At the Fulcrum of Time Joseph M. Reagle Jr. After surveying a great amount of Newton's alchemical manuscripts, Lord Keynes wrote: Newton was not the first of the age of reason. He was the last of the magicians, the last of the Babylonians and Sumerians, the last great mind which looked out on the visible and intellectual world with the same eyes as those who began to build our intellectual inheritance rather less than 10,000 years ago.1 The aptness of this quotation has led it to be mentioned in almost any paper, book, or lecture which attempts to address Newton's alchemy. I found it useful as an introduction to Newton, as did Betty Jo Teeter Dobbs, in her book The Foundations of Newton's Alchemy. The above book is an extensive text on the influences that contributed to the development of Newton's alchemical theories. Though I shall not be able to concern myself with even a fraction of the subject matter addressed by Dobbs, I do hope to use her text in order to present my own topic for this paper. The corpus of Newton's scientific work is amazing not only for its brilliance but it's bewildering breadth of subject material. Newton, like many of his contemporaries, forged new paradigms of thought from a wide variety of esoteric concepts. In this paper I will present a few examples that reflect the interesting contrast of archaic and modern concepts in Newton's alchemical work. Newton's Alchemy Before proceeding on to discuss Newton's attitudes towards his work, I shall first present a short description of alchemy. Alchemy was a combination of mystical and physical thought. Until Descartes, matter and spirit were considered to be interrelated. Descartes and the mechanical philosophers thought that all motion and matter were motivated by the interaction of atoms or "corpuscles." This coprusclean theory was not accepted by Newton. Instead, Newton continued to hold the view that matter was motivated by a vital agent. This agent, known also as the divine spirit or vegetative spirit, was thought to be that which impregnated an egg in the presence of the sperm and mineralogical processes were conceived of in similar biological terms: ...but he was convinced that the processes of vegetation were similar in all three kingdoms of nature: the animal kingdom, the vegetable kingdom, and the mineral kingdom.2 This common view was known as the Sendivigian theory.3 One of its central points was that metals grew at the center of the earth. Here metallic seeds would congeal in a mercuric and sulfuric matrix, incubated by the internal heat of the earth and the radiant energy of the sun, to form metals. Due to crude airs in the pores and bowels of the earth, this process would often be corrupted. The two "elements" of mercury and sulfur would not combine properly to form gold, but coarser minerals. Yet it was thought the alchemists equipped, with the correct knowledge, could better nature. This correction was also conceived in terms of the natural process of life: death and rebirth. Just as a carcass rots in the heat of the day, minerals could be decomposed (putrefication) into smaller parts so as to be recombined. (Newton thought the smallest particles were black, hence when heat putrefied a substance into smaller particles it turned black.) After purtrefication, the natural process was further simulated by the alchemist by attempting fermentation, or the reformation of the atomic particles in a structure that was more suitable to the alchemist's needs. Often alchemists would attempt to use the natural processes, and the properties of "magnetism" in order to extract more perfect mercuries and sulfurs. Doing so would allow them to unlock the process by which matter was created, and possibly create the perfect matter: gold. Newton used the above concepts as a basis for his own theories. For instance, Newton attempted to revise the model of sulfuric and mercuric composition into a heirchical atomic structure which was based on 'fatty' and 'earth' particles respectively. Different compounds would have various levels of complexity: fatty and earth particles would be bound together in a variety of ways so as to explain the phenomena of color, smell, or interactions with other substances. Dobbs' provides an example of this type of reasoning: In other words, the particles of "last order" in a "fatty body" were conceived as having at least one central particle of an earth which had some acid particles embedded deeply enough than an acid could not exert its influence towards the exterior of the large particle.4 Perhaps the most interesting aspect of his atomic theory was the nature of how the structure of a particle affected its apparent color: And this Order of the green of all Vegetables seems to be, partly by reason of the Intenseness of their Colours, and partly because when they whither some of them turn to a greenish yellow... Which changes [of color] seem to be effected by the exhaling of the Moisture which may leave the tinging Corpuscles more dense, and some what augmented by the Accretion of oily and earthy Part of that Moisture.5 Hence, Newton attempted to theorize on the size of the changing particle as it lost water by pointing to the change of the leaf's color. (He even constructed tables on the "order" of a particle, its size, and color.) His other theories are intriguing as well, yet his concepts on the nature of science and methodology are equally interesting. Newton's Attitude Towards Secrecy One of the strong traditions of ancient magicians, and alchemists was secrecy. Often societies such as the Rosicrucians, Knights Templar, Free Masons, and mystical religions felt that knowledge could be garnered from divine or supernatural entities. Such knowledge would be gaurded jealousy to insure one's own power. Alchemists adhered to this tradition in their own way, attempting to learn about the world (spirit and matter) by tampering with the process by which matter was created. The means of communicating ones discoveries to others were through cryptical allusions, stories, or illustrations.6 In the sixteenth century the nature of alchemical investigation began to change. Marsenne's attack on occultism was the beginning of a reformation by which: "the alchemists should found an academy in which they could study the positive results of their experiments without mystery and without secrets."7 In England, Marsenne's colleagues, Hartlib and John Dury8 attempted a similar movement: Thus the situation was created whereby the reforming movement which was originally closely associated with alchemy and relied upon the most mystical and spiritual variety of that much abused study for the illumination needed for reform came under the calming and rationalizing influence of the new mechanical philosophers. The way was prepared for the rationalization of alchemy, its chemicalization and its clarification.9 Not only were the attitudes concerning the secrecy of knowledge changing, but how one should go about obtaining the knowledge. Dobbs writes of two men, Wilsons and "Mr. T. T." who in 1681 attempted to extract "philosophical mercury", the quintessence of mercury, from one pound of common mercury using heat over a 16 hour period. They were able to extract about one pint of liquid, of which Wilson wrote, "We pleased ourselves wonderfully with our supposed treasure which we concluded could be no less than the universal menstruum."10 Yet, Wilson and "Mr. T. T." continued in the spirit of the new empiricism to determine the exact nature of their liquid. They concluded it was ordinary water. This critical approach was carried even further so as to determine a possible source of error in their own and other's experiments. ...that Mr. Boyle, and others, were deceived by some unheeded circumstance, when they thought they obtained a water from mercury, which should seem rather to have arisen from the lute, and earthen vessels, made use of in the distillation; for Mr. Hales could not find the least sign of any moisture, upon distilling the mercury in a retort made of an iron gun-barrel, with an intense degree of heat, although he frequently cohobated the mercury which came over into the recipient.11 One would think Newton would have embraced these modern concepts of critical empiricism and the reporting of experimental error, yet his chemical method remained firmly rooted in the past. Newton deliberately held that alchemical information ought not be disseminated. It is a fact that Newton rarely made notes of, or published much of his failed alchemical experiments. Interestingly, he did not publish what he considered to be a great alchemical success, and further wrote to Oldenburg that Boyle, who worked on a problem similar to Newton, should remain silent in order to keep crude hands from unleashing a damaging force: But yet because ye way by wch mercury may be so impregnated, has been thought fit to be concealed by others that have known it, & therefore may possibly be an inlet to something more noble, not to be communicated wthout immense damage to ye world...12 By this letter we see that Newton does contrast with the new scientific atmosphere of his time. Interestingly, his motivation for the secrecy is similar to that which motivated scientists in WWII to end the tradition of openness, which gained much strength in Newton's time, for fear that ballistic or nuclear knowledge might empower the fascist dictators. So, it would seem Newton had both archaic and modern company is his views on the publication of scientific results, as did his approach towards chemical research. Newton's Methodology Newton's methodology can be seen in two lights: a combination of the most ancient esoterica and contemporary laboratory work. Newton approached his investigations as a means of attempting to restore the knowledge of the ancients. This concept of ancient wisdom, prisca sapentia, was probably an influence from More's "Immortality of the Soul."13 Within this text, More had attempted to defend an argument by relying on the authority of reason, divine authority, and the authority of antiquity. The number of ancient authorities cited probably encompassed every ancient civilization known at the time, including Egyptian, Indian, Greek, and especially the Cabalistic interpretation of the Old Testament--and various Christian revelations. This combination of antiquity, their association with divinity, and the ancients' status as philosophers suggested that they had been the fount of knowledge that had subsequently been lost or confused by those lesser than them.14 More had even considered Moses to be "the greatest Philosopher certainly that ever was in the world." Newton had accepted the above view as valid, and used the doctrine of prisca sapentia throughout his scientific and theological studies. So much so, that in his text, "The Language of the Prophets", he explored the technique of interpreting ancient wisdom: ...The Rule [for fixing the signification of the prophet's types and phrases] I have followed has been to compare the several mystical places of scripture where the same prophetic phrase or type is used, and to fix a signification to that phrase that agrees best with all the places...15 The above rule was considered to be just as applicable towards chemical or alchemical studies as torwards theological research. Dobbs considered Newton's alchemical methodology to consist of three stages and we can see Newton's "rule" clearly within the second step: First came the choice of material to be studied. Here one may see Newton turning to the most esoteric and mysterious production of the alchemists... The second step in his method was the rational analysis to find "significations". During that stage, Newton might draw on cross-references to other alchemical authors, or his on chemical knowledge... The third step of course carried out the testing...16 An excellent example of this method applied, concerns the translation of John de Monte Snyders' " The Metamorphis of the Planets." As illustrated by the large library of circulating manuscripts during this time, Dobbs expected that since this text had been published in German and Latin only, Newton must have received an English translation from one of his acquaintances in the Royal Society circle. She further notes: "...Newton's approach to Snyders was exactly the same as that which he used in the interpretation of prophecy: a rational, matter-of-fact analysis aimed at finding the true "significations" of Snyders' allegorical figures and actions."17 To further explain how Newton went about using the "Metamorphis of the Planets" for his studies, Dobbs tertiary classification may be applied to his experiments. First, it was often the case throughout history that astrological symbols were thought to be linked with those minerals or substances that have a common symbol. Hence, Saturn was thought to be sympathetic with lead, Mars with iron, Venus with copper, and Jupiter (Jove) with tin. For Newton, looking for secret transformations hidden in obscure astrological terms, Snyders' work may have seemed like a grand cookbook with alchemical recipes translated into allegorical myth. Secondly, the following passage from Snyders demonstrates the rich symbolism that so intrigued Newton and motivated him to grasp alchemical "significations": Wherefore the good Jupiter mounted upon the wings of his nimble Eagle and hastened to ye Palace & having obteined audience steps in, makes his due reverence wth his scepter, bows his knees, kisses ye foot of ye Monarch, presents his Eagle to his service..."18 Following the methodology further, Newton proceeded to the third step which was to use the above text as a basis for a variety of experiments. The experiments for this passage attempted to form "Jove's Eagle", some derivative of tin, by translating the deities into their chemical counterparts, and their actions into chemical/physical processes. Newton offered three possible alchemical translations of the passage and actually experimented with his first two. Neither experiment proved successful and he offered a third possible translation without commenting as to whether he had attempted to confirm it. What is striking about the above experiments is that Newton functioned in the same capacity as an alchemist as he did a physicist, or as a scientist of today would. Newton attempted to test theories in a rational matter. Presented with stimuli he could not understand, he proceeded to form various theories, test them, reform, and rethink them countless times until coming upon a conclusion that adequately explained the phenomena, (or until he would tire and turn to a different avenue of experimentation.) What differentiates Newton from today's scientist, is that he not only considered what his senses told him (as seen by his optics and physics work) but mythological writings that stemmed from the ancient philosophies of Moses, Pythageus, Zoraster and Jesus. This peculiar use of archaic and modern principles by Newton is not only fascinating to the modern reader, but instructive, on self reflection, about our conceptions of the past, and consequently the present. Bibliography Dobbs, Betty Jo. The Foundation of Newton's Alchemy: or "The Hunting of the Green Lyon." Cambridge: Cambridge University Press, 1975. Dobbs, Betty Jo. Alchemical Death and Resurrection: The Signifigance of Alchemy in the Age of Newton. Smithsonian Institution Libraries: Washington D.D., 1990. Marks, John. Science and the Making of the Modern World. _______________________________ 1 Dobbs, Betty Jo. The Foundation of Newton's Alchemy: or "The Hunting of the green Lyon". Cambridge: Cambridge University Press, 1975. p. 13. 2 Dobbs, Betty Jo. Alchemical Death and Resurrection: The Signifigance of Alchemy in the Age of Newton. Smithsonian Institution Libraries: Washington D.D., 1990. p. 2. 3 Dobbs, p. 158. 4 Dobbs, p. 219. 5 Dobbs, p. 223. 6 Dobbs, (Alchemical Death) insert. 7 Dobbs, p.57. 8 John Dury's son-in-law was Henry Oldenburg whom proceeded him in acting as a central point for correspondance concerning natural philosophy. 9 Dobbs, p. 63. 10 Dobbs, p. 74. 11 Dobbs, p. 85. (My italics.) 12 Dobbs, p 195. 13 Dobbs, p. 105. 14 As seen by the various tales of the Tower of Babel. 15 Dobbs, p. 109. 16 Dobbs, p. 175. 17 Dobbs, p. 168. 18 Dobbs, p. 169.