University of Virginia Library

Search this document 
  
  
  
  
  
  

collapse section1. 
 1. 
 2. 
 3. 
 4. 
 5. 
 6. 
 7. 
 8. 
 9. 
 10. 
 11. 
 12. 
 13. 
collapse section2. 
 14. 
 15. 
 16. 
 17. 
 18. 
 19. 
 20. 
 21. 
 22. 
 23. 
 24. 
 25. 
 26. 
 27. 
 28. 
collapse section3. 
 29. 
 30. 
 31. 
 32. 
 33. 
 34. 
 35. 
 36. 
 37. 
 38. 
 39. 
 40. 
 41. 
 42. 
 43. 
 44. 
 45. 
collapse section4. 
 46. 
 47. 
 48. 
 49. 
 50. 
 51. 
 52. 
 53. 
 54. 
 55. 
 56. 
 57. 
 58. 
 59. 
collapse section5. 
 61. 
 62. 
 63. 
 64. 
 65. 
 66. 
 67. 
 68. 
 69. 
 70. 
collapse section6. 
 71. 
 72. 
 73. 
 74. 
 75. 
 76. 
 77. 
 78. 
 79. 
 80. 
 81. 
 82. 
 83. 
 84. 
collapse section7. 
 85. 
 86. 
 87. 
 88. 
 89. 
 90. 
 91. 
 92. 
 93. 
 94. 
 95. 
 96. 
 97. 
 98. 
 99. 
 100. 
 101. 
 102. 
 103. 
§ 103. Conclusion.

  

§ 103. Conclusion.

We have shown that modern science indicates the essential truth of alchemistic doctrine, and our task is ended. Writing in 1904, Sir William Ramsay said: "If these hypotheses [concerning the possibility of causing the atoms of ordinary elements to absorb energy] are just, then the transmutations of the elements no longer appears an idle dream. The philosopher's stone will have been discovered, and it is not beyond the bounds of possibility that it may lead to that other goal of the philosophers of the dark ages—the elixir vitæ. For the action of living cells is also dependent on the nature and direction of the energy which they contain; and who can say that it will be


141

impossible to control their action, when the means of imparting and controlling energy shall have been investigated?" 31 Whatever may be the final verdict concerning his own experiments, those of Sir Ernest Rutherford, referred to in the Preface to the present edition, demonstrate the fact of transmutation; and it is worth noticing how many of the alchemists' obscure descriptions of their Magistery well apply to that marvellous something which we call Energy, the true "First Matter" of the Universe. And of the other problem, the Elixir Vitæ, who knows?

[1.]

They must not be confused with the greenish-yellow phosphorescence which is also produced: the X-rays are invisible.

[2.]

See Madame SKLODOWSKA CURIE'S Radio-active Substances (2nd ed., 1904).

[3.]

See Sir T. E. THORPE: "On the Atomic Weight of Radium" (Bakerian Lecture for 1907. Delivered before the Royal Society, June 20, 1907), Proceedings of the Royal Society of London, vol. lxxx. pp. 298 et seq.; reprinted in The Chemical News, vol. xcvii. pp. 229 et seq. (May 15, 1908).

[4.]

Madame P. CURIE and M. A. DEBIERNE: "Sur le radium métallique," Comptes Rendus heldomadaires des Séances l'Academie des Sciences, vol. cli. (1910), pp. 523-525. (For an English translation of this paper see The Chemical News, vol. cii. p. 175.)

[5.]

This follows from Avogadro's Hypothesis, see § 76.

[6.]

Sir WILLIAM RAMSAY and Dr. R. W. GRAY: "La densité de l'émanation du radium," Comptes Rendus hebdomadaires des Séances de l'Académie des Sciences, vol. cvi. (1910), pp. 126 et seq.

[7.]

This view regarding the γ-rays is not, however, universally accepted, some scientists regarding them as consisting of a stream of particles moving with very high velocities.

[8.]

Sir WILLIAM CROOKES, F.R.S.: "Radio-activity of Uranium," Proceedings of the Royal Society of London, vol. lxvi. (1900), pp. 409 et seq.

[9.]

E. RUTHERFORD, F.R.S., and H. T. BARNES, D.Sc.: "Heating Effect of the Radium Emanation," Philosophical Magazine [6], vol. vii. (1904), pp. 202 et seq.

[10.]

Sir WILLIAM RAMSAY and FREDERICK SODDY: "Experiments in Radioactivity and the Production of Helium from Radium," Proceedings of the Royal Society of London, vol. lxxii. (1903), pp. 204 et seq.

[11.]

E. RUTHERFORD, F.R.S., and T. ROYDS, M.Sc.: "The Nature of the α-particle from Radio-active Substances," Philosophical Magazine [6], vol. xvii. (1909), pp. 281 et seq.

[12.]

By Ramsay. See Proceedings of the Chemical Society, vol. xxv. (1909), pp. 82 and 83.

[13.]

By Professor Onnes. See Chemical News, vol. xcviii. p. 37 (July 24, 1908).

[14.]

See Professor H. C. JONES: The Electrical Nature of Matter and Radioactivity (1906), pp. 125—126.

[15.]

It has been definitely proved, for example, that the common element potassium is radioactive, though very feebly so (it emits β-rays). It is also interesting to note that many common substances emit corpuscles at high temperatures.

[16.]

Says Peter Bonus, however, " . . . we know that the generation of metals occupies thousands of years . . . in Nature's workshop . . ." (see The New Pearl of Great Price, Mr. A. E. Waite's translation, p. 55), and certain others of the alchemists expressed a similar view.

[17.]

Sir WILLIAM A. TILDEN: The Elements: Speculations as to their Nature and Origin (1910), pp. 108, 109, 133 and 134. With regard to Sir William Tilden's remarks, it is very interesting to note that Swedenborg (who was born when Newton was between forty and fifty years old) not only differed from that great philosopher on those very points on which modern scientific philosophy is at variance with Newton, but, as is now recognised by scientific men, anticipated many modern discoveries and scientific theories. It would be a most interesting task to set forth the agreement existing between Swedenborg's theories and the latest products of scientific thought concerning the nature of the physical universe. Such, however, would lie without the confines of the present work.

[18.]

Sir WILLIAM RAMSAY: "The Chemical Action of the Radium Emanation. Pt. I., Action on Distilled Water," Journal of the Chemical Society, vol. xci. (1907), pp. 931 et seq. ALEXANDER T. CAMERON and Sir WILLIAM RAMSAY, ibid. "Pt. II., On Solutions containing Copper, and Lead, and on Water," ibid. pp. 1593 et seq. "Pt. III., On Water and Certain Gases," ibid. vol. xciii. (1908), pp. 966 et seq. "Pt. IV., On Water," ibid. pp. 992 et seq.

[19.]

Journal of the Chemical Society, vol. xciii. (1908), p. 997.

[20.]

E. RUTHERFORD, F.R.S., and T. ROYDS, M.Sc.: "The Action of Radium Emanation on Water," Philosophical Magazine [6], vol. xvi. (1908), pp. 812 et seq.

[21.]

See pp. 106, 107.

[22.]

Journal of the Chemical Society, vol. xci. (1907), pp. 1605-1606. More recent experiments, however, proved that the α-particle does consist of an electrically charged helium-atom, and this view was latterly accepted by Sir William Ramsay, so that the above suggestions must be modified in accordance therewith. (See § 94.)

[23.]

Madame CURIE and Mademoiselle GLEDITSCH: "Action de 'émanation du radium sur les solutions des sels de cuivre," Comptes Rendus hebdomadaires de Séances de l'Acadimie des Sciences, vol. cxlvii. (1908), pp. 345 et seq. (For an English translation of this paper, see The Chemical News, vol. xcviii. pp. 157 and 158.)

[24.]

EDGAR PHILIP PERMAN: "The Direct Action of Radium on Copper and Gold," Proceedings of the Chemical Society, vol. xxiv. (1908), p. 214.

[25.]

Sir WILLIAM RAMSAY: "Elements and Electrons," Journal of the Chemical Society, vol. xcv. (1909), pp. 624 et seq.

[26.]

For a brief account in English of these later experiments see The Chemical News, vol. c. p. 209 (October 29, 1909).

[27.]

Diamond is transformed into graphite when heated by a powerful electric current between carbon poles, and both diamond and graphite can be indirectly converted into charcoal. The artificial production of the diamond, however, is a more difficult process; but the late Professor Moissan succeeded in effecting it, so far as very small diamonds are concerned, by dissolving charcoal in molten iron or silver and allowing it to crystallise from the solution under high pressure. Graphite was also obtained. Red phosphorus is produced from yellow phosphorus by heating the latter in absence of air. The temperature 240-250° C. is the most suitable; at higher temperatures the reverse change sets in, red phosphorus being converted into yellow phosphorus.

[28.]

Professor HENRY M. HOWE, LL.D.: "Allotropy or Transmutation." (See The Chemical News, vol. cii. pp. 153 and 154, September 23, 1910.)

[29.]

For a defence of the view that chemical substances may be regarded as energy-complexes, and that this view is equally as valid as the older notion of a chemical substance as an inertia-complex, i.e., as something made up entirely of different units or atoms each characterised by the possession of a definite and constant weight at a fixed point on the earth's surface, see an article by the present writer, entitled "The Claims of Thermochemistry," Knowledge and Scientific News, vol. vii. (New Series), pp. 227 et seq. (July, 1910).

[30.]

In some cases the heat change accompanying the transformation of an element into an "allotropic modication"{sic} can be measured directly. More frequently, however, it is calculated as the difference between the quantities of heat obtained when the two "forms" are converted into one and the same compound.

[31.]

Sir WILLIAM RAMSAY: "Radium and its Products," Harper's Magazine (December 1904), vol. xlix. (European Edition), p. 57.

THE END.