek to improve are, first, prolificness and honey production ; second, peaceableness ; third, beauty. Since their introduction into this country, the Italians have been bred too much for color, at the expense of their other qualities. We have seen queens, that had been so in- bred for color, that their mating with a black drone hardly showed the hybridization of their progeny. This in-and-in breeding, for color, has even produced white- eyed drones, stone blind, a degeneracy which would tend to the extinction of the race. 18 274 QUEEN REARING. Introducing Impregnated Queens. 533. Great caution is needed in giving to bees a stranger queen. Huber thus described the way in which a new queen is usually received by a colony : "If another queen is introduced into the hive within twelve hours after the removal of the reigning one, they surround, seize, and keep her a very long time captive, in an impenetrable clus- ter, and she commonly dies either from hunger or want of air. If eighteen hours elapse before the substitution of a stranger-queen, she is treated, at first, in the same way, but the bees leave her sooner, nor is the surrounding cluster so close ; they gradually disperse, and the queen is at last liberated ; she moves languidly, and sometimes expires in a few minutes. Some, however, es- cape in good health, and afterwards reign in the hive." The manner in which strange queens are treated by the bees, when they are queenless, depends mainly on the state of the honey harvest. 534. But in order to meet with uniform success, the fol- lowing conditions must be fulfilled : The bees must be absolute^ queenless. Sometimes a colony contains two (117) queens, and the Apiarist after removing one may imagine that he can introduce a stranger, safely. Many queens are thus killed. 535. As bees recognize one another by the scent, the new queen should be placed so as to get the odor of the ^hiye, before being released among them. This can be ef- fected, readily by sprinkling the bees and the new queen ,with sweetened water scented with peppermint, and liberat- iing.her.at once. But as this method generally causes some jobbing (664) in times of scarcity, it is not always to be relied upon. 536. Our method consists in placing the queen in a small flat cage, made of wire cloth, between two combs, in the INTRODUCING IMPREGNATED QUEENS. 275 most populous part of the hive, near the brood and the honey, and keeping her there from 24 to 48 hours. These queen-cages were first used in Germany for introducing queens. 537. In catching a queen, she should be gently taken with the fingers, from among the bees, and if none are crushed, there is no risk of being stung. The queen her- self will not sting, even if roughly handled. If she is allowed to fly, she may be lost, by attempting to enter a strange hive. To introduce her into the cage, she should be allowed to climb up into it. It is a fact well known to queen breeders that a bee or a queen cannot be easily induced to enter a cage or a box turned downward. The meshes of the wire cloth should not be closer than 12 to the inch, that the bees may feed the queen readily through them. This is important, for we have lost two queens successively in a cage with closer meshes. The bees will cultivate an acquaintance with the impris- oned mother, by thrusting their antennas through the open- ings, and will be as quiet as though the queen had her lib- erty. Such a cage will be very convenient for any tempor- ary confinement of a queen. 538. It is necessary, when the queen is released, that the bees be in good spirits, neither frightened, nor angered, and there should be no robbers about, as they might take her for an intruder, and ball her. This technical word is used to describe the peculiar way in which bees surround a queen whom they want to kill. The cluster that encloses her, is in the form of a ball, some- times as large as one's fist, and so compact that it cannot readily be scattered. She may be rescued by throwing the ball into a basin of water. We have known bees to ball their own mother in such circumstances, for queens are of a timid disposition and easily frightened. When we release 276 QUEEN REARING. a strange queen, we put a small slice of comb honey, or honey cappings, in place of the stopper of the cage, and close the hive. It takes from 15 to 20 minutes for the bees to eat through, and by that time all is quiet, so the queen walks leisurely out of her cage, and is safe. 539. If the colony, in which a queen is to be intro- duced, is destitute, the bees should be abundantly fed on the preceding night (605). After she has been released, it is well to leave the colony alone for two or three days. As a fertile queen can lay several thousand eggs a day, it is not strange that she should quickly become exhausted, if taken from the bees. " Ex nihilo nihil fit " — from noth- ing, nothing comes — and the arduous duties of maternity compel her to be an enormous eater. After an absence from the bees of only fifteen minutes, she will solicit honey, when returned ; and if kept away for an hour or upwards, she must either be fed by the Apiarist, or have bees to sup- ply her wants. Mr. Simmins has taken advantage of this appetite, and of the propensity of bees to feed the queens, in introducing them directly, after keeping them without bees and food, for about 30 minutes. At dusk he lifts a corner of the cloth (352) of the hive in which he wants to introduce the queen, drives the bees away with a little smoke (382), and permits the queen to run between the combs. Then he waits 48 hours before visiting the hive. Several bee-keep- ers report having succeeded with this method. On ac- count of this propensity of bees to feed queens, any num- ber of fertile ones may be kept in a hive already containing a fertile queen, if they are placed in cages between the combs, near the honey and the brood. 540. Some Apiarists use chloroform, ether, puff-balls, or other ingredients, to stupefy the bees of mutinous colonies who persist in refusing to accept a strange queen and who INTRODUCTION OF VIRGIN QUEENS. 277 show it by angrily surrounding the cage in which she is confined. The Rev. John Thorley, in his "Female Monarchy," published at London, in 1744, appears to have first intro- duced the practice of stupefying bees by the narcotic fumes of the " puff ball " (Fungus pulverulentus), dried till it will hold fire like tinder. The bees soon drop motionless from their comb, and recover again after a short exposure to the air. This method was once much practiced in France (L' Ap- iculteur, page 17, Paris, 1856) but is very dangerous, as too large a dose of anaesthetics will cause death instead of sleep. Introduction of Virgin Queens. 541. The difference in looks between a virgin queen and an impregnated one is striking, and an expert will distinguish them at a glance. The virgin queen is slender, her abdomen is small, her motions quick, she runs about and almost flies over the combs, when trying to hide from the light. In fact, she has nothing of the matronly dignity of a mother. Bees, in possession of a fertile queen, are quite reluctant to eccept an unimpregnated one in her stead ; indeed, it requires much experience to be able to give a virgin queen to a colony, and yet be sure of securing for her a good re- ception. Mr. Langstroth was the first to ascertain, years ago, that the best time to introduce her, is just after her birth, as soon as she can crawl readily. If introduced too soon, the bees may drag her out, as they would any imperfect worker. Most queen-breeders liberate them on the comb, or at the entrance of a queenless nucleus. Mr. H. D. Cutting, of Clinton, Mich., recommends daubing the young queen with honey, as she comes out of her cell, and liberating her 278 QUEEN REARING. among the bees, without touching her with the fingers. Nearly all breeders acknowledge that the introduction of virgin queens to full colonies is an uncertain business, and that they can be introduced safely only to small nuclei that have been queenless some time. In this, we fully agree. Mr. G. W. Demaree, of Christianburg, Ky.,is quite suc- cessful in the introduction of virgin queens several days old, by much the same process as that given by us for the intro- duction of fertile queens. We would advise novices to abstain from introducing vir- gin queens, until they become expert in the business of queen rearing ; the introduction of unhatched queen-cells being much more easily performed, and more uniformly successful. 542. In introducing queens or queen-cells to full colo- nies dudng the swarming season, it happens very often that the bees also raise queen-cells of their own brood, and swarm with the queen given them (465). In view of this, the Apiarist should watch, for a few days, the colony to which a new queen has been introduced. 543. In hunting for a queen, it is necessary to remem- ber that she is on the brood combs unless frightened away. If the bees are not greatly disturbed, an Italian queen may be found within five minutes after opening the hive. A queen of common bees, or of hybrids, is more difficult to find, as her bees often rush about the hive as soon as it is opened. If she cannot be found on the combs, and the hive is populous, it is best to shake all the frames on a sheet, in fro t of an empty box, and secure them in a closed hive, out of the reach of robbers, until the search is over, when every- thing may be returned to its proper place. 544. After a queen is taken from a cage, the bees will run in and out of it for a long time, thus proving that they recognize her peculiar scent. It is this odor which causes them to run inquiringly over our hands, after we have caught INTRODUCTION OF VIRGIN QUEENS. 279 a queen, and over any spot where she alighted when her swarm came forth. This scent of the queen was probably known in Aristotle's time, who says : " When the bees swarm, if the king (queen) is lost, we are told that they all search for him, and follow him with their sagacious smell, until they find him. " Wilclman says : ' ' The scent of her body is so attractive to them, that the slightest touch of her, along any place, or substance, will attract the bees to it, and induce them to pursue any path she takes. " The intelligent bee-keeper has now realized, not only how queens may be raised or replaced, by the use of the movable-frame hive, but how any operation, which in other hives is performed with difficulty, if at all, is in this rendered easy and certain. No hive, however, can make the ignorant or negligent very successful, even if they live in a region where the climate is so propitious, and the honey resources so abundant, that the bees will prosper in spite of misman- agement or neglect. 280 RACES OF BEES CHAPTER IX. Races of Bees. 545. The honey-bee is not indigenous to America. Thomas Jefferson, in his " Notes on Virginia," says: " The honey-bee is not a native of our country. Marcgrave indeed, mentions a species of honey-bee in Brazil. But this has no sting, and is therefore different from the one we have, which resembles perfectly that of Europe. The Indians concur with us in the tradition that it was brought from Europe ; but when and by whom, we know not. The bees have generally extended themselves into the country, a little in advance of the white set- tlers. The Indians therefore call them, the white man's fly." " When John Eliot translated the Scriptures into the language of the Aborigines of North America, no words were found ex- pressive of the terms wax and honey." (A. B. J. July 1S66.) Longfellow, in his "Song of Hiawatha," in describing the advent of the European to the New World, makes his Indian warrior say of the bee and the white clover : — "Wheresoe'er they move, before them Swarms the stinging fly, the Ahmo, Swarms the bee, the honey-maker; Wheresoe'er they tread, beneath them Springs a flower unknown among us, Springs the White Man's Eoot in blossom." 546. According to the quotations of the A. B. J., common bees were imported into Florida, by the Spaniards previous to 1763, for they were first noticed in West Florida in that year. They appeared in Kentucky in 1780, in New York in 1793, and West of the Mississippi in 1797. 547. "It is surprising in what countless swarms the bees have overspread the far West within but a moderate number of years. THE BEE IN AMERICA. 281 The Indians consider them the harbingers of the white man, as the buffalo is of the red man, and say that, in proportion as the bee advances, the Indian and the buffalo retire They have been the heralds of civilization, steadily preceding it as it ad- vances from the Atlantic borders ; and some of the ancient set- tlers of the West pretend to give the very year when the honey- bee first crossed the Mississippi. At present it swarms in my- riads in the noble groves and forests that skirt and intersect the prairies, and extend along the alluvial bottoms of the rivers. It seems to me as if these beautiful regions answer literally to the description of the land of promise — 'a land flowing with milk and honey ;' for the rich pasturage of the prairies is calculated to sus- tain herds of cattle as countless as the sands upon the sea-shore, while the flowers with which they are enamelled render them a very paradise for the nectar-seeking bee." — Washington Irving, " Tour on the Prairies," Chap. IX. (1832). Many Apiarists contend that newly-settled countries are most favorable to the bee ; and an old German adage runs thus ; — ** Bells' ding dong, And choral song, Deter the bee From industry : But hoot of owl, And ' wolf's long howl,' Incite to moil And steady toil." It is evident that the bees spread Westward very rapidly, and to this day, many old bee-men can be found, who posi- tively assert that a swarm never goes Eastward, even after it is proven to them that they usually go to the nearest timber. 548. Bees, like all other insects, are divided scientifically into genera, species, and varieties. Aristotle speaks of three different varieties of the honey- bee, as well known in his time. The best variety he describes as " [uoopd, g-rpoyyvXif] ccai ttolociXtj'- " — that is, small, and round in size and shape, and variegated in color. 282 RACES OF BEES. Virgil (Georgica, lib. IV., 98) speaks of two kinds as flourishing in his time ; the better of the two he thus de- scribes : " Elucent aliae, et fulgore coruscant, Ardentes auro, et paribus lita corpora guttis. Hrec potior soboles ; nine coeli tempore certo Dulcia mella premes." " The others glitter, and their variegated bodies shine like drops of sprinkling gold. This better breed! Thanks to them, if the weather of the sky is certain, you will have honey combs to press." This better variety, it will be seen, he characterizes as spotted or variegated, and of a beautiful golden color. 549. The first bee introduced into America, was the common bee of Europe, Western Asia, and Western Africa, Apis mellifica, usually designated under the name of black, or gray bee. Both names are appropriate, since the race varies in shade, according to localities. In the greater part of Africa, as well as in the European provinces of Turkey, the common bees are dark, nearly black. In other places, their color is grayish. They vary in size, as well. Accord- ing to some French writers, the bees of Holland are small, and denominated ,L la petite Hollandaise ' ' (the little Hol- lander) ; on the other hand, the Carniolan* bees are quite large. We have never seen queens as large as some Car- niolans which we imported some ten years ago. But, in spite of the prolificness and general good reputation of this race, we did not attempt to propagate it, owing to the difficulty of detecting their mating with the common bees, since they are almost alike in color. 550. Besides the common bee, there are a great many varieties. The best known are: 1st, the Ligurian, Apis Ligustica, so named by Spinola, because he found it first, in * Carniolan is a province of Austria, near the Adriatic, but on the East slope of the mountains. THE ITALIAN BEE. 283 the part of Italy called Liguria. The Rev. E. W. Oilman, of Bangor, Maine, directed the writer's attention to Spinola's " Insectorum Ligurice species novce aut rariores^ from which it appears, that Spinola accurately described all the peculiarities of this bee, which he found in Piedmont, in 1805. He fully identified it with the bee described by Aris- totle. 2d. The apis fasciata (banded bee). This bee, related to the Italian, or Ligurian, which has yellow bands also, is found in Egypt, in Arabia, along both sides of the Red Sea, in Syria, and in Cyprus. 3d. We shall mention also the large Apis dorsata of South- ern Asia, and the melipones of Brazil and Mexico. 551. The Italian bee, Apis Ligustica , spoken of by Aris- totle and Virgil as the best kind, still exists distinct and pure from the common kind, after the lapse of more than two thousand years. The great superiority of this race, over any other race known, is now universally acknowledged ; for it has victor- iously stood the test of practical bee-keepers, side by side with the common bee. The ultimate superseding of the common bee by the Italian in this country is but a matter of time. 552. The following facts are evident: 1st. The Italian bees are less sensitive to cold than the common kind. 2d. Their queens are more prolific. 3d. They defend their hives better against insects. Moths (802) are hardly ever found in their combs, while they are occasionally found in the combs of even the strongest colo- nies of common bees. Their great vigilance is due to the mildness of the climate of Italy, whose Winters never destroy the moth. Having to defend themselves against a more numerous enemy, they are more watchful than the bees of colder regions. 4th. They are less apt to sting. Not only are they less apt, but scarcely are they inclined to sting, 284 HACES OF BEES. though they will do so if intentionally annoyed, or irritated, or improperly treated. Spinola speaks of the more peaceable disposition or this bee ; and Columella, 1800 years ago, had noticed the same peculiarity, describing it as "mitior moribus," (milder in habits). When once irritated, however, they become very cross. 5th. They are more industrious. Of this fact, all the results go to confirm Dzierzon's statements, and satisfy us of the superiority of this kind in every point of view. 6th. They are more disposed to rob than common bees, and more courageous and active in self-defense. They strive on all hands to force their way into colonies of common bees ; but when strange bees attack their hives, they fight with great fierceness, and with an incredible adroitness. Spinola speaks of these bees as "velociores motu" — quicker in their motions than the common bees. They however sooner grow tired of hunting, where nothing can be gained ; and if all the plunder is put out of their reach, they will give up the attempt at robbing (664) more prompt- ly than common bees. 7th. Aside from their peaceableness, they are more easily handled than the common bees, as they cling to their combs and do not rush about, or cluster here and there, or fall to the ground, as the common bees do. It is hardly necessary to add, that this species of the honey-bee, so much more productive than the common kind, is of very great value in all sections of our country. Its superior docility makes it worthy of high regard, even if in other respects it had no peculiar merits. Its introduction into this country, has helped to constitute the new era in bee-keeping, and has imparted much interest to its pursuit. It is one of the causes which have enabled America to surpass the world in the production of honey. 553. Their appearance can be described as follows: THE ITALIAN BEE. 285 "The first three abdominal rings (fig. 95 ) of the worker bee are trrnsparent, and vary from a dark straw or golden color to the deep yellow of ochre. These rings have a nar- row dark edge or border, so that the yellow, which is some- times called leather color, constitutes the ground, and is seemingly barred over by these black edges. This is most distinctly percepti- ble when a brood-comb, on which bees are densely crowded, is taken out of a hive, or when a bee is put on a window. When the bee is full of honey these rings extend and slide out of one another, and the yellow bands show to better advantage, especially if the honey eaten is of a light color. On the contrary, dur- ing a dearth of honey, the rings are drawn up, or telescoped in one another, and the bee hardly looks like the same insect. This peculiarity has annoyed ma- ny bee-keepers, who imagined their beau- tiful bees had suddenly become hybrids. In doubtful cases, as the purity of Italian bees is very important, it is well to follow the advice of A. I. Root : • • If you are undecided in regard to your bees' purity, get some of the bees and feed them all the honey they can take ; now put them on a window, and if the band C (fig. 95) is not plainly visible, call them hybrids." (-'A. B. C. page 145). 554. Aside from this test, their tenacity and quietness on the comb, while handled (378), are infallible signs of purity. We have repeatedly carried a frame of brood cov- ered with pure Italian bees, from a hive to the house, and passed the comb from hand to hand among visitors, some of whom were ladies, without a single bee dropping off, or attempting to sting. 555. The drones (185) and the queens are very irregu- Fig. 95. ABDOMEN OF THE ITALIAN BEE. From A. I. Root. 286 RACES OF BEES. lar in markings, some being of a very bright yellow color, others almost as dark as drones or queens of common bees. " It is a remarkable fact that an Italian queen, impregnated by a common drone, and a common queen impregnated by an Ital- ian drone, do not produce workers of a uniform intermediate cast, or hybrids ; but some of the workers bred from the eggs of each queen will be purely of the Italian, and others as purely of the common race, only a few of them, indeed, being apparently hybrids. Berlepsch also had several mismated queens, which at first produced Italian workers exclusively, and afterwards com- mon workers as exciusively. Some such queens produced fully three-fourths Italian workers ; others, common workers in the same proportion. ISTay, he states that he had one beautiful orange-yellow mismated Italian queen which did not produce a single Italian worker, but only common workers, perhaps a shade lighter in color. The drones, however, produced by a mis- mated Italian queen are uniformly of the Italian race, and this fact, besides demonstrating the truth of Dzierzon's theory,(I33) renders the preservation and perpetuation of the Italian race, in its purity, entirely feasible in any country where they may be introduced." — S. Wagner. 556. The Italian bees from different parts of Italy are of different shades, but otherwise, preserve about the same characteristics all over the peninsula. But how can they keep pure, since there are common bees in Europe? A glance at the map will answer the question. Italy ite sur- rounded on all sides by water or snow-covered mountains, which offer an insuperable barrier to any insects. This is further evidenced b}^ the fact that the bees of the canton of Tessin (Italian Switzerland) are Italians, being on the South side of the Alps, while those of the canton of Uri (German Switzerland), on the other side of the mountains and only a few miles off, are common bees.* 557. The importation of Italian bees to another country was first attempted by Capt. Baldenstein. * The idea that select Italian bees raised in America, may be purer than any .Italians ever imported, has been gravely discnsaed by some persons. THE ITALIAN BEE. 287 "Being stationed in Italy, during part of the Napoleonic wars, he noticed that the bees, in the Lombardo-Venitian district oi Valtelin, and on the borders of Lake Conio, differed in color from the common kind, and seemed to be more industrious. At the close of the war, he retired from the army, and returned to his ancestral castle, on the Rhsetian Alps, in Switzerland ; and to occupy his leisure, had recourse to bee-culture, which had been his favorite hobby in earlier years. While studying the natural history, habits, and instincts of these insects, he remembered what he had observed in Italy, and resolved to procure a colony from that country. Accordingly, he sent two men thither, who purchased one, and carried it over the mountains, to his resi- dence, in September, 1843. " His observations and inferences impelled Dzierzon — who had previously ascertained that the cells of the Italian and common bees were of the same size — to make an effort to procure the Italian bee; and, by the aid of the Austrian Agricultural Society at Vienna,* he succeeded in obtaining, late in February, 1853, a colony from Mira, near Venice." — S. Wagner. 558. An attempt was made in 1856, by Mr. Wagner, to import them into America ; but, unfortunately, the colonies perished on the voyage. The first living Italian bees landed on this continent were imported in the Fall of 1859 by Mr. Wagner and Mr. Richard Colvin, of Baltimore, from Dzierzon' s Apiary. Mr. P. G-. Mahan, of Philadelphia, brought over at the same time a few colonies. In the Spring of 1860, Mr. S. B. Parsons, of Flushing, L. I., imported a number of colonies from Italy. Mr. William G. Rose, of New York, in 1861, imported also from Italy. Mr. Colvin made a number of importations from Dzierzon' s Apiary ; and *Some of the Governments of Europe have long ago taken great interest in disseminating among their people a knowledge of Dziprzon's system of Bee- Culture. Prussia furnishes monthly a number of persons from different parts of the Kingdom with the means of acquiring a practical knowledge of this system; while the Bavarian Government has prescribed instruction in Dzier- zon' s theory and practice of bee-culture, as a part of the regular course oi studies in its teachers' Seminaries. We are glad to see that the United States is beginning to recognize the importance of bee-culture, and that an Apiarian department has been inaugurated under the control of the Agricultural Depart- ment at Washington. 288 RACES OF BEES. in the Fall of 1863 and 1864 Mr. Langstroth also imported queens from the same Apiary, but the first large successful importations were made by Adam Grimm of Wisconsin, in 1867, from the Apiary of Prof. Mona of Bellinzona, and by us in 1874, from the Apiary of Signor Giuseppe Fiorini of Monselice, Italy. Since then, Mr. A. I. Root, and others, have succeeded well nearly every season. This valuable variety of the honey-bee is now extensively disseminated in North America. For directions on breeding and shipping Italian bees, see the chapters on Queen Raising (497) and Shipping Bees (587). 559. The Egyptian bees (Apis fasciata) are smaller and brighter than the Italian bee. The hairs of their body are more whitish, and their motions are quick and fly -like. Their prolificness is great, but their ill-disposition has caused many who have tried them to abandon them. The Cyprian bees (a sub-race of Apis fasciata) were imported from Cyprus to Europe in 1872, and they were so much praised that, in 1880, two enterprising American Apiarists, Messrs. D. A. Jones and Frank Benton made a trip to Cyprus and the Holy Land, and brought bees from both countries to America, The Cyprian bees resemble the Italian bees. The main difference between them, in appearance, is a bright 3-ellow shield on the thorax of the Cyprians not to be seen in the Italians, and the yellow rings of the former are brighter, of a copper color, especially under the abdomen. Their drones are beautiful. Their behavior is like that of the Egyptians ; quick and ready, they promptly assail those who dare handle them. Smoke astonishes but does not subdue them. At each puff of the smoker (382). they emit a sharp, trilling sound, not easily forgotten, resembling that of "meat in the frying pan," and as soon as the smoke disappears, they THE SYRIAN BEE. 289 are again on the watch, ready to pounce on any enemy, whether man or beast, bee or moth. Their courage and great prolificness would make them a very desirable race, if they could be handled safely. A slight mixture of this race with the Italian improves the latter wonderfully in color and working qualities. 560. The Holy Land or Syrian bees are almost similar in looks to the Egyptian, these two countries being contigu- ous. Those who have tried them do not agree as to their behavior ; some holding them to be very peaceable, others describing them as very cross. We have never tried them. Among the different races of Eastern bees, the Caucasian are cited by Vogel, a German, as of such mild disposi- tion, that it is hard to get them to sting. Yet it is said that these bees defend themselves well against robber bees. According to Vogel, they resemble the Syrian bees, having also the shield of the Cyprians. It would seem that these bees exist in the temperate zone of Asia, from the shores of the Mediterranean to the Himalayas, for Dr. Dubini, in his book, writes that they were found at the foot of these mountains. 561. According to an article in the " Scientific Review" of England, although bees have been sent from this country and Europe, to Australia, there is an Australian native bee, which builds its nest on the Eucalyptus. These bees gather immense quantities of a kind of honey which, although very sweet, can be used as medicine, to replace the cod-liver oil, used with so much repugnance by consumptives. 562. Apis dorsata, the largest bee known, lives in the jungles of India. Mr. Benton attempted to import this bee at great expense and danger, but only succeeded in bring- ing one colony to Syria, where it died. Mr. Vogel tried also to bring some of them to Germany without success. At all events further attempts at importing or domesticat- ing these bees would be so expensive, that private enter- 19 290 RACES OF BEES. prise will be balked by the task. It behooves our govern- ment to take such matters in hand for the public good. Besides Apis dorsata, two other kinds exist in India, Apis florea and Apis Indica. The latter is cultivated by the natives with good results. Both are smaller than our com- mon bee. 563. Another race of bees,* the Melipone, is found in Brazil and Mexico. More than twelve varieties of these have been described, all without stings. Huber, in the beginning of this century, received a nest of them, but the bees died before reaching Geneva. Mr. Drory, while at Bordeaux, France, was more successful. One of his friends sent him a colony of Melipones, and he published in the "Bucher du Sud-Ouest " some very curious facts concerning them. The cells containing the stores of honey and pollen are not placed near those intended for brood, but higher in the hive ; they are as large as pigeon eggs, and attached in clusters to the walls of the hive. The brood cells are placed horizontally in rows of several sto- ries. The workers do not nurse the brood, but fill the cells with food, on which the queen lays. The cells are then closed till the young bees emerge from them. A peculiarity of these bees is that the entrance to their home, which is very narrow, is usually watched by a single bee, acting as janitor, and withdrawing from the door to let the workers pass. They cannot stand the cold, and Mr. Drory could not save his, in spite of his care, in a location as mild as that of Bordeaux. Mr. T. F. Bingham of Abronia, Michigan, imported a nest of them, in the Spring of 1886, and lost them the same Fall. A part of their nest was exhib- ited by him at the Indianapolis Convention, in October 1868. * These bees are scientifically classified as belonging to a different genun of Apidae. THE APIABT. 291 CHAPTER X. The Apiary. Location. 564. Any one can keep bees, successfully, if he has a liking for this pursuit and is not too timid to follow the directions given in this treatise. Even ladies can manage a large Apiary successfully, with but little help. Almost any locality will yield a surplus of honey in aver- age seasons. Mr. Chas. F. Muth of Cincinnati, with 22 colonies of bees, on the roof of his house, in the heart of this large city, harvested a surplus honey yield of 198 lbs. per colony in one season. Mr. Muth informed us that this surplus was collected from white clover blossoms in 26 days. 565. But an intimate acquaintance with the honey resources of the country is highly important to those desirous of engaging largely in bee-culture. While, in some localities, bees will accumulate large stores, in others, only a mile or two distant, they may yield but a small profit. " While Huber resided at Cour, and afterwards at Vevey, his bees suffered so much from scanty pasturage, that he could only preserve them by feeding, although stocks that were but two miles from him were, in each case, storing their hives abund- antly." — Bevan. Those desirous of becoming specialists will find the subject of location and yield further treated in the chapter on Pasturage and Overstocking (698). 566. Inexperienced persons will seldom find it profitable to begin bee-keeping on a large scale. By using movable- r>" 292 THE APIARY. frame (286) hives, they can rapidly increase their stock after they have acquired skill, and have ascertained, not simply that money can be made by keeping bees, but that they can make it. While large profits can be realized by careful and exper- ienced bee-keepers, those who are otherwise will be almost sure to find their outlay result only in vexatious losses. An Apiary neglected or mismanaged is worse than a farm overgrown with weeds or exhaust- ed by ignorant tillage ; for the land, by prudent management, may again be made fertile, but the bees, when once de- stroyed, are a total loss. Of all farm pursuits bee- culture requires the Fig# 96 _ greatest skill, and it ornamental glass hive; old style; may well be called a front view. business of details. 567. Wherever the Apiary is established, great pains should be taken to protect the bees against high winds. Their hives should be placed where they will not be annoyed by foot passengers or cattle, and should never be very near where horses must stand or pass. If managed on the swarming plan, it is very desirable that they should be in full sight of the rooms most occupied, or at least where the sound of their swarming (406) will be easily heard. In the Northern and Middle States, the hives should have a South-Eastern, Southern, or South-Western exposure, to give the bees the benefit of the sun, when it will be most conducive to their welfare. 568. The plot occupied by the Apiary should be grassy, mowed frequently, and kept free from weeds. LOCATION. 293 Sand, gravel, saw-dust* or coal cinders, spread in front of the hive, will prevent the growing of grass in their (382) immediate vicinity, and be a great help to those overladen bees, that fall to the ground before reaching the entrance. Hives are too often placed where many bees perish by falling into the dirt, or among the tall weeds and grass, where spiders and toads find their choice lurking-places. A gentle slope southward will help to set the hives as they should be, slanting toward the entrance (327, 328). 569. They should be placed on separate stands, entirely independent of one another, and, whenever prac- ticable, room should be left for the Apiarist to pass around each hive. We pre- fer to place them in rows six-i teen feet apart, with the hives kg. 97. ornamental glass-hive. about six feet apart in the BACK VIEW * 0LD STYLE ' rows. This isolates each hive completely, and, while handling one colony, the Apiarist is not in danger of being stung by the bees of another. The bees are also less likely to enter the wrong hives (502). Covered Apiaries. 570. Covered Apiaries, unless built at great expense, afford little or no protection against extreme heat or cold, and greatly increase the risk of losing the queens (356), * Saw-dust is perhaps not very safe, owing to danger of fire from the smo- kers, in very dry weather. 294 THE APIARY. and the young bees. The weak colonies are always the losers, for their young bees, in returning from their first trip (173), are attracted by the noise of other hives closely adjoining, and prove the truth of the French proverb "La pierre va toujours au tas," (the stone always goes to the heap). When hives must stand too close together, they should b3 COVERED APIARIES. 295 of different colors. Even varying the color of the blocks will be of great usefulness. John Mills, in a work published at London, in 1766, gives (p. 93) the following directions: — "Forget not to paint the mouths of your colonies with different colors, as red, white, blue, yellow, &c, in form of a half-moon, or square, that the bees may the better know their own homes. " Covered Apiaries are common in Germany and Italy ; their only quality is that of being thief proof, when shut and locked. But such structures, especially when several sto- ries high, cannot easily shelter top-opening hives. 571. Probably the most convenient covered Apiaries are simple sheds, facing South, and open in front during the Summer and warm days of Winter. House Apiaries, in which the hives are placed in several stories, facing every direction, are worse than nothing. Their only quality is to be ornamental and costly. 572. For ease of manipulation, out-door Apiaries are preferable. In the Summer, no place is so congenial to bees as the shade of trees, if it is not too dense, or the branches so low as to interfere with their flight. As the weather becomes cool, they can, if necessary, be moved to any more desirable Winter location. If colonies are moved in the line of their flight, and a short distance at a time, no loss of bees will be incurred ; but, if moved a few yards, all at once, many will be lost. A slanting board placed in front of the hive, so as to prevent the bees from flying in straight line from the entrance to the field, will incite them to mark the change of their position. By a gradual process, the hives in a small Apiary may, in the Fall, be brought into a narrow compass, so that they can be easily sheltered from the bleak Winter winds. In the Spring, they may be gradually returned to their old positions. By removing the strongest colonies in an Apiary the 296 THE APIARY. first day, and others not so strong the next, and continu- ing the process until all were removed, we have safely changed the location of an Apiary, when compelled to move bees in the working season. On the removal of the last hive, but few bees returned to the old spot. The change, as thus conducted, strengthened the weaker colonies, but we would advise bee-keepers to locate their hives in as perma- nent a position as possible, as this moving is not practical, especially with a large number of colonies. Those who do not winter their bees in the cellar, can easily protect them on their Summer stand. See chapter on Wintering (619). If the hives have to be placed in an exposed location with- out shade, it is well to protect them with roofs (369). A roof will be found highly economical, as it not only sheds the rain, but wards off the heat of the sun. Procuring Bees and Transferring, 573. The beginner will ordinarily find it best to stock his Apiary with swarms of the current year, thus avoiding, until he can prepare himself to meet them, the perplexities which often accompany either natural or artificial swarming. If new swarms are purchased, unless they are large and early, they may only prove a bill of expense. If old colonies are pur- chased, such only should be selected as are healthy and populous. If removed after the working season has begun, they should be brought from a distance of at least two miles (13). If the bees are not all at home when the hive is to be removed, blow a little . smoke into its entrance, to cause those within to fill themselves with honey, and to prevent them from leaving for the fields. Repeat this process from time to time, and in half an hour nearly all will have returned. If any are clustered on the outside, they may be driven within by smoke (382). TRANSFERRING. 297 The best time to buy full colonies of bees, is Spring. A cool day may be selected, in which to move them, as the bees are not flying, none can be lost. In the present thriv- ing state of bee-keeping, colonies of pure Italian bees (551) in movable frame hives (286) can usually be bought at very reasonable figures. If the Apiarist's means are very limited, black bees (549) in old style box-hives may prove the cheapest, if they can be found. But they should be promptly transferred into more practical hives, and Italian- ized (489) ; these manipulations will help to give to the novice the practice which he lacks. Italian bees and mov- able-frame hives are now a sine qua non of success. No colony should be purchased, unless it has brood in all stages, showing that it has a healthy queen. For trans- porting bees, see (587 and 603). Transferring Bees from Common to Movable-Frame Hives. 574. This process may be easily effected whenever the weather is warm enough for bees to fly. It has sometimes been done in Winter, for purposes of experiment, by removing the bees into a warm room, but the best time for it, is when the bees have the least honey, aii the beginning of the fruit bloom. If it can be done on a warm day, when they are at work, there will be but little danger from robbers (664). It is conducted as follows : Have in readiness a box — which we shall call the forcing box — whose diameter is about the same with that of the hive from which you intend to drive the swarm. Smoke the hive, lift it from its bottom- board without the slightest jar, turn it over, and carefully carry it off about a rod, as bees, if disturbed, are much more inclined to be peaceable, when removed a short dis- tance from their familiar stand. If the hive is gently placed 293 THE API-VRT. npside down on the ground, scarcely a bee will fly out, and there will be little danger of being stung. The timid and inexperienced should protect themselves with a bee-veil, and may blow more smoke among them, as soon as the hive is inverted. After placing it on the ground, the forcing-box must be put over it. If smooth inside, it should have slats fastened one- third of the distance from the top, to aid bees in clustering. Some Apiarists place the box slanting on the hive, so as to be able to see the bees climbing. This method, called open driving, is a little slower, but it may give the operator the chance of seeing the queen ; when the driving can be considered as done. 575. As soon as the Apiarist has confined the bees, he should place an empty hive — which we call the decoy-hive — upon their old stand, which those returning from the fields may enter, instead of dispersing to other hives, to meet, perhaps, with a most ungracious reception. As a general rule, however, a bee with a load of honey or bee- bread, after the extent of her resources is ascertained, is pretty sure to be welcomed by any hive to which she may carry her treasure ; while a poverty-stricken unfortunate that presumes to claim their hospitality is, usually, at once destroyed. The one meets with as flattering a reception as a wealthy gentleman proposing to take up his abode in a country village, while the other is as much an object of dis- like as a poor man, who bids fair to become a public charge. If there are in the Apiary several old colonies standing close together, it is desirable, in performing this operation, that the decoy-hive, and the forcing-box, should be of the same shape and even color with that of the parent-stock. If they are very unlike, and the returning bees attempt to enter a neighboring hive, because it resembles their old home, the adjoining hives should have sheets thrown over them, to hide them from the bees, until the operation is completed. TRANSFERRING. 299' 576. To return to our imprisoned bees : their hive should be beaten smartly with the palms of the hands, or two small rods, on the sides to which the combs are attached, so as to run no risk of loosening* them. These " rappings," although not of a very "spiritual" character, produce, nevertheless, a decided effect upon the bees. Their first impulse, if no smoke were used, would be to sally out, and wreak their vengeance on those who thus rudely assail their honied dome ; but as soon as they inhale its fumes, and feel the terrible concussion of their once stable abode, a sudden fear, that they are to be driven from their treas- ures, takes possession of them. Determined to prepare for this unceremonious writ of ejection, by carrying off what they can, each bee begins to lay in a supply, and in about five minutes, all are filled to their utmost capacity. A pro- digious humming is now heard, as they begin to mount into the upper box : and in about fifteen minutes from the time the rapping began — if it has been continued with but slight intermissions — the mass of bees, with their queen, will hang clustered in the forcing-box, like any natural swarm, and may, at the proper time, be readily shaken out on a sheet, in front of their intended hive. Now put the forcing box on their old stand, and carry the parent-hive to some place where you cannot be annoyed by other bees. 577. It is important to make sure that the queen is removed, as she might be injured in the transfer of comb. Her presence among the driven bees can be ascertained in a few minutes, by the quietness of their behavior, or by the eggs which she drops on the bottom board, and which can easily be seen if a black cloth is spread under the forcing box (155). * There is little danger of loosening the combs of an old colony, but the great- est caution is necessary when the combs of a hive are new. If, in inverting such a hive, the broad sides of the combs, instead of their edges, are inclined downwards, the heat, and weight of the bees may loosen the combs, and ruin the colony. 300 THE APIARY. If the queen is not with the bees, a few will come out and run about, as if anxiously searching for something they have lost. The alarm is rapidly communicated to the whole colony ; the explorers are reinforced, the ventilators sus- pend their operations, and soon the air is filled with bees. If they cannot find the queen, they return to their old stand, and if no hive is there, will soon enter one of the adjoining colonies. If their queen is restored to them soon after they miss her, those running out of the hive will make a half-cir- cle, and return ; the joyful news is quickly communicated to those on the wing, who forthwith alight and enter the hive ; all appearance of agitated running about on the out- side of the hive ceases, and ventilation, with its joyful hum, is again resumed.* If the queen has not left the old hive, it is safer to return the bees and to resume the driving at another time. 578. To transfer the comb, have on hand tools for pry- ing off a side of the hive ; a large knife for cutting out the combs ; vessels for the honey ; a table or board, on which to lay the brood combs ; and water for washing off, from time to time, the honey which will stick to your hands. Have also a number of pieces of wire, No. 16, cut a little longer than the frame, and bent on the ends in this shape i 1 to be driven into the wood of the frame, and to hold the combs in place. Let a certain number of frames be in readiness, with three or four of these wires fastened on one side, and lay them on the table, wire-side down. You must also have your movable frame hive in readiness near the table, with an extracting pan (770) under it, instead of a bottom board, to receive what honey may drip. All this must be ready before disturbing the bees. 579. Having selected the worker-combs, carefully cut • To witness these interesting proceedings, it is only necessary to catch the queen and keep her until she is missed hy her colony. For greater security, she should he confined in a qneen cage (536) during the experiment. TRANSFERRING. 301 them rather large, so that they will just crowd into the frames, and retain their places in their natural position until the bees have time to fasten them. Now tack as many wires over them as may be necessary to hold them securely, and hang them in the hive. Drone combs should invariably be melted into wax. If drone-brood (168) is found, it can be fed to young chickens, who are very fond of the larvae. The bottom board should be put under the hive just before carrying it out. When the hive is thus prepared, the bees may be put into it and confined, water being given to them, until they have time to make all secure against robbers (664). If there is danger of robbers, it is preferable not to put the bees into the hive till late in the afternoon. They should be shaken in front of the new hive on a sheet (427) like a natural swarm. When the weather is cool, the transfer should be made in a warm room, to prevent the brood from being fatally chilled. An expert Apiarist can complete the whole opera- tion — from the driving of the bees to the returning of them to their new hive — in about an hour, and with the loss of very few bees, old or young. 580. When transferring in early Spring, it should be remembered that the worker-brood (168) is of great value ; and not the least bit of it should be neglected or wasted unnecessarily. After a week, or more, according to the season, the hive may be opened and the fastening removed. Dr. Kirtland thus spoke of the results of transferring some of his colonies to the movable-comb hives. " I had three stocks transferred to an equal number of Mr. Langstroth's hives. The first had not swarmed in two years, and had long ceased to manifest any industry ; the others had never swarmed. All the hives were filled with black and filthy comb, candied honey, concrete bee-bread, and an accumulation of the cocoons and larvae of the moth. Within twenty-four hours, each colony became reconciled to its new tenement, and began 302 THE APIARY. to labor with far greater activity than any of my old stocks. . . . I have now no stronger colonies than these, which I considered of little value till my acquaintance with this new hive." — Ohio Farmer, Dec. 12, 1857. Let not the novice, however, think that transferring bees is a task that requires but little skill. He who transfers suc- cessfully a large number of colonies may be called an expert in handling bees. The process, as it has been conducted by careless Apiar- ists, has resulted in the wanton sacrifice of thousands of colonies. 581. For the benefit of those who are timid in manipu- lations, we will give Mr. Jas. Heddon's method for trans- ferring, (page 562 of "Gleanings" 1885). About swarming time (406) Mr. Heddon drives the old queen and a major- ity of the bees into the forcing-box, he then removes the old hive a few feet back, and places the new hive with frames full of foundation (674) on its stand, and " runs in " the forced swarm. It would be well to return a part of the bees to the old hive, as its brood might be chilled if the weather becomes cool. Twenty-one days after the transfer of the bees, he drives the old hive clean of all its bees, uniting them with the former drive. As the worker brood of the old hive is all hatched, there is nothing left in it but the combs and the honey, which can be transferred at leisure in cool weather, or, the honey may be extracted (749), and the comb melted into wax (858). Out-Apiaries, 582. When an Apiarist wishes to make bee-culture his special occupation, he should expect to keep bees in more than one location. If he owns more than 120 colonies, we would advise his establishing an Out- Apiary. It is true OUT-APIARIES. 303 that there are many drawbacks to the cultivation of bees four or five miles off, but there are also some advantages. The crop sometimes fails in one locality, and is very good in another a short distance away. One Apiary may be in a hilly country, where white clover abounds, and another on low lands, where Fall blossoms never fail. It is well — according to a familiar proverb — not to " put all our eggs in one basket." In many years' practice of keeping bees in five or six different Apiaries, occupying a range of country about twenty miles in width, we have found out that the crop will vary greatly in a few miles, owing to the different flora of the various localities, and more especially to the greater or less amount of rain-fall at the proper time. We have also learned that an Apiary placed near a large body of water (the Mississippi), will produce less honey than one a mile or two from it. owing to the smaller area of pasturage in reach of the bees. 583. In establishing an Out-Apiary on some farmer's land, the following must be taken into consideration : Select a farm on which a grove or an orchard is near the house, some distance from the road. The place ought to be, at least, three miles in a bee-line from your own bee-farm. It is not necessary that it should be more than four miles away.* Locate your bees with some careful man. Do not trust a farmer who lets his fences fall, who leaves his mower in the yard over Winter, or puts his cows in his orchard. You will never rest easy, if you think that some of your hives may be upset any day by a vagrant cow. Do not put your bees on land which is tenanted. Let * Mr. J. M. Hambaugh, of Spring, 111. , harvested altogether different yields both in quality and quantity, from two Apiaries only two and a half miles apart . This agrees with our oft repeated experience in Apiaries three or four miles apart. 304 THE APIARY. them be placed at some responsible farmer's own home, for a tenant may leave on short notice, and you cannot remove your bees at all seasons. 584. The terms usually made by us for a bee location are as follows : The farmer furnishes us the Apiary ground, one spare room during extracting, and a shed or a corner in some empty room for our hives, combs, and fixtures. He also furnishes board for the Apiarist and his help while at work. In exchange, he gets one-fifth of the honey, and seventy-five cents for every natural swarm he harvests. His sole duties are, hiving swarms, and seeing that no accidents happen to the Apiary. When bees are run for extracted honey, the number of natural swarms is very limited (454). We can always find more bee locations than we want. In fact, we have never yet met a farmer who refused to take bees on such terms. We prefer giving the farmer a share of the crop, to giv- ing him a stated sum for ground rent, etc., as some of our leading bee-keepers do, because we thus give him an inter- est in our success, and he is more likely to pay attention to our bees, and to produce crops that will yield some honey. Association of interests means progress, peace, and har- mony. 5S5. Six Apiaries, containing in all 600 colonies, are probably the greatest number that one man can oversee. In good localities, an Apiarist will find more profit from six such Apiaries, than an intelligent farmer from half a Section of land, and the outlay of money is less. HONEY-HOUSE. 586. Few pursuits require so small an outlay for tools and implements as practical bee culture. Outside of the cost of hives, frames, sections, and honey packages, the total out" HONEY-HOUSE. 305 lay need not amount to $ 50. Almost any spare room will do for a honey room. Yet when the Apiarist wishes to be at ease, we would advise him to build his hone3^-house in the middle of his Apiary. The windows and doors of this building must all be provided with wire cloth netting, to exclude bees, flies, Fig. 99. WLNDO W-SCREEN . etc. We here give an engraving of a simple method of placing the wire screen, so as to allow these insects to escape. The netting is nailed on the outside of the window project- ing about six inches above. At the top three small slats are nailed between the frame and the netting, so as to leave a 20 306 THE APIARY. space of £ of an inch between the wire cloth and the wall, at the top of the window. The bees and flies that have been brought in with the combs, or that have entered the room, at some time or other, fly against the wire cloth, and soon find the small fissure above, through which they escape ; but, in returning, they smell the honey through the wire cloth, and forgetting that they have escaped between the wire and the wall, they try in vain to pass through the wire cloth. In the engraving, the window sashes have been removed, but their use in no way interferes with the screen, if the lower one is raised, or the upper one lowered, while there are bees in the room. SHIPPING AND TRANSPORTING BEES. 307 CHAPTER XI. Shipping and Transporting Bees. 587. In shipping colonies of bees by rail, it is not neces- sary to give them much ventilation, if they are sent during the cool weather of Spring. We have successfully shipped hundreds of colonies to all parts of the U. S., in early Spring, with no other ventilation than was afforded by the joints of a rough block nailed over the entrance of the hive. But, if the weather is warm, and the colony populous, plenty of air is needed. We usually replace the bottom board by a wire-cloth-frame protected by slats. The entrance should never be covered with wire-cloth, but should be entirely closed, for the old bees will worry themselves trying to get through it, and it will soon be clogged with dead bees. They should be given as much air as needed with the least possible amount of light. When the colony is so populous, that draught through the hive cannot injure the brood, we nail a screen over the frames also, and shade it with a board nailed on slats, run- ning across the ends of the hive. The closing of the portico alone, if there is one, with wire-cloth, is not practical, as a part of the swarm crowds into it and bars the ventilation. 588. The frames should, of course, be securely fastened in their places. For this purpose, Mr. Root uses sticks, or slats, of the depth of the hive, that fit between the frames and hold them. New combs had better not be shipped at all. If there is plenty of fresh honey, we would advise the extracting of all that is unsealed, previous to shipment. When there is brood in every comb, and the weather is warm, it is safer to remove a part of the brood, and put frames of dry comb 308 SHIPPING AND TRANSPORTING BEES. alternately with the frames of brood. The brood removed may be used to strengthen weak colonies. As a rule, it is better to ship small lots by Express, but large lots may be sent in early Spring, by freight, if they are not to be more than a week on the way. We have sent bees safely, from Illinois to Utah, by freight. 589. In shipping bees, or colonies, it is important to place conspicuous cautionary cards or labels on the pack- ages: Living Bees, Handle with Care, This side up, Keep out of the sun, etc. The damage done by rough railroad handling, is the greatest item of loss, in the transportation of bees properly packed. If colonies are shipped in carloads, they should be so placed, that the combs will run lengthwise, and not from side to side, as in vehicles drawn by horses. Sur- plus racks or stories should be shipped separately. 590. Some Apiarists, among whom we will cite the firm of Flanagan and Illinski of Belleville, 111., have practiced shipping bees by water routes to the Southern States in the Fail, for Winter, and returning them in Spring at the begin- ning of the hone} r harvest. If proper precautions are taken, this plan may be profitable, where low rates of transporta- tion can be obtained, but much judgment must be exercised as to the time of returning them North. As the colo- nies become strong very early in the South, if they are brought back North before the warm weather, their brood may become chilled, and a tendency to the developement of foul-brood is encouraged. 591. Delia Rocca, in his treatise on " Bee-culture in the Island of Syra," speaks of the Egyptian* method of keep- * " Mr. Cotton saw a man in Germany who kept all his numerous stocks rich by changing their places as soon as the honey-season varied . 'Sometimes he sends them to the moors, sometimes to the meadows, sometimes to the for- ests, and sometimes to the hills . In France— and the same practice has existed in Egypt from the most ancient times— they often put hundreds of hives in a boat, which floats down the stream by night and stops by day."— London Quarterly Review. FLOATING APIARIES. 309 ing bees on boats, which were floated up and down the Nile to take advantage of the different crops of honey at different points. It would even appear that the Greeks in the time of Colu- mella transported their hives to Egypt by sea, " the sea- son of blossoms being later than in Greece ; for after the month of September there is no pasture in Achaia for bees, whilst in Egypt flowers are in fall bloom even after that time, owing to the receding of the high waters of the Nile." He relates a laughable story about one of these floating Apiaries. One hive having been upset by accident on a boat, the enraged bees attacked the mariners unexpectedly, and forced them to jump into the river and swim to the shore, which likely, was not far distant, nor did they dare return, until they had provided themselves with a supply of smoke-producing ingredients. 592. There is a certain amount of fascinating romance connected with the idea of a floating Apiary, following the blossoms, on the waters of the great Mississippi, or of some of its tributaries. An attempt of this sort was made on a large scale, a few years ago, by a Chicago firm. It was a total failure, but we are inclined to think that the failure was due more to the lack of practical knowledge in bee- keeping, on the part of the managers, than to any other cause. 593. Transportation of bees from a location where blossoms are scarce to a good field, and returning them after the crop, is sometimes attended with fair success. Some Apiarists, located in places where the June crop alone can be depended upon, make it a practice to transport their hives to Fall pasturage every Sarnmer. We, ourselves, have taken 120 hives of bees, about eighteen miles, to the Missis- sippi river bottoms, in August, 1880, when the drouth had destroyed all hopes of a Fall harvest on the hills. The high waters of the Mississippi, which had receded a few 310 SHIPPING AND TRANSPORTING BEES. weeks before, had left those immense bottom lands covered with a luxuriant vegetation. The result fully answered our anticipations. Those lately starving colonies, yielded a boun- tiful surplus, while their sisters on the hills had to be fed for Winter. But the labor of transportation, the risk incurred, if the colonies are strong and heavy, and the difficulty of transporting old bee-hives, without danger of some bees escaping, make the habitual shipping of bees for pasturage hardly advisable. Shipping Queens. 594. It was in the numerous and partially successful attempts, which we made before 1874, to import bees from Italy, that we became acquainted with the conditions neces- sary to the shipping of queens. 595. When they are to be confined a long time, the question of food is the most important. Many were the blunders made by. the first shippers, who imagined that the} T required a large amount of food, and literally drowned them in honey. By repeated and costly experiments, we ascertained that the bees that arrived in the best condition were those that were fed on the purest saccharine matter. Those that suffered the most, were those that had the most watery (249), or the darkest, honey (627). Water (271), which some Italian shippers persisted in giving them, in spite of what we could say, was noxious ; as the consump- tion of it, with the food, helped to load their abdomen with matter that could not be discharged (73), causing what is improperly called dysentery (784). Water is needed only in brood rearing. 596. Old bees, or rather, bees that have begun to work in the field, will stand a longer trip than young bees, as the latter consume more honey, and need to discharge their abdomen oftener. SHIPPING QUEENS. 311 The shipping boxes in which bees are usually sent, from Italy, are about three inches deep, by three inches in width, and four inches in length, with two small frames of comb, one with thick sugar syrup, the other dry. From fifty to seventy-five bees are put with one queen in each box. Air holes are cut into the sides of the boxes, and these are fas- tened together in a pyramidal shape, with an outer covering of tin, to which is fastened the handle. Queens thus put up, have reached us after thirty-six days of confinement with very little loss, and it is in this way that the greatest num- ber of imported queens are received. The usual transit from Italy to New York, takes from ten to fourteen days. If the importer receives his bees, through a custom-house broker, they will not be delayed in the cus- tom-house, but, if this precaution is neglected, the bees may be held at the custom-house for clearance, and the poor insects will die, martyrs to the protection (?) of the coun- try's interests. 597. We might mention in connection with this, an oft- repeated incident, so touching and sweet, as to seem more like a romancer's fable, or a poetic idyl, than a mere fact. On receiving the boxes containing Italian queens, we noticed that frequently all the bees shipped with the queen had died, she being the only one alive in her prison. We after- ward found out that the faithful little subjects had denied themselves nourishment, and starved to death, sacrificing themselves, that their queen might not be deprived of food. Mailing Queens. 598. To Mr. Frank Benton is due the credit of first mailing queens safely across the ocean, but the mailing of them, with more or less success on the American continent, has been practiced for years. Messrs. J. H. Townley and H. Alley, appear to have been the first to succeed, as early as 1868. 312 SHIPPING AND TRANSPORTING BEES. The methods have been so far improved, that our friend Mr. Paul Viallon, a practical queen-breeder of Louisiana, sent us 150 queens in the season of 1885, by mail, with the loss of only three or four. The cages he used were the Peet Fig. 100. THE BENTON CAGE. (From the " Itlustrierte Bienenzeitung .") cages. Yet the mails are so roughly handled generally, that we would not advise the sending of valuable queens in this way. The food given is the Scholz candy (613) made of powdered sugar and honey kneaded together. A sufficient number of bees must be put with the queen to keep her warm, but not enough to crowd the cage — six to ten bees are sufficient, in Summer. 599. Of late years, at the suggestion of friend Root, the shipping of bees by the pound instead of in colonies, has been practiced, for the purpose of stocking Apiaries. Since the invention of comb foundation, a hive may be supplied with comb of the best quality, at comparatively small cost, and a choice queen, with a pound or two of bees, can build up a very fair colony, if purchased at the beginning of the clover harvest and properly cared for. They are shipped in wire- cloth cages (fig. 101) and fed with Scholz candy for the trip. MAILING QUEENS. 313 600. How many bees are there in a pound? This ques- tion has been propounded to us several times. L'abbe Collin, by careful experiments, found that in a normal con- dition it takes about 5,100 bees to weigh a pound ; while in the swarm, when they are supplied with honey, it takes less than 4,300. Their weight will vary according to the quantity of honey they have absorbed. 601. Parties contemplating the breeding of bees and queens (489) for sale, will do well to locate themselves as far South as convenient for easy shipment, as it is by far more lucrative to raise them there than in the North. This is very easy to understand. In the South, the bees usually winter safely, and breed early, so that the colonies are strong, while those of the Northern latitudes are still con- fined in their hives, struggling against the rigors of Winter. If an Apiarist purchases bees or queens at the proper time — Spring — to recruit his Winter loss, he will most likely buy them from some location South of him, as he can there obtain stronger colonies, and earlier queens, than in his own latitude. 602. On the other hand, as the honey of the Northern States is superior in quality to Southern honey, bee-culture for honey production can be made fully as profitable in the North, in spite of the difficulties of wintering (619). Transporting Bees Short Distances. 603. The box-hives may be prepared for removal by inverting them and tacking a coarse towel or sack over them, or strips of lath may be laid over wire-cloth, and brads driven through them into the edges of the hive. Confine the hive, so that it cannot be jolted, in a wagon with springs, and be sure, before starting, that it is impossible for a bee to get out. The inverted position of the hive will give the bees what air they need, and guard their combs 314 SHIPPING AND TRANSPORTING from being loosened. It will be next to impossible, in warm weather, to move a hive which contains much new comb (215), or much fresh honey (249). Indeed, we would strongly urge beginners not to transport bees in warm weather. Just before fruit-blossom is the best time to transport full colonies of bees. Some advise trans- porting them in Winter, on sleds, but after trial we con- demned this method also. The joltings of a sleigh, though few, are hard, and will break combs ; and disturbing bees in cold weather should always be discouraged. When hauling bees in warm weather, do not load or unload them while the horses are hitched to the wagon. We have seen serious accidents resulting from a hive dropping from a man's hands to the ground, causing the bees to escape, and to sting both the driver and the horses severely. If a colony, in hot weather, is to be moved any distance in movable-frame hives, it will be advisable to fasten frames of wire-cloth, both to the top and bottom of the brood apartment, and to transport the bottom-board (344), cloth, mat, or surplus cap or cover (355), separately. Glass hives ought never to be sent off for fear of accident. Hives with movable-frames should be arranged in such a position that the frames run from side to side, and not from front to rear, in the carriages. 603. (bis.) Upon arrival at the Apiary, if the weather is warm, you should at once set the hive in proper position, and release the bees. It is good policy to place a shade board in front of the entrance for a day or two. The object of this is to cause the old bees to notice that something is changed in their location, and to turn around and mark the place, instead of starting out as usual in a bee-line without looking behind. 604. New swarms may be brought home in any box which has ample ventilation. A tea-chest, with wire-cloth on the top, sides, and bottom-board, will be found very con- TRANSPORTING- BEES SHORT DISTANCES. 315 venient. Of late years, Mr. A. I. Root, and others, have practiced the shipping of bees by the pound, with or with- out queens, to stock Apiaries. Their wire-cloth cages CAGE FOR ONE-HALF POUND TIN FUNNEL FOR SHAKING THE OF BEES. BEES INTO THE CAGES. (From Root's "A. B. C") or boxes for shipping bees, are just the thing for hauling natural swarms, if made large enough (fig. 101). The bees may be shut up in the box as soon as they are hived. New swarms require even more air than old colonies, being full of honey and closely clustered together. They should be set in a cool place, and, if the weather is very sultry, should not be removed until night. Many swarms are suffocated by the neglect of these precautions. The bees may be easily shaken out from this temporary hive. When movable- comb hives are sent away to receive a swarm, two strips of wood, with pieces nailed to them, to go between the frames and keep them apart, should be laid over the frames, or they may be tacked fast in their proper places. The enamel-cloth (352) should be fastened on, by nail- ing strips all around over it. For the further preparation of hives to receive swarms, see (421). 316 FEEDING BEES. CHAPTER XH. Feeding Bees. 605. Few things in practical bee-keeping are more im- portant than the feeding of bees ; yet none have been more grossly mismanaged or neglected. Since the sulphur-pit has been discarded, thousands of feeble colonies starve in the Winter, or early Spring ; while often, when an unfavor- able Summer is followed by a severe Winter, and late Spring, many persons lose most of their colonies and aban- don bee-keeping in disgust. In the Spring, the prudent bee-keeper will no more neglect to feed his destitute colonies, than to provide for his own table. At this season, being stimulated by the returning warmth, and being largely engaged in breeding, bees re- quire a liberal supply of food, and many populous colonies perish, which might have been saved with but trifling trouble or expense. " If e'er dark .Autumn, with untimely storm, The honey'd harvest of the year deform ; Or the chill blast from Eurus' mildew wing, Blight the fair promise of returning Spring; Full many a hive, but late alert and gay, Droops in the lap of all-inspiring May." Evans. " If the Spring is not favorable to bees, they should be fed, because that is the season of their greatest expense in honey, for feeding their young. Having plenty at that time, enables them to yield early and strong swarms." — (YVildman.) A bee-keeper, whose colonies are allowed to perish after the Spring has opened, is on a level with a farmer whose cattle are allowed to starve in their stalls ; while those who withhold from them the needed aid, in seasons when they SPRING FEEDING. 317 cannot gather a supply, resemble the merchant who burns up his ships, if they have made an unfavorable voyage. Columella gives minute instructions for feeding needy colonies, and notes approvingly the directions of Hyginus — whose writings are no longer extant — that this matter should be most carefully (" diligentissime") attended to. Spring Feeding. 606. When bees first begin to fly in the Spring, it is well to feed them a little, as a small addition to their hoards encourages the production of brood. Great caution, how- ever, should be used to prevent robbing. Feeding should always be attended to in the evening (666), and as soon as forage abounds, the feeding should be discon- tinued. If a colony is over-fed, the bees will fill their brood-combs, so as to interfere with the production of young, and thus the honey given to them is worse than thrown away. The over-feeding of bees resembles, in its results, the noxious influences under which too many children of the rich are reared. Pampered and fed to the full, how often does their wealth prove only a legacy of withering curses, as, bankrupt in purse and character, they prematurely sink to dishonored graves. Colonies, which have abundant stores, may be incited to breed, by simply bruising the cappings of a part of their honey. This causes them to feed their queen more plenti- fully, and more eggs are laid. 607. Bees may require feeding, even when there are many blossoms in the fields, before the beginning of the main harvest, if the weather is unfavorable to the honey flow. Large quantities of brood hatch daily, requiring much food, and a few days without honey sometimes en- 318 FEEDING BEES. dangers the life of colonies, on the eve of a plentiful har- vest. The best way to feed destitute colonies in Spring is to give them combs of honey, which have been saved from the previous season for this purpose. If such cannot be had, the food may be put into an empty comb, and placed where it can be easily reached by the bees. Honey partially candied (830), may be given them, in small quantities, by pouring it over the top of the combs in which the bees are clustered. A bee deluged by sweets, when away from home, is a sorry spectacle ; but what is thus given them does no harm, and they will lick each other clean, with as much satisfaction as a little child sucks its fingers while feasting on sugar candy. If a colony has too few bees, its population must be replenished before it is fed. To build up small colonies by feeding , requires more care and judgment than any other process in bee-culture, and will rarely be required by those who have movable-frame hives. It can only succeed when everything is made subservient to the most rapid produc- tion of brood. Fall Feeding. 608. By the time the honey-harvest closes, all the colo- nies ought to be strong in numbers ; and, in favorable sea- sons, their aggregate resources should be such that, when an equal division is made, there will be enough food for all. If some have more, and others less than they need, an equi- table division may usually be effected in movable-frame hives. Such an agrarian procedure would soon overthrow human society; but bees thus helped, will not spend the next season in idleness ; nor will those deprived of their surplus limit their gatherings to a bare competency. FALL FEEDING. 319 After the first heavy frosts, when forage is over, all feed- ing required for wintering bees should be carefully attended to. If delayed to a later period, the bees may not have sufficient time to seal over their honey, which, by attracting moisture and souring, may expose them to dysentery. 609. Feeders of all descriptions are made and sold.* In our opinion, the best feeder for liquid food is a simple fruit can or a jar. Mr. Root uses a can with perforated cover — we prefer the ordinary fruit can, because they are found in every house. After filling the can, we tie a cloth over the mouth of it, and invert it over a dish. The honey or syrup will leak through at first, but the atmospheric pressure soon stops its running, when the can may be carried to the hive in Kg- 102. this position, and set immediately over CAN FEEI)ER « the cluster — without the dish — in the upper story or cap, a part of the enamel cloth being raised for this purpose. The bees can then get their food, without being chilled even in cold weather, and they promptly store it away in the combs, for later use. It is desirable to get through with Fall feeding as rapidly as possible,! as the bees are so excited by it that they con- sume more food than they otherwise would. In feeding a large amount for Winter supply, we have given as many as five quart-cans to one colony at one time. Wooden feeders in the shape of troughs, as made by Root, Shuck, and Heddon, have the advantage over the cans of not need- ing removal to be refilled, but they are not so well in reach of the cluster. * Columella recommended wool, soaked in honey, for feeding bees. When the weather is not too cold, a saucer, howl, trough, or vessel of any kind, filled with straw, makes a convenient feeder. t Feeding colonies put late in the Fall into empty hives, 'unless combs can Joe given to them, will seldom pay expenses. 320 FEEDING BEES. Fig. 103. ROOT FEEDER. 61 0. As honey is scarce in the seasons when Fall feeding has to be resorted to, we will give directions for making good syrup for Winter food: Dissolve twenty pounds of granulated sugar (use none but the best) in one gallon of boiling water, with the addition of five or six pounds of honey. Stir till well melted, and feed while lukewarm. 611. Sugar candy, for feeding bees, was first recommended by Mr. Weigel of Silesia. If the candy is laid on the frames just above the clus- tered bees, it will be accessible to them in the coldest weather. It may also be put be- tween the combs, in an upright position, among the bees, or poured into combs before it is cold. To make candy for bee-feed: add water to sugar, and boil slowly until the water is evaporated. Stir constantly so that it will not burn. To know when it is done, dip your finger first into cold water and then into the syrup. If what adheres is brittle to the teeth, it is boiled enough. Pour it into shallow pans, a little greased, and, when cold, break it into pieces of a suitable size. 612. Before attempting to make candy for bee feed, the novice will do well to read the following advice from the witty pen of friend A. I. Root : "If your candy is burned, no amount of boiling will make it hard, and your best way is to use it for cooking, or feeding the bees in Summer. Burnt sugar is death to them, if fed in cold weather. You can tell when it is burned by the smell, color and taste. If you do not boil it enough, it will be soft and sticky in warm wea- ther, and will be liable to drip, when stored away. Perhaps you had better try a pound or two, at first, while you "get your hand in". Our first experiment was with 50 lbs. and it all got 'scorched 1 somehow Before you commence, make up your FALL FEEDING. 321 mind, you will not get one drop of sugar or syrup on the floor or table. Keep your hands clean, and everything else clean, and let the women folks see that men have common sense; some of them at least. If you should forget yourself, and let the candy boil over on the stove, it would be very apt to get on the floor, and then you would be very likely to get "your foot in it", and before you got through, you might wish you had never heard of bees or candy either ; and your wife, if she did not say so, might wish she had never heard of anything that brought a man into the kitchen. I have had a little experience in the line of feet sticking to the floor and snapping at every step you take, and with door knobs sticking to the fingers, but it was in the honey house." ("A. B. C." page 48.) 613. The Rev. Mr.Scholz, of Silesia, more than 30 years ago, recommended the following as a substitute for sugar- candy in feeding bees : " Take one pint of honey and four pounds of pounded lump- sugar; heat the honey, without adding water, and mix it with the sugar, working it together to a stiff doughy mass. When thus thoroughly incorporated, cut it into slices, or form it into cakes or lumps, and wrap them in a piece of coarse linen and place them in the frames. Thin slices, enclosed in linen, may be pushed down between the combs. The plasticity of the mass enables the Apiarist to apply the food in any manner he may desire. The bees have less difficulty in appropriating this kind of food than where candy is used, and there is no waste." This preparation has been used of late years with suc- cess, as food in mailing and shipping bees, under the name of "Good's candy." Thick sugar-syrup and candy are undoubtedly the best bee-food, especially when the bees are to be confined a long time and no brood is to be raised. 614. An experiment of De Layens has proved that bees can use water to dissolve sugar (272 bis). The same writer relates how a French bee-keeper, Mr. Beuzelin, feeds his bees in Winter : " He saws into slices a large loaf of lump-sugar, and places these slices upon the frames under a, cloth. Another bee-keeper 2i 322 FEEDING BEES. told me several years ago of having saved colonies in straw hives by simply suspending in them, with wires, lumps of sugar weighing several pounds." — {Bulletin de la Suisse Romande.) While such methods succeed in a mild and damp climate, like that of France, they are not advisable in the Northern part of the United States, unless the bees are wintered in cellars (646). 615. The prudent Apiarist will regard the feeding of bees — the little given by way of encouragement excepted — as an evil to be submitted to only when it cannot be avoided, and will much prefer that they should obtain their supplies in the manner so beautifully described by him whose inimi- table writings furnish us, on almost every subject, with the happiest illustrations : " So work the honey-bees, Creatures that, by a rule in Nature, teach The art of order to a peopled kingdom. They have a king and officers of sorts, Where some, like magistrates, correct at home, Others, like merchants, venture trade abroad ; Others, like soldiers, armed in their stings, Make boot upon the Summer's velvet buds ; Which pillage they, with merry march, bring home To the tent royal of their emperor, Who, busied in his majesty, surveys The singing masons building roofs of gold; The civil citizens kneading up the honey ; The poor mechanic porters crowding in Their heavy burdens at his narrow gate ; The sad-eyed justice, with his surly hum, Delivering o'er, to executors pale, The lazy, yawning drone." Shakespeare's Henry F, Act J, Scene 2. 616. All attempts to derive profit from selling cheap honey or syrup, fed to bees, have invariably proved unsuc- cessful. The notion that they can change all sweets, however poor their quality, into honey, on the same principle that FEEDING FOR PROFIT. 323 cows secrete milk from any acceptable food, is a complete delusion. It is true that they can make white comb from almost every liquid sweet, because wax being a natural secretion of the bee, can be made from all saccharine substances, as fat can be put upon the ribs of an ox by any kind of nour- ishing food. But the quality of the comb has nothing to do with its contents ; and the attempt to sell, as a prime article, inferior sweets, store 1 in beautiful comb, would be as truly a fraud as to offer for good money, coins which, although pure on the outside, contain a baser metal within. Different kinds of honey or sugar-syrup fed to the bees can be as readily distinguished, after they have sealed them up, as before. The Golden Age of bee-keeping, in which bees are to transmute inferior sweets into such balmy spoils as were gathered on Hybla or Hymettus, is as far from prosaic reality as the visions of the poet, who saw — "A golden hive, on a golden bank, Where golden bees, by alchemical prank, Gather gold instead of honey." Even if cheap sugar could be ' ' made over ' ' by the bees so as to taste like honey, it would cost the producer, taking into account the amount consumed (223) in elaborating wax, almost if not quite, as much as the market price of white clover honey ; and, if he feeds his bees after the natural supplies are over, they will suffer from filling up their brood cells. 617. The experienced Apiarist will fully appreciate the necessity of preventing his bees getting a taste of forbidden sweets, and the inexperienced, if incautious, will soon learn a salutary lesson. Bees were intended to gather their supplies from the nectaries of flowers, and, while following their natural instincts, have little disposition to meddle with property that does not belong to them ; but, if their 324 FEEDING BEES. incautious owner tempts them with liquid food, at times when they can obtain nothing from the blossoms, the}^ become so infatuated with such easy gatherings as to lose all discretion, and will perish by thousands if the vessels which contain the food are not furnished with floats, on which they can safely stand to help themselves. As the fly was not intended to banquet on blossoms, but on substances in which it might easily be drowned, it cau- tiously alights on the edge of any vessel containing liquid food, and warily helps itself ; while the poor bee, plunging in headlong, speedily perishes. The sad fate of their un- fortunate companions does not in the least deter others who approach the tempting lure, from madly alighting on the bodies of the dying and the dead, to share the same miser- able end ! No one can understand the extent of their infatuation, until he has seen a confectioner's shop assailed by myriads of hungry bees. We have seen thousands strained out from the syrups in which they had perished ; thousands more alighting even upon the boiling sweets ; the floors covered and windows darkened with bees, some crawling, others flying, and others still, so completely besmeared as to be able neither to crawl nor fly — not one in ten able to carry home its ill-gotten spoils, and yet the air filled with new hosts of thoughtless comers. We once furnished a candy-shop, in the vicinity of our Apiary, with wire-gauze windows and doors, after the bees had commenced their depredations. On finding themselves excluded, they alighted on the wire by thousands, fairty squealing with vexation as they vainly tried to force a passage through the meshes.* Baffled in every effort, they attempted to descend the chimney, reeking with sweet odors, even although most who entered it fell with scorched * Manufacturers of candies and syrups will find it to their interest to fit such guards to their premises; for, if only one hee in a hundred escapes with its load, considerable loss will be incurred in the course of the season. USE AND ABUSE. 325 wings into the fire, and it became necessary to put wire- gauze over the top of the chimney also. (586). 618. As we have seen thousands of bees destroyed in such places, thousands more hopelessly struggling in the deluding sweets, and yet increasing thousands, all unmind- ful of their danger, blindly hovering over and alighting on them, how often have they reminded us of the infatuation of those who abandon themselves to the intoxicating cup ! Even although such persons see the miserable victims of this degrading vice falling all around them into premature graves, they still press madly on, trampling, as it were, over their dead bodies, that they too may sink into the same abyss, and their sun also go down in hopeless gloom. The avaricious bee that, despising the slow process of extracting nectar from "every opening flower," plunges recklessly into the tempting sweets, has ample time to be- wail her folly. Even if she does not forfeit her life, she returns home with a woe-begone look, and sorrowful note, in marked contrast with the bright hues and merry sounds with which her industrious fellows come back from their happy rovings amid ' ' budding honey-flowers and sweetly- breathing fields.' ' 326 WINTERING AND SPRING DWINDLING. CHAPTER XIII Wintering and Spring Dwindling, Wintering. 619. Bees can be wintered safely in nearly all climates, where the Summer is long enough to enable them to store a Winter supply. In the natural state, the vital heat of the live hollow trees in which they dwell, helps to maintain a higher temperature than that of the outside air, and bees Winter so well in such abodes, that travelers, who visit Northern Russia, wonder how so small an insect can live in such inhospitable countries. 620. As soon as frosty weather arrives, bees cluster com- pactly together in their hives, to keep warm. They do not assemble on combs full of honey, but on the empty comb just below the honey. They are never dormant, like, wasps and hornets, and a thermometer pushed up among them will show a Summer temperature, even when, in the open air, it is many degrees below zero. The bees in the cluster are imbricated, like the shingles of a roof, each bee having her head under the abdomen of the one above her, and so on, to the ones who are in reach of the honey. These pass the honey to those below them, which pass it to the next, and so on, to the bottom of the mass. 621. When the cold becomes intense, they keep up an incessant tremulous motion, in order to develop more heat* * Everybody knows that motion transforms itself into heat, and that heat is hut a form of motion . . . . -whether the motion comes from a large body or from a small one, whether this motion be suddenly or gradually stopped, the result is the same, it is transformed into heat.— (Flammarion, ' 'Le Monde Avant la Creation de 1' Homme. ' ') WINTERING. 327 by active exercise ; and, as those on the outside of the clus- ter become chilled, they are replaced by others. Besides, the fanning of wings, which causes this roar, sends the warm air from the top of the cluster to the bottom of the hive — thus warming the bees placed at the lowest part of the cluster ; and these, if not too chilled, take advantage of a warmer day, to climb above the mass, and get honey in their turn. When the weather is very cold, their humming can often be heard outside of the hive ; and, if the hive be jarred, at any time, there comes a responsive murmur, which is longer or shorter in duration, and lower or higher in tone, accord- ing to the strength of the colony. 622. As all muscular exertion requires food to supply the waste of the system, the more quiet bee 3 can be kept, the less they will eat. It is, therefore, highly important to preserve them as far as possible, in Winter, from every degree, either of heat or cold, which will arouse them to great activity. When all the food which is in their reach is consumed, they will starve, if the temperature is too cold to allow them to move their cluster to the parts of the combs which con- tain honey ; hence, if the central combs of the hive are not well stored with honey, they should be exchanged for such as are, so that, when the cold compels the bees to recede from the outer combs, they may cluster among their stores. In districts where bees gather but little honey in the Fall, such precautions, in cold climates, will be spe- cially needed, as, often, after breeding is over, their central combs will be almost empty. 623. It is impossible to say how much honey will be needed to carry a colony safely through the Winter. Much will depend on the way in which they are wintered, whether in the open air or in special depositories, where they are protected against the undue excitement caused by sudden 328 WINTERING AND SPRING DWINDLING. and severe atmospheric changes ; much, also, on the length of the Winters, which vary so much in different latitudes, and the forwardness of the ensuing Spring. In some of our Northern States, bees will often gather nothing f or more than six months, while, in the extreme South, they are seldom deprived of all natural supplies for as many weeks. In all our Northern and Middle States, if the colo- nies are to be wintered out of doors, they should have at least twenty-five pounds of honey. In movable-frame hives, the amount of stores may be eas- ily ascertained by actual inspection. The weight of hives is not always a safe criterion, as old combs are heavier than new ones, besides being often over-stored with bee-bread. (263.) 624. Practical bee-keepers usually judge of the amount of stores by sight. The majority of combs in an ordinary Langstroth hive should be about half full of honey, for out- door wintering, in this latitude. Remember that food is needed, not only to carry them through the Winter, but also to help them to rais j brood largely, during the cold days of early Spring. Bees do not waste their stores, and the wealthy colonies w 11 usually be found stronger, and better prepared for the following harvest. Enthusiastic beginners, in Apiculture, are apt to overdo extracting (753), leaving too little honey in the brood- chamber for Winter. If the bees are not actually crowded with honey, we would advise them to leave, to strong colo- nies, all the honey that the brood-chamber contains. Some may think that nine or ten heavy Quinby frames, are too many for a colony, for they may be wintered on six or seven. We will here give a bit of our experience on that point : 625. Some 18 }-ears ago, in an Apiary away from home, where we were raising comb-honey (719), we had a number of swarms, which, in the rush of the honey-crop, we did not examine until their combs were built. At that time, the WINTERING. 329 triangular bar (319) was the guide principally used, and the combs of some of these swarms were joined together in a way that rendered the frames immovable. In the Fail, we extracted (751) from the brood-chamber of nearly every colony, as was ihen our practice, leaving only seven Quinby frames on an average — for Winter. The colonies, that had crooked combs, were left with all their stores — ten frames. — because we could not disturb them without break- ing combs, and causing leakage and robbing, and it was not the proper season to transfer (574) them. These colonies did not have to be fed, the following Spring, became very strong, and yielded the largest crop. This untried-for result caused us to make further experiments, which proved that there is a profit in leaving, to strong colonies, a large quantity of honey, so that they will not limit their Spring breeding. 626. The quality of the bee-food is an important matter in wintering bees. Protracted cold weather compels them to eat large quantities of honey, filling their intestines with fecal matter which they cannot void, for bees never discharge their faeces in the hive (73), unless they are confined too long, or greatly disturbed. Unhealthy food in prolonged confinement, sooner or later causes diarrhea (784), not only in wintering out of doors, but in cellar wintering (646), and in shipping bees long distances (587). Diarrhea, or as some call it, dysentery, in bees, is not properly a disease, since it is only caused by the retaining in the abdomen, of a large amount of excrements, which in ordinary circumstances would be voided regularly.* These excrements or faeces, from a reddish yellow to a muddy black in color, according to the quality of the food eaten, * Whenever bees have been confined for two weeks or more, they discharge in flight excrements which soil everything about the Apiary. The house- keeper avoids hanging clothes ont to dry on such days 330 WINTERING AND SPRING DWINDLING. have an intolerably offensive smell. In excessive confine- ment, with a large consumption, from any cause, of more or less healthy food, when bees can no longer retain the excre- ments in their distended abdomen, they void them upon one another, upon the combs, upon the floor, and at the entrance of the hive, "which bees in a healthy state are particularly careful to keep clean." If bees can void them, in flight (73), before it is too late, they experience no bad effects, hence it is indispensa- ble, that bees wintered out of doors should be enabled to fly, at intervals, during the Winter. 627. From numerous experiments made, it is evident that the purest saccharine matter will feed them with the least production of faeces. Hence watery, unripe, or sour honey, and all honey containing extraneous matter, are more or Jess injurious to confined bees. Dark honey containing a large proportion of mellose is inferior to clover-honey or sugar-syrup. Honey harvested from flowers, which yield much pollen (263), is likely to contain many floating grains of it, and will be more injurious than clear, trans- parent honey, in cases where bees will be confined to their hives by cold for five or six weeks. Honey- dew (255) seems worse yet. The juices of fruits, apples, grapes, etc. (877), are worst of all. In the Winter of 1880-81, we purchased the remains of some 90 colonies, that had been winter-killed, and in which the only food left was apple- juice, that had been carried in, during the preceding Fall, and had turned to cider. This unwholesome food in Winter confinement, by causing diarrhea, had killed bees every- where around us (784). 628. Happily these instances, of bees storing apple- juice, are scarce, but the practical bee-keeper will not allow such food to remain in the hive. It can be extracted (749), boiled, and fed back in Spring, for bees do not suffer from WINTERING. 331 this food when not confined to their hives. The same may be said of inferior or unripe honey (261). Much unsealed honey in the comb is injurious for Win- ter, even if the honey is ripe. This unsealed honey gathers moisture on account of its hygrometric properties, and be- comes thin and watery. In addition to this peculiarity, honey, when cold, condenses the moisture or steam of the bees, in the same manner that a pitcher of cold water con- denses the moisture of the air in a warm room. In some Winters, we have seen unsealed honey gather so much of the moisture of the bees that it overflowed, and ran out of the cells to the bottom-board. Luckily the bees usually consume this honey first, before Winter begins. 629. To avoid the accidents caused by poor honey, some Apiarists have suggested that all the honey might be extracted every Fall, and sugar-syrup fed in its place. This system is even carried farther by the inverting process, which (726) compels the bees to place all their honey in the surplus sections (721), leaving dry all the combs of the brood-chamber. At the first glance, this course seems profitable, when the difference between the price of comb-honey (783) and the cost of sugar-syrup is considered, but when we take into acccount the trouble of feeding, and the poor results obtained in wintering the bees, we see much labor for a small profit. Having ascertained that bees winter better on Spring or light-col- ored honey (782), we no longer extract from the brood- chamber, avoiding the annoyance and the extra labor of feeding. Our experience has convinced us that, unless the Spring crop has failed, or the food is decidedly bad, such as unripe honey (249), or honey-dew (255), or fruit-juice (877), it is cheaper to winter bees on natural stores. When sugar-syrup is needed, none but the best sugar should be used. (See Feeding. 605.) 630. All empty combs, whether brood-combs or surplus- 332 WINTERING. combs, should be removed from the hive previous to cold weather, as the bees, which may cluster in them, would starve at the first cold spell without being able to join the cluster. We have seen a whole colony perish, during a cold fortnight in December, because they had occupied an extracting story (which had but little honey in it, and had been left on by neglect), although there was plenty of honey in the hive, a few inches below them. The space, left empty by the removal of the combs, should be filled with a warm material placed between the side of the hive and the division-board. 631. As some bees which cluster on the outside combs are often unable to join the others in cold weather, it would be well to have holes, or Winter passages, through the combs, such as will allow them to pass readily, in cold weather, from one to another ; but if these holes are made before they feel the need of them, they will frequently close them. It is suggested that small tubes made of elder, the pith of which has been removed, would make permanent Winter-passages, if inserted in the comb, at any time. On a cold November day, Mr. Langstroth found bees, in a hive without any Winter-passages, separated from the main cluster, and so chilled as not to be a< >le to move ; while, with the thermometer many degrees below zero, he repeat- edly noticed, in other hives, at one of the holes made in the comb, a cluster, varying in size, ready to rush out at the slightest jar of their hive. It has been found quite practical to give them a passage above the combs, or between the combs and the straw-mat, or quilt, above them. The Hill device is very good for this purpose, although we find that the bees often have bridge- combs in sufficient quantity above the frames to give them the necessary passage. OUT-DOOR WINTERING. 333 Out-Door Wintering. 632. The usual mode of allowing bees to remain all Winter on their Summer stands, is, in cold climates, very objectionable. In those parts of the country, however, where the cold is seldom so severe as to prevent them from flying, at frequent intervals, from their hives, no better way, all things considered, can be devised. In such favored regions, bees are but little removed from their native climate, and their w.nts may be easily supplied, without those injurious effects which commonly result from disturbing them when the weather is so cold as to confine them to their hives. If the colonies are to be wintered in the open air, they should all be made populous, and rich in stores, even if to do so requires their number to be reduced one-half or more. The bee-keeper who has ten strong colonies in the Spring, will, by judicious management with movable-frame hives, be able to close the season with a larger Apiary than one who begins it with thirty, or more, feeble ones. 632 (bis). Small colonies consume, proportionally, much more food than large ones, and then perish from inability to maintain sufficient heat. Bees, in small or contracted hives, especially when de- prived of all the honey gathered in Spring, as stated be- fore (629), have too scanty a population for a successful wintering, especially out of doors ; for, as it is by eating that bees generate warmth, the abdomens of a small number are soon filled with residues, and if the cold continues for weeks the bees get the diarrhea (784). We have often seen colonies in small hives perishing side by side with large ones whose bees were very healthy. Such facts abound, and we have but to open the bee* journals to find the confirmation of our statement, 334 WINTERING. In the American Bee-Journal for February 8, 1888, page 83, Mr. J. P. Stone of Holly, Mich., asks why a colony, which was hived in 1859 in a large box, is prospering yet, while others have perished. The size given, 16X16X22, which shows that the box has twice the capacity of an 8-frame Langstroth hive, answers his question. In the following number of the same journal, page 107, Mr. Heddon mentions a colony which had wintered safely for seven years in a box ten times larger than the Lang- stroth, while many others died by its side. "The colony, when transferred, contained about double the number of bees usually raised from one queen." Fig. 104. COMMON HIVES PROTECTED BY STRAW. (From Hamet.) Yet small colonies can sometimes be safely wintered, if their combs and honey are not spread over a large space, and if they are sheltered so as to maintain the proper heat. It is therefore indispensable to reduce the combs of a hive to the amount of room which the bees can best keep warm, by the use of the division or contracting board (349), without forgetting to leave a sufficient supply of good honey. UNITING 335 Uniting. 633. A queenless colony, in the Fall, should always be united to some other hive. If two or more colonies, which are to be united in the Fall, are not close together, their hives must be gradually drawn nearer, and the bees may then, with proper precau- tions, be put into the same hive. For this purpose, it is well to kill the poorest queen (if both have queens) and keep the best. This may be dispensed with, but the pru- dent bee-keeper will never neglect an opportunity to im- prove his stock. On a cool November day, the combs of the weakest colony that bear the cluster, should be lifted all together, and inserted in the other hive, after the bees of the latter have been thoroughly frightened with smoke. (382.) 634. If, when two colonies are put together, the bees in the one on the old stand are not gorged with honey, they will often attack the others, and speedily sting them to death, in spite of all their attempts to purchase immunity, by offering their honey. The late Wm. W. Cary, of Cole- raine, Massachusetts, who has long been an accurate observer of the habits of bees, united colonies very success- fully, by alarming those that were on the old stand ; as soon as they showed by their notes, that they were subdued, he gave them the new-comers. The alarm which causes them to gorge themselves with honey, puts them, doubtless, upon their good behavior, long enough to give the others a fair chance. They can also be made to unite peaceably, by sprinkling a little sweet-scented water on them (485). It is well to put a slanting board in front of the entrance (603 bis) to show the moved bees that their location is changed. The empty hive should be removed from its place to prevent the bees 336 WINTERING. from returning to it. The number of combs in the united colony can be reduced as soon as the bees have all clustered together. In this manner a strong colony with little honey, and a weak one with plenty of stores, can be united to form a good hive of bees. Out-Door Sheltering. 635. The moving of a colony to a warmer or better sheltered place, just before Winter, is not advisable, for a great many bees, not having noticed their new location, would perish of cold, while searching for their home, and the population would be greatly decreased. In our Northern, Middle and Western States, the style of hive used has a considerable influence on the safety of out- door wintering. With hives that are single- walled all around, great care should be taken to shelter the bees from the piercing winds, which in Winter so powerfully exhaust their animal heat ; for, like human beings, if sheltered from the wind, they will endure a low temperature far better than a continuous cur- rent of very much warmer air. In some parts of the West, where bees suffer much from cold winds, their hives are protected, in Winter, by sheaves of straw, fastened so as to defend them from both cold and wet. With a little ingenuity, farmers might easily turn their waste straw to a valuable account in sheltering their bees. Not only can straw be used for this purpose with much service, but also forest leaves, corn fodder, and rushes. Snow is found to be a very good shelter, provided its suc- cessive melting and freezing does not interfere with the necessary ventilation. It must be removed from the en- trance on the approach of a warm day, OUT-DOOR SHELTERING. 337 Mr. Geo. H. Beard, of Winchester, Mo., safely wintered ninety-three colonies out of ninety-six, in the severe Winter of 1884-5, in two-story Simplicity hives, (324) by removing the oil-cloth and replacing it with coarse sack-cloth, filling the upper story with maple leaves, and covering the hives, on all sides, except the front, with what is commonly known as slough-grass. This success is worthy of notice, for in that memorable Winter, more than two-thirds of the bees in the Northern States died, some Apiarists losing all they had. Like that of 1855-6, it will long be remembered, not only for the uncommon degree and duration of its cold, but for the tremendous winds, which, often for days to- gether, swept like a Polar blast over the land. We have, for years, wintered part of our bees on the Summer stand, by sheltering them on all sides but the front, with forest leaves closely packed, and held with a frame- work of lath. 636. One of the most important requirements for success- ful out-door wintering, is the placing of warm absorbents, immediately over the cluster, to imbibe the excess of moisture that rises from the bees, without allowing the heat to escape. In March, 1856, we lost some of our best colonies, under the following circumstances : The Winter had been intensely cold, and the hives, having no upward ventilation, were filled with frost, — in some instances, the ice on their glass sides being nearly a quarter of an inch thick. A few days of mild weather, in which the frost began to thaw, were followed by a severely cold spell with the thermometer below zero, accompanied by raging winds, and in many of the hives, the bees, which were still wet from the thaw, were frozen together in an almost solid mass. As long as the vapor remains congealed, it can injure the bees only by keeping them from stores which they need ; but, as soon as a thaw sets in, hives which have no upward ventilation are in danger of being ruined. 22 338 WINTERING. Mr. E. T. Sturtevant, of East Cleveland, Ohio, widely known as an experienced Apiarist, thus gives his experience in wintering bees in the open air : " No extremity of cold that we ever have in this climate, will injure bees, if their breath is allowed to pass off, so that they are dry. I never lost a good colony that was dry, and had plenty of honey." The absorbents generally used are chaff in cushions, straw, forest leaves (maple leaves preferred), corn cobs, woolen rags, or wool waste, etc. Mr. Cheshire uses cork- dust, which he claims gives fourteen times as much protec- tion as a dead-air space. The oil-cloth, which makes an air-tight covering, must be first removed, and if no straw- mat is used, the cushion of absorbents may be placed right over the frames. We use the straw-mat, and fill the upper half-story with dry leaves, these being the cheapest and best absorbent at our command. In the coldest parts of our country, if upward absorbents are neglected, no amount of protection that can be given to hives, in the open air, will prevent them from becoming damp and mouldy, even if frost is excluded, unless a large amount of lower ventilation is given. Then they need as much air as in Summer. Often, the more they are protected, the greater the risk from dampness. A very thin hive unpainted, so that it may readily absorb the heat of the sun, will dry inside much sooner than one painted white, and in every way most thoroughly protected against the cold. The first, like a garret, will suffer from dampness for a short time only ; while the other, like a cellar, may be so long in drying, as to injure, if not destroy, the bees. 637. If the colonies are wintered in the open air, the en- trance to their hives must be large enough to allow the bees to fly at will. Many, it is true, will be lost, but a large part of these are diseased; and, even if they were not, it is OUT-DOOR SHELTERING. 339 better to lose some healthy bees than to incur the risk of losing, or greatly injuring, a whole colony by the excite- ment created by confining them when the weather is warm enough to entice them abroad. If the sun is warm and the ground covered with new- fallen snow, the light may so blind the bees, that they will fall into this fleecy snow, and quickly perish. Even at such times, it is hardly advisable to confine them to their hives. A neighbor of ours killed four colonies, all he had, by Fig. 105. TWO-STORY DOUBLE-WALLED LANGSTROTH HIVE, OLD STYLE. closing the entrances with wire-cloth for Winter. We had advised him to remove it, but he did not do so because some one had told him that his bees would get lost in the snow. 638. Great injury is often done by disturbing a colony of bees when the weather is so cold that they cannot fly. Many that are tempted to leave the cluster, perish before they can regain it, and every disturbance, by rousing them to needless activity, causes an increased consumption of food. On the other hand, it is of the utmost importance 340 WINTERING. that they be allowed to fly and void their excrements (73) whenever the weather is warm enough. At such times it will be advisable to clean the bottom-boards of hives, of dead bees, and other refuse. 639. To show the advantages derived by the bees from a Winter flight, we will give our experience during one of ■ 111 , front and back of lower hive j z, xabetted pieces ', lower houey-boan m, lower part of cover, o, q, cover, r, upper honey-board, u, u, t, frames, w, front ai rear of upper story. the coldest Winters, that of 1872-3. From the beginning of December to the middle of January, the weather was cold and the bees were unable to leave the hive. The 16th SHELTERING. 341 of January was a rather pleasant day. We took occasion of this to examine our weak colonies, being anxious in regard to their condition. To our astonishment, they were found alive, and our disturbing them caused them to fly and discharge their excrements. Being convinced that all our bees were safe, we did not disturb the strong colonies, and a few of the latter remained quiet. The next day, the cold weather returned, and lasted three weeks longer. Then we discovered that the weak colonies, that had had a clean- sing flight, were alive and well, while the strong ones which had remained confined, were either dead or in bad condi- tion. 640. In order to shelter bees more efficiently, in out- door wintering, against climatic influences, Apiarists have devised hives, with double walls, filled at the sides, as well as on top, with some light material non-conductor of heat. Some are made on the same principle as the old two-story double-wall L. hive (fig. 106) without packing. Fig 107, (From Cheshire.) DOUBLE-WALL COWAN HIVE. ab, apron-board, e, entrance, p portico. As, hollow space tr, tun- nel-roof or cover to entrance, he, hive case, sc, surplus case, r, roof. 342 WINTERING. The most wide-spread style, is the chaff -hive, of A. I. Root. This hive is far superior to single-wall hives for out- door wintering. It is made in two stories, but all in one piece. This renders it rather inconvenient to reach down to the lower story, when handling bees. We, therefore, made our chaff hives of a single story with half -story cap, like that of fig. 69. This single-wall cap can be filled with a cushion, dry leaves, or any other absorbents. Some Apiarists also use one-story chaff-hives with loose bottom- boards that can be taken off to remove the dead bees in Spring. 641. After having used some eighty chaff -hives during six or eight years, we find two disadvantages in them : 1st. They are heavy and inconvenient to handle, especially when made to accommodate ten Quinby, or twenty Simplic- Fig. 108 INSIDE OF THE CHESHIRE HIVE. hs, nives sides with cork-dust for packing, sc, section case. '«, section. s, separators fn, foundation. SHELTERING. 343 ity frames. 2d. As they do not allow the heat or cold to pass in and out readily, the bees in these hives may remain in-doors, in occasional warm Winter da} r s, while those of thin-front hives will have a cleansing flight. Thus, in hard Winters, these bees suffer as much from diarrhea (626- 784) as others, unless the Apiarist takes pains to disturb them and make them fly, when necessary. OUTER COVERING, used by J. G. Norton and others. One side is removed to show the hive within. 642. But we highly recommend the use of these hives, to the bee-keepers who do not wish to go to the trouble of sheltering their bees every Winter. With the chaff -hive, it is a matter of only a few minutes to put into Winter- quarters a colony, that has sufficient stores and bees. As to the advantage, claimed for these hives, of keeping weak colonies warm, in the Spring, we found it counterbalanced by the loss of the sun's heat during the first warm days, 344 WINTERING. and we found that bees bred as fast, in our ordinary hives (double only on the windward sides), owing to the quick absorption of the sun's rays by the boards. 643. To obtain the advantages of the chaff-hive without any of its disadvantages, and at the same time retain in use the single-wall Langstroth or Simplicity hives, some bee- keepers have devised outer-boxes to be placed over the col- onies during Winter, and removed in Spring. These can be filled with absorbents, and make the best and safest out- door shelters (Fig. 109). They are only hooked together by nails partly driven, and are taken off in pieces, in the Spring and put away, under shelter. The roofs may be used over the hives all Summer, if desirable. The only disadvantage of outer-boxes is that they may harbor mice or insects. Some use them, without any packing, and we know by experience, that even in this way, very small colo- nies may be wintered safely. If the hive has a portico, the front of the box is made to fit around it. In any case, the portico itself can be closed, during the coldest weather, by a door fitting over it, but it must be opened on warm days. In the extraordinary Winter of 1884-5, several bee-keepers of McDonough County, Illinois, among whom, we will cite Mr. J. G. Norton, of Macomb, safely wintered their Sim- plicity hives with this method, while their neighbors lost all, or nearly all, their bees. 644. If the colonies are strong in numbers and stores, have upper moisture absorbents, easy communication from comb to comb, good ripe honey, shelter from piercing winds, and can have a cleansing flight once a month, they have all the condi- tions essential to wintering successfully in the open air. IN-DOOR WINTERING. 345 In-door Wintering. 645. In some parts of Europe, it is customary to winter all the bees of a village in a common vault or cellar. Dzier- zon says : "A dry cellar is very well adapted for wintering bees, even though it is not wholly secure from frost ; the temperature will be much milder, and more uniform than in the open air ; the bees will be more secure from disturbance, and will be protected from the piercing cold winds, which cause more injury than the greatest degree of cold when the air is calm. " Universal experience teaches that the more effectually bees are protected from disturbance and from the variations of tem- perature, the better will they pass the Winter, the less will they consume of their stores, and the more vigorous and numerous will they be in the Spring. I have, therefore, constructed a special Winter repository for my bees, near my Apiary. It is weather-boarded both outside and within, and the intervening space is filled with hay or tan, etc. ; the ground and plat enclosed is dug out to the depth of three or four feet, so as to secure a more moderate and equitable temperature. When my hives are placed in this depository, and the door locked, the darkness, uniform temperature, and entire repose the bees enjoy, enable them to pass the Winter securely. I usually place here my weaker colonies, and those whose hives are not made of the warmest materials, and they always do well. If such a structure is to be partly underground, a very dry site must be selected for it." In Russia, bee-keepers dig a well from twenty to twenty- five feet deep, and six or eight feet wide. The hives, which, there, are hollow trees, are then piled horizontally upon one another, like cord-ivood, with one end open. The well is filled to within six feet of the top, and a shed, made of straw, is built above. The bees are left there during the five or six months of Winter. In some other countries, they are kept in caves, aban- doned mines, or any under-ground place near at hand. 346 WINTERING. 646. In the North of the United States, and in Canada, they are generally wintered in cellars, and remain there in quiet from November till April, sometimes till May. In all localities, where the bees cannot fly at least once a month, in the Winter, it is best to follow this method of wintering. As Dzierzon says, a dry cellar is the best, although bees can be wintered in a damp cellar, but with more danger of loss, especially if the food is not of the best. The honey of Northern countries is generally of finer quality than that of the South. 647. In the first place, the bees should be moved to the cellar, just after they have had a day's flight, at the open- ing of cold weather. We take only the brood-apartment leaving the cap, and sometimes the bottom-board, on the Summer stand, being careful to mark the number of each hive inside of its cap* so as to return it to the same location in Spring (32-33). In the cellar, the hives are piled one upon another. An empty hive or a box is put at the bottom of each pile, so that the bees will be as high up from the damp ground as possible. If the bottom- board is brought in with the hive, the entrance should be left open. It is well to raise the lower tier of hives from their bottoms with entrance-blocks. Some upper ventilation had better be given also, for the escape of moisture. If the cellar is damp, the combs will mould more or less ; if it is dry, they will keep in perfect order. 648. After the bees are put in, they should be left in darkness, at the temperature that will keep them the quiet- est. We find that from 42 ° to 45 ° is the best. Every Apiarist should have a thermometer, and use it. The cost is insignificant, and it will pay for itself many times. The fact that bees, in Russia (645), are confined in *In a weU-regulated Apiary, each hive bears a number painted on the body. IN-DOOR WINTERING. 347 deep wells, for six months, shows that a total deprivation of light cannot be injurious. It prevents them from flying out of their hives, to which they would be unable to return, after flying to the windows, allured by the light, when the temperature of the cellar rises occasionally and unexpect- edly to 50 or 60 degrees. As bees, wintered on their Summer stands, begin to fly out when the temperature reaches about 50 degrees, and are in full flight at about 55, one can imagine how restless they become when the temperature of the cellar rises to 55 or 60 degrees. They wait impatiently for the dawn of the day which will afford them the opportunity for flying out. But as the days pass and darkness continues they are uneasy and tired. Fig. 110. CELLAR BLIND, TO GIVE AIR WITHOUT LIGHT. The warmth incites them also to breed, and as they need water for their brood (271), some leave the hive in quest of it and are lost. This happens more or less every Winter. 348 WINTERING. To cool the air of the cellar, ice may be brought in and allowed to melt slowly over a tub. The Apiarist must guard against cold, also, but in winter- ing a large number of colonies, the heat which they gener- ate will usually keep the cellar quite warm in the coldest weather. In our experience, we have had to keep the cellar windows open, often, in cold weather. 649. To allow cold air to enter without giving light, we have devised cellar blinds (figs. 110 and 111). When the Fig. in. CELLAR BLIND IN PLACE. window, inside, is raised, a wire-cloth frame is put in its place to keep mice out, and there is a slide on the inside of the shutter which can be used to give more or less air as the case requires. Besides, the windows of our bee-cellar are made with double panes, to exclude cold or heat more IN-DOOR WINTERING. 349 efficiently, when they are shut. A slight quantity of pure air is needed at all times. As we have said above, when the warmer days of Spring come, with alternates of cold, the bees will breed a little, and if this is not begun too early, it will be a help to them rather than an injury, for they will become strong, all the sooner, after being taken out. 650. A small number of colonies can be wintered in any ordinary cellar, quite safely, when their food is of good quali'y, and the temperature does not vary too much, but they must be quiet and in the dark. 651. If the temperature of the cellar is too low, or too high, or if the food is unhealthy, the bees will have a large amount of fecal accumulation in their intestines, and will show their anxiety by coming out of the hive in clusters, during the latter part of their confinement. If, in addition to this, the cellar is damp, the comb will mould ; and when taken out, some colonies may desert (407, 663) their hives. 652. Great loss may be incurred in replacing, upon their Summer stands, the colonies which have been kept in spe- cial depositories. Unless the day when they are put out is very favorable, many will be lost when they fly to discharge their faeces. In movable-frame hives, this risk can be greatly diminished, by removing the cover from the frames, and allowing the sun to shine directly upon the bees ; this will warm them up so quickly, that they will all discharge their faeces in a very short time.* * The following is an extract from Mr. Langstroth's journal: . '• Jan. 31st, 1857.— Removed the upper cover, exposing the bees to the full heat of the sun, the thermometer being 30° in the shade, and the atmosphere calm. The hive standing on the sunny side of the house, the bees quickly took wing and discharged their fasces. Very few were lost on the snow, and nearly all that alighted on it took wing without being chilled More bees were lost from other hives which were not opened, as few which left were able to return : while, in the one with the cover removed, the returning bees were able to alight at once among their warm companions." 350 WINTERING. 653. If more than one hundred colonies are wintered in the cellar, and it is desired to remove them all the same day, enough help should be secured to put them all on their stands before the warm part of the day is over. It is far better to keep them in the cellar even one week longer, than to take them out when the weather is so cold that they cannot cleanse themselves immediately ; to our mind, 45 ° in the shade, or 55 ° in the sun, is the lowest temperature in which it is best to put bees out. 654. As bees remember their location, it is important to return each colony to its own place. If this is not done, the confusion may cause some colonies to abandon their hives. Dzierzon also advises placing them on their former stands, as many bees still remember the old spot. If it is desirable to remove some hives to a new location, a slanting board (603 bis) should be placed in front of the hive. All the bottom-boards should be cleaned of dead bees or rub- bish, without delay. 655. If the hives of an Apiary are all removed from the cellar on the same day, there will be but little danger of robbing, for they are somewhat bewildered when first brought out ; but if some are taken out later than others, the last removed will be in danger, unless some precautions are taken. 656. If the bees that are wintering in the cellar, are found to be restless, it may be good policy to give them some water (271), or to take them out on a warm day when the temperature is at least 45 ° in the shade, to let them have a flight, and return them to the cellar after- ward. We do not advise it as a practice however. On the contrary, if they are quiet, it is better to keep them in- doors, till the early Spring days have fairly come, to avoid what is called Spring-dwindling (659). 657. Those, who have no cellar, can successfully win- ter their bees in clamps or silos as advised by the Rev. Mr, IN-DOOR WINTERING. 351 Scholz, of Lower Silesia, widely known in Germany for his skill in bee-keeping. These clamps are made similar to Fig. 112. (From L'Apicoltore, of Milan.) BEE CLAMP FOR WINTERING. I, air draft, d, roof. those in which farmers place apples, potatoes, turnips, etc., to preserve them during cold weather. The only objection to Fig. 113. HOW TO PILE THE HIVES. Fig. 114. GROUND PLAN OP A BEE CLAMP. this mode, is the dampness of the ground in wet and warm Winters. The hives are put, on a bed of straw, in a pyra- midal form (fig. 113), and covered, first with old boards, 352 WINTERING. then with a thick layer of straw, and another, of earth. Wooden pipes are placed at the bottom (fig. 114), and one in the shape of a chimney, at the top, for an air-draft. The requisites are the same as in cellar wintering, an equal temperature, sufficient ventilation, a fairly dry atmosphere, and quiet. 658. We must warn novices against the wintering of bees in any repository in which the temperature descends below the freezing point. In such places the bees consume a great deal of honey, and they soon become restless, for want of a flight. Their Summer stand even without shelter, is far safer than any such place, because they can at least take advantage of any warm Winter day to void their ex- crements. These facts are demonstrated beyond a doubt. Spring Dwindling. 659. When the conditions necessary to the successful wintering of bees are not complied with, and they have suffered from diarrhea (784), many colonies may be lost by Spring dwindling, especially if the Spring is cold and backward. Even colonies, which appeared to have gone through the Winter strong in numbers, may slowly lose bee after bee till the queen alone remains in the hive. This is sometimes mistaken for desertion (407), as will be seen in the following paragraph, which we quote from The London Quarterly Review, and in which the author attrib- utes to lack of loyalty in the bees, that which evidently must have been due only to Spring dwindling : "Bees, like men, have their different dispositions, so that even their loyalty will sometimes fail them. An instance not long ago came to our knowledge, which probably few bee-keepers will credit. It is that of a hive which, having early exhausted its store, was found, on being examined one morning, to be SPRING DWINDLING. 353 utterly deserted. The comb was empty, and the only symptom of life was the poor queen herself, ' unfriended, melancholy, slow,' crawling over the honeyless cells, a sad spectacle of the fall of bee-greatness. Marius among the ruins of Carthage — Napoleon at Fontainebleau — was nothing to this." Several such instances, caused by Spring dwindling, with subsequent robbing of the honey, were observed by us. Colonies are thus destroyed as late as April and May. 660. In some instances, the enlarged abdomen of the bees will show that they are suffering from constipation — or inability to discharge their faeces, even though they may have voided their abdomen since their long confinement. Probably i heir intestines are in an unhealthy condition. In the worst cases of Spring dwindling, sometimes, even the queens show signs of failing, and eventually disappear. This may occur also with colonies that were wintered in the cellar, if they have suffered from diarrhea, or have been removed too early. There is another sort of Spring dwindling caused by the loss of working bees in cold Springs, while in search of water (271), or pollen (263), for the brood. 661. To avoid losses, or to check them as far as possible, after a hard Winter, it is indispensable that the following be observed : 1st. The hives should be located in a warm, sunny, well- sheltered place. All Apiaries that are placed in exposed windy situations, or facing North, suffer most from Spring dwindling. 2d. The number of combs in the hive should be reduced in early Spring, with the division-board or contractor, to suit the size of the cluster (349). This helps the bees to keep warm and raise brood. The space must again be enlarged gradually, when the colony begins to recruit. We consider this contraction of the hive as altogether indispensable. Let us suppose that, in early Spring, we 23 354 SPRING DWINDLING. have a colony whose population is so much reduced that it cannot warm, to the degree needed for breeding, more than 500 cubic inches of space. If we leave the brood-chamber without contraction, as its surface, in a 10-frame Langstroth hive, will be about 270 square inches, the cubic space heated will have about two inches in thickness at the top, since heat always rises. If, on the contrary, we have reduced the number of frames to three, the depth of the space warmed at the top will amount to more than three times as much, or to more than six inches. Thus, the bees will not onty be more healthy, but the lajdng of the queen, not being delayed by the cold, and the number of the bees increasing faster, they will be able to repay the bee-keeper for the care bestowed, instead of dwindling, or remaining worthless for the Spring crop. 3d. The heat should be concentrated in the brood apart- ment, by all means, and not allowed to escape above. The entrance also must remain reduced. 4th. The bees should be provided with sufficient stores of honey, pollen, and water. 662. Apiarists in general, do not attach enough import- ance to the necessity of furnishing water (271) to bees in cold Springs, in order that they may sta} T at home in quiet. Although Berlepsch laid too much stress on the question of water, the lack of which he even said was the cause of ctys- entery, yet he was right in calling our attention to the need of it for breeding : " The Creator has given the bee an instinct to store up honey and pollen, which are not always to be procured, but not water, which is always accessible in her native regions. In Northern latitudes, when confined to the hive, often for months together, they can obtain the water they need only from the watery parti- cles contained in the honey, the perspiration which condenses on the colder parts of the hive, or the humidity of the air which enters their hives. " In March and April, the rapidly-increasing amount of brood DESERTING. 355 causes an increased demand for water ; and when the thermom- eter is as low as 45 o , bees may be seen carrying it in at noon, even on windy days, although many are sure to perish from cold. In these months, in 1856, during a protracted period of unfavor- able weather we gave all our bees water, and they remained at home in quiet, whilst those of other Apiaries were flying briskly in search of water. At the beginning of May, our hives were crowded with bees; whilst the colonies of our neigbors were mostly weak. "The consumption of water in March and April, in a populous colony, is very great, and in 1856, one hundred colonies required eleven Berlin quarts per week, to keep on breeding uninterruptedly. In Springs where the bees can fly safely almost every day, the want of water will not be felt. " The loss of bees by water-dearth, is the result of climate, and no form of hive, or mode of wintering, can furnish an absolutely efficient security against it." — (Translated from the German, by S. Wagner.) That bees cannot raise much brood without water, unless they have fresh-gathered honey, has been known from the times of Aristotle. Buera of Athens (Cotton, p. 104), aged 80 years, said in 1797 : "Bees daily supply the worms with water; should the state of the weather be such as to prevent the bees from fetching water for a few days, the worms would perish. These dead bees are removed out of the hive by the working-bees if they are healthy and strong ; otherwise, the stock perishes from their putrid ex- halations." In any movable-frame hives, water can be given to the bees, by pouring it into the empty cells of a comb. Deserting. 663. We have shown (407) that bees sometimes desert their hives, when the colony is too weak, or short of stores, or suffering from dampness, mouldy combs, etc., etc. This desertion, which differs from natural swarming in 356 SPRING DWINDLING. this, that it may take place in any season, and that the deserting bees do not raise any queen-cells previously, is more frequent in cold backward Springs than at any other time. At different times we have seen bees deserting their hives and forsaking their brood for lack of pollen (264). A comb containing pollen having been put in their hive and the bees returned they remained happy. But the worst of these desertions is when the bees have suffered while wintered in-doors (651.) These colonies abandon their hives very soon after being replaced on their Sum- mer stands. When such desertion is feared, it is better not to put out more than one dozen colonies at one time, and to prepare a few dry combs, in clean hives, to hive the swarm as soon as possible ; for, too often some other colonies following the example, mix with the first, the queens are balled (538), causing great annoyance and loss to the bee-keeper. Such swarms should be hived on clean dry comb, and furnished with honey and pollen. The capacity of the hive in which they are put should be reduced to suit the size of the swarm, and increased very cautiously, from time to time, when the bees seem to be crowded ; for warmth is indispensable to bees in Spring. The condition of such colonies must be regularly ascer- tained and their wants supplied. We would refer those who think that " it is too much trouble" to examine their hives in the Spring, to the prac- tice of the ancient bee-keepers, as set forth by Columella: " The hives should be opened in the Spring, that all the filth which was gathered in them during the Winter may be removed. Spiders, which spoil their combs, and the worms from which the moths proceed, must be killed. When the hive has been thus cleaned, the bees will apply themselves to work with the greater diligence and resolution. ,, The Booner those abandon bee-keeping, who consider the proper DESERTING. 357 care of their bees as "too much trouble," the better for themselves and their unfortunate bees. In making this thorough cleansing, the Apiarist will learn which colonies require aid, and which can lend a helping hand to others ; and any hive needing repairs, may be put in order before being used again. Such hives, if occasionally re-painted, will last for generations, and prove cheaper, in the long run, than any other kind. 358 ROBBING AND HOW PREVENTED. CHAPTER XIV. Robbing, and How Prevented. An ounce of prevention is worth a ton of cure. 664. Bees are so prone to rob each other, in time of scarcity, that, unless great precautions are used, the Apia- rist will often lose some of his most promising colonies. Idleness is, with them, as with men, a fruitful mother of mischief. They are, however, far more excusable than the lazy rogues of the human family ; for they seldom attempt to live on stolen sweets, when they can procure a sufficiency by honest industry. As soon as they can leave their hives in the Spring, they may begin to assail the weaker colonies. In this matter, the morals of our little friends seem to be sadly at fault ; for, those colonies which have the largest surplus are — like some rich oppressors — the most anxious to prey upon the meagre possessions of others. If the marauders, who are ever prowling about in search of plunder, attack a strong and healthy colony, they are usually glad to escape with their lives from its resolute defenders. The bee-keeper, therefore, who neglects to watch his needy colonies, and to assist such as are weak or queenless, must count upon suffering heavy losses from robber-bees. 665. It is sometimes difficult, for the novice, to discrim- inate between the honest inhabitants of a hive, and the robbers which often mingle with them. There is, however, an air of roguery about a thieving bee which, to the expert, is as characteristic as are the motions of a pickpocket to a skillful policeman. Its sneaking look, and nervous, guilty ROBBING. 359 agitation, once seen, can never be mistaken. It does not, like the laborer carrying home the fruits of honest toil, alight boldly upon the entrance-board, or face the guards, knowing well that, if caught by these trusty guardians, its life would hardly be worth insuring. If it can glide by without touching any of the sentinels, those within — taking it for granted that all is right — usually permit it to help itself. Bees which lose their way, and alight upon a strange hive, can readily be distinguished from these thieving scamps. The rogue, when caught, strives to pull away from his executioners, while the bewildered unfortunate shrinks into the smallest compass, submitting to any fate his captors may award. These dishonest bees are the "Jerry Sneaks'' of their profession, and after following it for a time, lose all taste for honest pursuits. Constantly creeping through small holes, and daubing themselves with honey, their plumes assume a smooth and almost black appearance, just as the hat and garments of a thievish loafer, acquire a "seedy" aspect. Dzierzon thinks that these black bees, which Huber has described as so bitterly persecuted by the rest, are nothing more than thieves. Aristotle speaks of " a black bee which is called a thief." Some bee-keepers question whether a bee that once learns to steal ever returns to honest courses. The writer has known the value of an Apiary to be so seriously im- paired by the bees beginning early in the season to rob each other, that the owner was often tempted to wish that he had never seen a bee. 666. Yet, we should hardly blame them for their rob- bing propensities. With them, as with men, much depends on the education which they are allowed to receive. Their nature teaches them to hunt for sweets industriously, 360 ROBBING AND HOW PREVENTED. wherever they can find them, and any sweet, which they can reach, by the most strenuous efforts, is considered by them, at once, as their private property. Were it not for this disposition of the bee, to hunt for sweets everywhere, and take them home, the honey of those colonies that dwell in the woods, and frequently perish during the Winter, would be wasted. The propensity to rob is acquired only during a dearth of honey in the flowers ; for bees have a much greater relish for fresh honey, as produced in the blos- soms, than for any other sweet on earth. This is so true,, that in a day of abundant harvest, honey may be left ex- posed where bees can reach it, without being touched, or even approached, by a single bee, for hours ; while, if placed in the yery same spot during a dearth of honey, it will be covered with bees in very few minutes. If the bee-keeper would not have his bees so demoralized that their value will be seriously diminished, he will be exceedingly careful in time of scarcity to prevent them from robbing each other. If the bees of a strong colony once get a taste of forbidden sweets, they will seldom stop until they have tested the strength of every hive. Even if all the colonies are able to defend themselves, many bees will be lost in these encounters, and much time wasted ; for bees, whether engaged in robbing, or battling against robbers, lose both the disposition and the ability to engage in use- ful labors. 667. An experienced bee-keeper readily perceives when any robbing is going on in his Apiary. Bees are flying vagrantly about, hunting in nooks and corners, and at alii the hive-crevices. Extensive robbing causes a general up- roar, and the bees of all the hives are much more disposed to sting. The robbers sally out with the first peep of light, and often continue their depredations until it is so late that they cannot find the entrance to their hive. Some even pass the night in the plundered colony. ROBBING AND HOW PREVENTED. 361 The cloud of robbers arriving and departing need never be mistaken for honest laborers (174) carrying, with un- wieldy flight, their heavy burdens to the hive. These bold plunderers, as they enter a hive, are almost as hungry-look- ing as Pharaoh's lean kine, while, on coming out, they show by their burly looks that, like aldermen who have dined at the expense of the city, they are stuffed to their utmost capacity. 668. When robbing-bees have fairly overcome a colony, the attempt to stop them — by shutting up the hive, or by moving it to a new stand — if improperly conducted, is often far more disastrous than allowing them to finish their work. The air will be quickly filled with greedy bees, who, unable to bear their disappointment, will assail, with almost fran- tic desperation, some of the adjoining hives. In this way, the strongest colonies are sometimes overpowered, or thous- ands of bees slain in the desperate contest. How to Stop Robbing. When an Apiarist perceives that a colony is being robbed, he should contract the entrance (339), and, if the assailants persist in forcing their way in, he must close it entirely. In a few minutes the hive will be black with the greedy cormorants, who will not abandon it till they have attempted to squeeze themselves through the smallest openings. Before they assail a neighboring colony, they should be thoroughly sprinkled with cold water, which will somewhat cool their ardor. Unless the bees, that were shut up, can have an abund- ance of air, they should be carried to a cool, dark place, after the Apiarist has allowed the robbers to escape out of it. Early the next morning they must be examined, and, if necessary, united to another hive. 362 ROBBING AND HOW PREVENTED. i; In Germany, when colonies in common hives are being rob- bed, they are often removed to a distant location, or put in a dark cellar. A hive, similar in appearance, is placed on their stand, and leaves of wormwood and the expressed juice of the plant are put on the bottom-board. Bees have such an anti- pathy to the odor of this plant, that the robbers speedily forsake the place, and the assailed colony may then be brought back. " The Rev. Mr. Kleine says, that robbers may be repelled by imparting to the hive some intensely powerful and unaccus- tomed odor. He effects this the most readily by placing in it, in the evening, a small portion of musk, and on the following morn- ing the bees, if they have a healthy queen, will boldly meet their assailants. These are nonplussed by the unwonted odor, and, if any of them enter the hive and carry off some of the coveted booty, on their return home, having a strange smell, they will be killed by their own household. The robbing is thus soon brought to a close." — S. Wagner. It will often be found that a hive which is overpowered by robbers has no queen, or one that is diseased. 669. One of the best methods which we have found to stop the robbing of one hive by another, when the robbed colony is worth saving, is to exchange them ; i. e. to place the robbed colony on the stand of the robbing colon}^ and vice versa. The robbing colony can usually be found by sprinkling the returning bees with flour, as they come out of the robbed hive, and watching the direction which they take. It can also often be detected by the activity of its bees, if the neighboring hives are idle, especially after sunset. This method, however, cannot be practiced when the robbing and the robbed colonies do not belong to the same person ; or when the robbing is carried on by many hives at one time, although, in the latter case, the exchange of stands between the strongest of the robbing hives and the weak robbed colony, in the evening, and the reducing of the entrances of both, usually has a good result. The old robber bees, bewildered by this exchange, make their home in the robbed colony, since they find it on the stand where HOW TO STOP ROBBING. 363 they are accustomed to bring their honey ; and they defend it with as much energy as they used in attacking it before. See Quinby's "Mysteries of Bee-Keeping" N. Y., 1866. 670. We read in the British Bee-Journal that a car- bolized sheet (384) can be used to stop robbing, if spread in front of the robbed hive. This same sheet, spread on the hive as soon as opened while extracting (749), and on the surplus box where the combs are placed (768), dis- pleases the robbers and protects the comb, 671. There is a kind of pillage which is carried on so secretly as often to escape all notice. The bees engaged in it do not enter in large numbers, no fighting is visible, and the labors of the hive appear to be progressing with their usual quietness. All the while, however, strange bees are carrying off the honey as fast as it is gathered. After watching such a colony for some days, it occurred to us one evening, as it had an unhatched queen, to give it a fertile one. On the next morning, rising before the rogues were up, we had the pleasure of seeing them meet with such a warm reception, that they were glad to make a speedy retreat. This is another proof that discouragement caused by queenlessness often leads to the loss of a colony. Prevention. 672. If the Apiarist would guard his bees against dis- honest courses, he must be exceedingly careful, in his various operations, not to leave any combs or any honey where bees can find them, for, after once getting a taste of stolen honey, they will hover around him as soon as they see him operating on a hive, all ready to pounce upon it and snatch what they can of its exposed treasures. 364 ROBBING AND HOW PREVENTED. In times of scarcity, food should never be given to the bees in the day time, but only in the evening, always inside of the hive and above the combs. The feeding of bees (605) in the day time causes robbing in two ways. It excites the bees which are fed, and induces them to go out to hunt for more, and the smell of the food given attracts the bees of the other hives. Hence follows fight- ing and trouble. But, above all things, the Apiarist must try to keep his colonies strong. When there is a scarcity of blossoms, the entrance of the hive should be lessened, to suit the needs of the colony, by moving the entrance blocks (339). If the hive con- tains more combs than the bees can well defend, the number of the combs should be reduced by the use of the division board (349). 073. It is especially with weak colonies that care should be taken, in Spring or Fall. The strong hives being better able to keep warm, their bees fly out earlier in the day and will readily discover the weaker ones, which, unless their honey is protected, they will soon overpower. When the above instructions are carried out, if thieves try to slip into a feeble colony they are almost sure to be overhauled and put to death; and if robbers are bold enough to attempt to force an entrance, as the bottom- board slants forward (327) it gives the occupants of the hive a decided advantage. Should any succeed in entering, they will find hundreds standing in battle-array, and fare as badly as a forlorn hope that has stormed the walls of a beleaguered fortress, only to perish among thousands of enraged enemies. Cracks and openings in disjointed hives, should be se- curely closed with yellow clay, until the bees can be trans- ferred into better abodes. When the hives are opened, the work must be performed speedily and carefully ; and, if any great number of PREVENTION. 365 robbers show themselves during the operation, it is well, after closing the hive, and reducing the entrance, to place a bunch of grass (fine grass or fine weeds preferred) over it, for an hour, or till the temporary excitement has subsided. The guardian bees station themselves in this grass and chase out robbers much more easily than they could other- wise. The robbers themselves recognize that their chances of "dodging in" are slim, and give up the undertaking. We have never had any trouble with robbers after closing a hive in this way. When the robbed colony is weak, the robbing may be abated by preventing any bees from entering it till evening, when other colonies have stopped flying ; allowing, at the same time, any bee that wishes to depart from it, and clos- ing the entrance till late in the morning. By this course most of the robbers will be tired of their useless attempts, while the remaining workers of the robbed hive will be ready to repel the attacks. When none of these methods succeed, a small comb of hatching Italian bees (551) may be given, with the nec- essary precautions (480), to the weak colony, and the hive placed in the cellar for a few days. The hatched Ita- lians will receive the intruders warmly when the hive is brought back. The Italian bees (551) defend their hives much better than the black (549) against the intrusion of robbers, and the Cyprians and Syrians (559) surpass even the Italians. When a comb of honey breaks down in a hive from any cause, it should be removed promptly, and the bottom- board should be exchanged for a clean one at once. If any drops of honey fall about the Apiary, it is best to cover them up with earth promptly. In short, no honey should be left exposed, where bees can plunder it. 366 COMB FOUNDATION. CHAPTER XV. Comb Foundation. 674. The invention and introduction of comb founda- tion, with the use of movable frames (286), marked an important step in the progress of practical bee-culture. The main drawback to the perfect success of movable- frame hives was the difficulty of always obtaining straight combs in the frames (318). Although the bevelled top bar (319) often secured this object, yet, in msmj instances, the bees deviated from this guide and fastened their combs from one frame to another ; and if the matter was not promptly attended to, the combs of the hive became as immovable as those of box hives. One frame slightly out of place was a sufficient incentive for the bees to fasten two frames together. In the management of four large Apiaries, previous to the introduction of comb foundation, we found that, in spite of our efforts, a certain number of colonies would so build their combs, that only a part of the frames were movable without the use of a knife. Even the combs that were built in the right place were made some- what waving, or bulged in spots, and were thus rendered unfit for such interchanges as are daily required in ordinary manipulations. 675. Another drawback to success was the building of drone comb (225). We have had colonies in which nearly one-fourth of the combs were drone-comb. In such hives the number of drones that might be raised would be sufficient to consume the surplus honey. To be sure, with movable- frame hives, such combs can be removed, but the difficulty ADVANTAGES. 367 consists in procuring straight and neat worker-combs to replace them ; for if we simply remove the drone-combs, the bees often replace them with the same kind (233). 676. Good straight ivorker-comb, not too old, is the most valuable capital of the Apiarist (442). For years, be- fore the introduction of comb-founclation, we had been in the habit of buying all the worker-comb from dead col- onies that we could find, but we never had enough. The consideration of the above important points, and of the great cost of comb to the bees (233), had long ago drawn the attention of German Apiarists to the possibility of manufacturing the base, or foundation, of the comb. 677. In 1857, Johannes Mehring invented a press to make wax tvafers, on which the rudiments of the cells were printed. Those only, who experienced the obstacles which this industry presents, can form an idea of the energy and perseverance that were required to succeed as he did. The foundation made by him then, was far from being equal to what is now made. The projections of the cell- walls were too rudimentary, sometimes not printed, and the bees often built drone- cells instead of worker-cells; but these imperfect efforts were the beginning of an industry which has proved of immense advantage to bee-keepers, and has spread like wild- lire wherever bees are kept. 678. Another Apiarist, Feter Jacob, of Switzerland, improved on the Mehring press, and in 1865, some of his foundation was imported to America, by Mr. H. Steele, of Jersey City (Am. Bee-Journal, Vol. 2, page 221), and tried by Mr. J. L. Hubbard, who reported favorably upon it. In 1861, Mr. Wagner had secured a patent in the United States, for the manufacture of artificial honey comb-founda- tion by whatever process made. His patent was never put to use, and rather retarded the progress of this industry in America. 679. The first comb-foundation made in America, was 368 COMB FOUNDATION. manufactured in 1875, by a German, Mr. F. Weiss, very probably on an imported machine. Mr. A. I. Root, to whom Fig. 115. THE ORIGINAL '' ROOT " MILL. (From Root's "A. B. C") the credit is due* of popularizing the invention the world over manufactured a large roller-mill, in February, 1876, * Some people think that when a man has made money by putting in practice the ideas of another, he is not entitled to any credit for it. But he, whose in- quisitiveness has discovered the value of an invention, and whose energy has put it into practice, is almost as necessary and useful to the world as the orig- inal inventor himself. Plate 12. JOHANNES MEHRING, Inventor of Comb-Foundation. This Apiarist is mentioned pages 51 and 367. FOUNDATION MILLS. 369 with the help of a skilled mechanic, A. Washburne. He sold hundreds of these mills afterwards. 680. In the practical use of comb-foundation, the most sanguine expectations were realized : 1. Every comb that is. built on foundation is as straight as a board, and can be moved from one place to another, in any hive, without trouble. 2. The combs built on worker-foundation are exclusively worker-combs, with .the exception of occasional patches, when the foundation sags slightly. 3. All the wax produced by the bees, and gathered by the Apiarist from scraps, old combs, or cappings, is returned to the bees in this shape, instead of being sold at the com- mercial value of beeswax, which is several times less than its actual cost (223). The cost of foundation for brood- combs is not very great, especially if we consider that this capital is not consumed, but only employed ; as the wax contained in the combs represents at least one-half of the primary value of the foundation, and can be rendered again, after years of use, none the worse for wear. 681. Different machines are in use in the United States. The flat-bottom foundation has the reputation of being the most regular, and thinnest ; its main defect being the un- natural flat base of the cells, which renders it easier to manufacture, but objectionable to the bees, who have to remodel its base in using it (213). It is manufactured with or without wires imbedded in it, to help fasten it in the frames. The Pelham-mill also makes an unnaturally-shaped foun- dation, the base of the cells being two instead of three- sided. This mill has the advantage of being very cheap, and is more easily manipulated than some of the others. 682. The Given-press makes foundation similar to that of the old European presses. It has been highly praised by 24 370 COMB FOUNDATION. a number of Apiarists. As it is the easiest working of all foundation-machines, a great many, who could not suc- ceed in making foundation on the mills, succeeded on this press. Another advantage claimed for it, is that it can make foundation in wired-frames by pressing it right over the wires. But a press has the disadvantage of leaving in the sheets all the irregularities, which they may have, when dipped ; while in the roller-mills, these irregularities are ' ' laminated out. ' ' Hence, pressed-f oundation can never be as regular as rolled-foundation. 683. Plaster moulds and other utensils have been tried for foundation-making, but these cheap implements are almost entirely discarded. Fig. 116. THE DUNHAM MILL. 684. The Root-mills, — the most practical — have been improved upon in different ways, by C. Olm, by Mrs. Dun- ham of Wisconsin, and by J. Vandervort of Pennsylvania. The latter gentleman, one of America's eminent machinists, makes most superior mills for any grade of foundation. PURE BEESWAX. 371 Fig. 117. VANDERVORT MILL. 685. The wax used for thin surplus-foundation is a se- lected grade. Wax from cappings (772) and Southern wax are the best for this purpose. In every case, whether the foundation is to be used for surplus (728), or for brood-combs (223), the wax should be ihoroughly cleaned by heating it to a high temperature and allowing it to cool slowly in flaring vessels, from which the cold wax can be easily removed. Wax, that is allowed to retain impurities, has less consistency, and will sag more readily. The method used by wax-bleachers of purifying with acids should not be resorted to, as the bees have a dislike for any disagreeable smell or taste. 686. Nothing but pure wax should be used in any grade of foundation. Parafnne, ceresine, etc., have been tried with disastrous results. Aside from the fact that these compounds melt at a lower degree than beeswax * and break down in *' 'Paraffine melts at 110° Fahr. , Beeswax at 162. ' '— (Bloxam's Chemistry. ) 372 COMB FOUNDATION. the hive, the bees readily discover the imposition and show a decided preference for pure foundation. The most common adulteration of crude bees-wax is made with tallow. Luckily, this is easily recognized by the soft, dull appearance of the cakes. The smell of tallow is also noticeable in freshly broken fragments. 687. The machines used for thin foundation should riot be the same as those used for brood foundation. The lat- ter, made on a light wall machine, would be too weak to stand the weight of the bees, in a full-sized brood frame, and would not contain wax enough for the bees to build their comb ; for it is a remarkable fact that the bees ' ' thin out" their foundation to a certain extent and make it con- siderably deeper out of the same material. When it has been made, with a thin base and a heavy wall, the bees draw it out more readily into comb. On the other hand, foundation for surplus (719) must be made as light as the finest machine can make it. to avoid what is called the "fish-bone," a central rib found in the honey-comb that has been built on too heavy foundation. There is no "fish-bone," if the proper grade has been used, and even an expert in comb-honey hesitates in decid- ing whether the base is natural or artificial. At the present day, nearly every section (721) of comb- honey that is sold, has been built on such foundation. The daintiest and most fastidious ladies can have no objection to it, and on visiting a well-managed foundation shop, they declare that the tender sheets are ' ' nice enough to eat. ' ' 689. To prepare the wax sheets, we use soft wood boards I of an inch thick, bathed in tepid water. They are wiped with a sponge, and dipped in melted wax, two or three times. The lower part of the board is then dipped in cold water, when it is turned bottom side up, and the other end is treated in the same manner. After the board has been put in water to cool for a little while, it is taken out ; its MOULDING. 373 edges are trimmed with a sharp knife, and two smooth sheets of wax are peeled off. If the sheets are intended for heavy foundation, twice as many dips are necessary. The wax should be liquid but not hot. If it is too hot, the sheets will crack. To secure rapid work, you must have a room arranged purposely for the dippers, with a zinc or tin floor to catch the drips of water and wax. 690. The illustration, here given, (see plate) shows one of the moulding tables in our foundation factory. The sheet wax, after a few days' cooling in a deep and dry cellar, is tempered, in the moulding tank with warm water, and run through the rollers. The latter are lubricated with starch, or soapsuds. When soapsuds are used, it is very import- ant that the sheets be pressed so tightly in the rollers, as to come out dry. This also makes a better print. The foundation, as fast as it comes from the rollers, is laid upon a hard wood block — a dozen sheets or more, at a time. A wooden pattern is laid over them, and they are trimmed to the proper size, by a knife made for the purpose, whose blade has been wet with soapsuds. The projecting edges are trimmed off r and the damaged sheets are melted over for future use. For the thin grades of foundation, the narrower the sheets are, the thinner the foundation can be made. A wide sheet spreads the rollers by springing the shafts to a certain extent, and is heavier. 691. The manufacture of foundation, which at first seemed likely to be undertaken by every Apiarist, has become an industry of itself, owing to the greater skill and speed acquired by those who make it daily. It might be compared to cigar making. Any Apiarist can make wax into sheets and run it through rollers, and any farmer can raise tobacco and roll its leaves into cigars, but, to the uninitiated, a neat sheet of foundation is as difficult to make as an elegant cigar. 374 COMB FOUNDATION. Acting upon socialistic principles, in our manufacture of comb-foundation, we have interested our workmen, as we did the farmers on whose lands we have out- Apiaries (584). Pursuing the same principles, our workmen have associated together, dividing their earnings and electing their fore- man. Such arrangements produce not only harmony, but many other results. Our laborers get better wages ; and there is less need of close watching ; for the work is always done with the view of increasing the business by satisfying the customers. Well-made foundation will keep for years, in a dry place. It should never be handled when cold; and when too much softened by heat, should be cooled in a cellar, a few hours before it is handled. 692. The best grade of foundation for brood or extract- ing (749) combs is that which measures about five square feet to the pound ; that for sections, ten to twelve feet. On this latter grade, the comb is not so readily built, for the bees have to add their own wax to it. 693. The founda- tion is fastened in sec- tions by different ma- chines, the most simple of which is the Parker- Fastener, sold by all dealers in bee-imple- ments. In his ' ' Management of Bees" Mr. Doolittle describes his method, as follows : Fig. 118. FOUNDATION FASTENED ON TRIANGULAR BAR. From "Bees and Honey." " Turn your sections top side down, hold a hot iron close to the box, and after holding the starter immediately above and touching the iron, draw the iron out quickly and press the starter gently on to the wood, when it is a fixture." FASTENING IT IN THE FRAMES. 375 To fasten the foundation on a triangular top-bar, it can be pressed to each side of it as per engraving (fig. 118) taken from the American Bee-Journal. But, on a flat top- bar, it is much more readily fastened by the use of the Fig. 119. HAMBAUGH ROLLER. roller (fig. 119) invented by our friend, Mr. Hambaugh, a successful Apiarist of Illinois. 694. In brood-frames, it may be fastened with or with- out wires. The wire used is malleable tinned wire, No. 30. A shallow frame needs no wires at all, but in brood-combs, — to insure safety and prevent warping — it is as well to use two or three horizontal wires as in fig. 119. This method of horizontal-wiring was first given us by Mr. Vandervort, to whom the world is also indebted for the spur for imbed- ding the wire in the foundation (fig. 120). The excessive wiring resorted to by some is worse than useless. 695. As comb-foundation is generally bought in long strips, it may be well to give directions to cut it into pieces of the right size for sections. This may be done with almost 376 COMB FOUND ATION. Fig. 120. VANDERVORT IMBEDDING SPUR any sharp knife. Have a pattern of the size of the pieces wanted, made of hard wood. Take six or eight sheets at one time, arranged in an even pile. Lay your pattern on them, holding it down firmly ; dip your knife in strong soap-suds, and if the wax is at the proper temperature, you will cut the eight pieces at one stroke of the knife. If the sheets have a tendency to slip from under the pattern, you may nail cleats on three sides of it, to encase the pile as in a box. 696. Are there a right and a wrong way, to suspend foundation in the frames? Or, in other words, should two of the six sides of the cell be perpendicular or horizontal? Huber, and Cheshire after him, call our attention to the fact, that the bees always build their combs, with two sides of the cells perpendicular. Mr. Cheshire explains, at length, the adaptation and advantages of this natural fact, and ite bearing on the strength of the comb. From his explana- tions, it results that foundation suspended thus i. e. with two perpendicular sides, would be properly fastened, while if suspended thus : /"^ i. e .with two horizontal sides, it would be \ / improperly fas- tened. Most of the machines that are made turn out foundation- sheets, which are to be hung horizontally, when the cells ;0 HOW FASTENED. 377 are in the proper position. The Dunham-machine, how- ever, makes sheets which should hang vertically, if the proper position is wanted. As the sheets principally used, are for frames of the Langstroth pattern (299), from eight to ten inches in depth, and sixteen to eighteen inches in length, and as the machines are all under fourteen inches in width, the Dunham foundation-sheets must be cut in two, or else must be fastened wrong in the frames, owing to the position of the cells in the rollers. In ninety-nine cases out of every hundred, the latter method has been followed, and as the Dunham heavy-brood foundation has given uni- versal satisfaction, it proves that the position of the cells cannot have a great importance, practically, whenever a heavy grade is used. It is well, however, to place founda- tion in the correct position, whenever practicable, espe- cially with the light grades for sections, which are more in danger of stretching under ordinary circumstances. 697. It is astonishing, as well as pleasing, to see how quickly a swarm will build its combs, when foundation is used. The enthusiasm, with which it is used by bee-keep- ers, is only exceeded by that of the bees, "in being hived on it." This invention certainly deserves to rank next to those of the movable-frames (282) and of the honey- extractor. (749.) 378 PASTURAGE AND OVERSTOCKING. CHAPTER XVI Pasturage and Overstocking. Pasturage. 698. The quantity of honey yielded by different flowers varies considerably ; some give so little, that a bee has to visit hundreds to fill her sack, while the corolla of others overflows with nectar. In the vicinity of the Cape of Good Hope, there is a blossom, the Protea mellifera. which probably surpasses all others in the abundance of its nectar. Indeed, so abundant is it, that it is said, the natives gather it by dipping it from the flowers, with spoons. Mr. De Planta, in a lengthy and scientific article published in the Revue Internationale d' Apiculture, gives an account of his anal- ysis of some samples of this honey, which he had received through the "Moravian United Brothers." He reports it to have the scent and the taste of ripe bananas, and con- siders it very sweet and good. 699. The same plants yield nectar in different quantities in different countries. The Caucasian Comfrey, from which the bees reap a rich harvest in Europe, is of little account here. 700. Every bee-keeper should carefully acquaint him- self with the honey-resources of his own neighborhood. We will mention particularly some of the most important plants from which bees draw their supplies. Since Dzier- zon's discovery of the use which may be made of flour, early blossoms producing pollen only, are not so important. PRINCIPAL SOURCES. 379 All the varieties of willow abound in both pollen and honey, and their early blossoming gives them a special value. " First the gray willow's glossy pearls they steal, Or rob the hazel of its golden meal, While the gay crocus and the violet blue, Yield to their flexible trunks ambrosial dew." — Evans. The sugar-maple (Acer saccharinus) yields a large supply of delicious honey, and its blossoms, hanging in graceful fringes, will be alive with bees. In some sections, the wild gooseberry is a valuable help to the bees, as it blossoms very early, and they work eagerly on it. Of the fruit trees, the apricot, peach, plum, cherry and pear, are great favorites ; but none furnishes so much honey as the apple. The dandelion, whose blossoms furnish pollen and honey, when the yield from the fruit trees is u early over, is worthy of rank among honey-producing plants. Fig. 121. BLOSSOM OF TULIP TREE. The tulip tree (Liriodendron) (Fig. 121), is one of the 380 PASTURAGE. greatest honey-producing trees in the world. As its blossoms expand in succession, new swarms will sometimes fill their hives from this source alone. The honey, though dark, is of a good flavor. This tree often attains a height of over one hundred feet, and its rich foliage, with its large blossoms of mingled green and yellow, make it a most beautiful sight. Kg. 122. LOCUST BLOSSOMS The common locust (Fig. 122), is a very desirable tree for the vicinity of an Apiary, yielding much honey when it is peculiarly needed by the bees. The wild cherry blooms about the same time. CLOVER. 381 701. Of all the sources from which bees derive their supplies, white clover (Fig. 123), is usually the most Fig. 123. WHITE CLOVER. important. It yields large quantities of very pure white honey, and wherever it abounds, the bee will find a rich harvest. In most parts of this country it seems to be the chief reliance of the Apiary. Blossoming at a season of the year when the weather is usually both dry and hot, and the bees gathering its honey after the sun has dried off the dew, it is ready to be sealed over almost at once. It is at the blossoming of this important plant that the main crop of honey usually begins, and that the bees prop- agate in the greatest number. The flowers of red clover (fig. 124) also produce a large quantity of nectar ; unfortunately its corollas are usually too deep for the tongue of our bees. Yet sometimes, in Summer, they can reach the nectar, either because its corollas are shorter on account of dryness, or because they are more copiously filled. 382 PASTURAGE AND OVERSTOCKING. 1 ^ifcv^y-* ,^yu. Fig. 124. RED CLOVER. 702. The linden, or bass-wood (Tilia Americana, fig. 125), yields white honey of a strong flavor, and, as it blos- soms when both the swarms and parent- colonies are usually populous, the weather settled, and other bee-forage scarce, its value to the bee-keeper is great. " Here their delicious task, the fervent bees In swarming millions tend : around, athwart, Through the soft air the busy nations fly, Cling to the bud, and with inserted tube, Suck its pure essence, its etherial soul." — Thomson. This majestic tree, adorned with beautiful clusters of PASTURAGE. 383 Fig. 125. LINDEN OR BASSWOOD. fragrant blossoms, is well worth attention as an ornamental shade-tree. By adorning our villages and country residences with a fair allowance of tulip, linden, and such other trees as are not only beautiful to the eye, but attractive to bees, the honey- resources of the country might, in process of time, be greatly increased. In many districts, locust and bass-wood planta- tions would be valuable for their timber alone. 703. We have also a variety of clover imported from Sweden, which grows as tall as the red clover, bears many blossoms on a stalk, in size resembling the white, and, while it answers admirably for bees, is preferred by cattle to almost any other kind of grass. It is known 126 . From "Bees& Honey.") ALSIKE CLOVER, 384 PASTURAGE AND OVERSTOCKING. by the name of Alsike, or Swedish clover (Fig. 126). The objection made to this clover is that its stem is so light that it falls to the ground. This is remedied by sowing it with timothy. The latter helps it to stand. It is as good for honey as white clover. 704. The raspberry furnishes a most delicious honey. In flavor it is superior to that from the white clover. The sides of the roads, the borders of the fields, and the past- ures of much of the " hill- country " of New England, abound with the wild red raspberry, and, in such favored locations, numerous colonies of bees may be kept. When it is in blossom, bees hold even the white clover in light es- teem. Its drooping blossoms protect the honey from moist- ure, and they can work upon it when the weather is so wet that they can obtain nothing from the upright blossoms of the clover. As it furnishes a succession of flowers for some weeks, it yields a supply almost as lasting as the white clover. The precipitous and rocky lands, where it most abounds, might be made almost as valuable as some of the vine-clad terraces of the mountain districts of Europe. The borage (Borago officinalis), (Fig. 143), blossoms continually from June until severe frost, and, like the rasp- berry, is frequented by bees even in moist weather. The honey from it is of a superior quality. The Canada thistle, the viper ougloss yield good honey after white clover has begun to fail. But these plants are troublesome, for they cannot easily be gotten rid of. 705. Melilot, or sweet clover (figs. 127 and 136), which grows on any barren or rocky soil without cultivation, is one of the most valuable honey-plants. It will not thrive, however, where cattle can graze on it, as they soon destroy it. If cut early to be used as forage, it blooms later than white clover and till frost. It is a biennial. The different varieties of smart- weeds (Persicaria), golden rod, buckwheat, asters, iron-weed, Spanish-needles in low PASTURAGE. 385 Fig. 127. (From L'Apicoltore.) YELLOW OR OFFICINAL MELILOT. .ands and marshy places, give a very abundant honey-crop in the latter part of the Summer. They form the bulk of what is called the "Fall crop " in this latitude. In California the sage, in Texas the horse-mint, in Flor- ida the mangrove, form the main honey-harvests of those countries. 706. We here present a list of the flowers known as being visited by the bees for their nectar or for their pollen. We have grouped them in Families, and we give engravings pf their most prominent types, in order to help the Apiarist 25 386 PASTURAGE AND OVERSTOCKING. in his investigations. But our list is far from being corn plete, and every clay brings some new discoveries. Compositoe: — Dandelion, Thistle, Chamomile, (Fig. 128), Sunflower, Ox-eye Daisy, Goldenrod (Fig. 129), Coreopsis, HJt/vcsrvjr Fig. 128. CHAMOMILE. Fig. 129. GOLDEN ROD OR SOLIDAGO. Lettuce, Chicory, Boneset, Iron-weed, Indian Plantain, Fire- weed, Aster (Fig. 130-131), Burr Marigold, Spanish Needles, Coneflower, Isatis tinctoria, Star Thistle, Thorough wort, Butter weed, Sneeze- wort, Blue Bottle, Ragweed, several varieties of Echinops, one of which, the Spherocephalus, was introduced here by Mr. Chapman. The Echinops ritro (smaller in size) (Fig. 132), is cultivated in Europe on ac- PASTURAGE. 387 Fig. 130. ASTER ROSEUS. Fig. 131. ASTER TRADESCANT. count of its beautiful blue heads. This family includes also the Helenium tenuifolium (Fig. 133), whose honey is poison- ous.— (Dr. J. P. H. Brown.) Fig 132. ECHINOPS KITRO. Fig. 133. HELEMDM TENUIFOLIUM. Leguminous: — Judas tree (Fig. 134), which blooms v^ery early, Locust tree, Honey-locust (Fig. 135), Wistaria, 388 PASTURAGE AND OVERSTOCKING. Fig. 134. (From L'Apicoltore.) JUDAS TREE. white, red and alsike Clover, Melilot (Fig. 136), Lucerne or Alfalfa, Peas, Beans, Vetches, Lentils, False-Indigo, Partridge pea, Wild senna, Milk vetch, Yellow-Wood, Mesquit-tree of Texas, Cleome-integrifolia, and pun gens (Fig. 137). Labiate: — (from Labium, a lip.) Sage (Fig. 139), Mint (Fig. 140), Ground Ivy (Fig. 138), Horehound, Catnip, Motherwort, Horse-Mint, Basil, Hissop, Bergamot, Marjoram, Thyme, Melissa, Dead Nettle, Brunella, Penny- Royal. Rosaceous: — Wild Rose, Cherry (Fig. 142), Plum, Peach, Apricot. Apple, Pear, Quince, Hawthorne, Black- berry, Raspberry, Strawberry, Juneberry, Cinquefod, PASTURAGE. 389 Fig. 135. HONEY-LOCUST LEAVES & THORNS Fig. 136. MELILOTUS ALBA. Fig. 137. CLEOME PUNGENS. Fig. 138. GROUND IVY. 390 PASTURAGE AND OVERSTOCKING. Bowmansroot, Queen of the Prairie, Meadow Sweet, Pyra- cantha. Fir. HI. KNOT-WEED. Fig. 142. CHERRY BLOSSOMS. ^Zt Polygonous: — (Knot- Weed) Buckwheat, Lady Thumb, Rhubarb, Sorrel, and a variety of Knot- Weeds or Per- sicarias (Fig. 141). PASTURAGE. 391 Fig. 143. (FromL'Apicoltore.) BORAGE. /