J.Komstapel,Leiden,9-10-2026.
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This book contains the scientific and historic context of Transmutation: Chemical Elements on Demand
1. Introduction
For at least two thousand years, people have tried to make matter. Some aimed to turn lead into gold. Others sought to create new substances from nothing. Most attempts failed. A few succeeded. One tradition even claimed the opposite: that a human body could be unmade into light.
At first sight, these attempts look unrelated. A scribe in Thebes alloys tin and mercury. A Chinese official seals tin in a clay pot for thirty days. An Indian physician grinds mercury through eighteen steps. A physician in The Hague drops a tiny grain into molten lead. A storage ring in Darmstadt strips an atom bare..
The book’s central tool is a single picture. Imagine a fishnet stretched in water. Strands run everywhere, under
2. Egypt: The Workshop and the Vision
The oldest surviving laboratory record lies in Leiden. Around 250 to 300 AD, a craftsman in Thebes was buried with his recipe book. The Dutch government bought the papyrus in 1828. It is known as Leiden Papyrus X. It holds 111 recipes, written in Greek, for gold, silver, a pale alloy called asem, precious stones and purple dye (Caley, 1926).
The recipes are short and practical. They read like memory aids for a working man. One recipe gives exact weights for making asem from tin, mercury and earth of Chios. Another states bluntly that the product “will deceive even the artisans.” The book also contains its own quality control. One recipe explains how to test gold by remelting and reheating it.
The outcome was honest about its limits. The Theban workshop made alloys that looked and weighed like gold and silver. By the book’s own word, they were imitations. In modern terms: rearranging, not transmutation.
Egypt also produced a doctrine, not just a workshop. Around 300 AD, Zosimos of Panopolis wrote the oldest known books of alchemy (Mertens, 1995). He defined the art as the study of “the composition of waters, movement, growth, embodying and disembodying.” His agents were the vapours of mercury and sulphur. For Zosimos, the change of metals mirrored a change in the worker. Copper that takes the colour of gold becomes a “terrestrial sun.”
Egypt therefore left two legacies. First, a workshop that rearranged matter and said so plainly. Second, a vision in which matter and the person working it change together. Both legacies travelled east and west.
3. China: Cinnabar, the Sealed Pot and the Turn Inward
China supplies the earliest evidence that gold-making was common. In 144 BCE, the Han emperor ordered public execution for anyone making counterfeit gold. A law implies a practice.
The Chinese tradition produced detailed procedures. The Cantong qi (around 142 CE) named mercury and lead as the prime ingredients. Ge Hong’s Baopuzi (finished around 317) describes laboratory work in four chapters. Scholars disagree about its value. Joseph Needham called Ge Hong the greatest alchemist in Chinese history. Nathan Sivin called the same chapters a trove of commonplaces and hearsay.
Two procedures stand out.
The cinnabar cycle. Red cinnabar is roasted. Liquid mercury runs out. The mercury is joined with sulphur and heated. Cinnabar returns. To the Chinese worker, this proved that substance could return. A red stone became a silver liquid and became a red stone again.
The sealed pot. Tin sheets are coated with a paste of red salt and limewater. They are sealed in an earthenware pot. The pot is kept warm for thirty days in horse manure. Most of the tin turns to ash. A small part becomes golden flakes. The stated yield was about twenty ounces of gold from twenty pounds of tin.
The chemistry is now understood. The golden flakes are stannic sulphide, later known in Europe as mosaic gold. In the terms of the framework: rearranging. But the Chinese sources did not hide the difference. Made gold was held to be better than natural gold, because the transformation itself gave it worth.
The practice had a terrible cost. The elixirs were eaten. They contained mercury, lead and arsenic. At least five Tang emperors were incapacitated or killed by them between 820 and 859. Later emperors, including the Yongzheng Emperor of the Qing (died 1735), are counted among the casualties. The recorded symptoms are those of metal poisoning.
From the Song dynasty (after 960), the work turned inward. The furnace was replaced by the body. The three substances became essence, breath and spirit. This inner tradition makes a claim on the third operation — not on metals, but on the body itself.
4. India: The Eighteen Steps of Mercury
The Indian tradition developed the most systematic procedure in this history. The Kalyāṇakāraka (early ninth century) describes purifying and calcining mercury. The first full treatise is the Rasahṛdayatantra (tenth century). Its nineteen chapters set out eighteen ways of working mercury.
The eighteen steps form a strict order. Early steps loosen impurities by steaming and grinding. Middle steps sublime, restrain and “kindle the appetite” of the mercury. Later steps feed it gold or mica, digest the meal, and give the mercury the power to penetrate other metals. Step 17, called vedha, is the transmutation itself: transforming a base metal by touch.
The logic is clear. First take the mercury apart until it “loses its form.” Then rebuild it. Only then bring it to the base metal. This is the soften-write-harden cycle, stated in a tenth-century text.
The tradition also produced two modern claims, recorded on stone. In New Delhi on 27 May 1942, Pandit Krishnalal Sharma is recorded as turning one tola of mercury (about 11.7 grams) into gold at Birla House, before named witnesses. In Rishikesh in 1943, the same man is recorded as producing 18 kilograms of gold from mercury supplied by Mahadev Desai, secretary to Gandhi.
The book is candid about these inscriptions. No assay record survives. No independent report was found. The claims remain unverified.
A third claim sits at the edge of the third operation. Sathya Sai Baba was reported to materialise ash, rings and other objects daily, for decades. Haraldsson and Osis investigated in the 1980s. Sai Baba declined controlled conditions. The investigators reached no definite conclusion. They found no evidence of fraud. Indian critics judged the study anecdotal. Neither claim has a measurement behind it.
5. Tibet: The Body That Becomes Light
Tibet holds the one tradition whose central claim is about unmaking. In the Dzogchen teaching, and in the older Bön religion, the highest attainment is the rainbow body. A practitioner who completes two practices — cutting through solidity, and direct vision — is said to release the body at death.
The reports are consistent in outline. The body shrinks in the days after death. Lights and rainbows appear around it. In the end it is gone. Hair and nails remain. Five twentieth-century cases are named, including Shardza Tashi Gyaltsen (1935) and Khenpo A-chö (1998). Local Chinese press reported that Khenpo A-chö’s body “shrank to the size of a bean on the eighth day and disappeared on the tenth day.”
Francis Tiso interviewed eyewitnesses and published the transcripts (Tiso, 2016). He states the limit himself. Such events cannot be studied in a laboratory. The work rests on the word of faithful informants.
The book adds a hard physical check. A body of 60 kg, converted to energy, releases 5.4 × 10¹⁸ joules — about 1,500 terawatt-hours, or 1,300 megatons of explosive. The reports describe soft light over days. They describe nothing of that size. Either the body does not open in the sense of the framework, or what leaves does not leave as radiation. The tradition’s own answer — a return of the body to the elements as light — suggests a third option that the energy tariff does not cover. That option remains unworked.
6. The Hague, 1666: A Grain in Wax
The strangest case in the history is the best documented of its kind. Johann Friedrich Schweitzer, called Helvetius, was a physician in The Hague. His account was printed in 1667 as Vitulus Aureus — the Golden Calf (Helvetius, 1667).
On 27 December 1666, a stranger visited his house. He was plainly dressed, probably from North Holland, and said he was a brassfounder. He showed an ivory box holding three pieces of a substance like pale sulphur. He said it was enough for twenty tons of gold. Three weeks later he returned and gave Helvetius a piece the size of a rape seed. He broke it and took half back. “Even now it is sufficient for you,” he said.
The procedure was simple. Six drachms of lead (about 23 grams) were melted in a crucible. The grain was wrapped in yellow wax by Helvetius’s wife, to carry it into the metal. The wax was cast on the lead. The melt hissed and bubbled. After about fifteen minutes it was poured. It ran green, then blood-red, and cooled to bright gold.
The product was examined. A goldsmith offered fifty florins an ounce. At a silversmith’s shop the metal was tested with acid and with antimony. Silver melted with it was itself said to have turned to gold. The Master of the Mint came to see it. The stranger never returned.
The framework classifies this as a claim of the second operation, and the book notes three recurring features. The agent is tiny against the metal. It is carried in a sealed coat. The work happens in a molten medium, within minutes. The account remains the only source. It is detailed, dated, and written by a man with a reputation to lose.
7. The Nucleus, 1901 to 1951
The word “transmutation” returned to science by accident. In 1901, Frederick Soddy and Ernest Rutherford found that thorium was turning into another element by itself. Soddy called out: “Rutherford, this is transmutation!” Rutherford replied: “They’ll have our heads off as alchemists.”
The first deliberate transmutation followed quickly.
- 1919. Rutherford fired alpha particles into nitrogen and saw protons come out.
- 1925. Patrick Blackett photographed the event: nitrogen-14 had become oxygen-17. The first transmutation done on purpose, recorded on film (Blackett, 1925).
- 1932. Cockcroft and Walton did it with a machine: accelerated protons split lithium.
- 1933. Blackett and Occhialini photographed an electron and a positron forming together out of radiation. The first sight of the third operation — creation. It requires 1.022 MeV, and it always gives a pair.
- 1937. Perrier and Segrè found element 43 in a molybdenum foil that had sat in a cyclotron. It was named technetium: the artificial element (Perrier and Segrè, 1937).
Gold itself was reached twice. In 1924, Adolf Miethe in Berlin reported gold from mercury in an electric lamp. Laboratories worldwide tried to replicate it. It was an error. In 1941, Sherr, Bainbridge and Anderson at Harvard bombarded mercury with neutrons and obtained gold (Sherr et al., 1941). All of it was radioactive. The ancient goal was reached — and useless as currency.
One episode sits apart. In 1951, Ernest Sternglass sent a 35,000-volt electron beam through hydrogen toward silver and indium foils at Cornell. The foils became radioactive, as if struck by slow neutrons. He wrote to Einstein. Einstein replied within days. A single neutron needs an electron fallen through 780,000 volts. But several electrons might give their energy to one proton together: “somewhat conceivable, although not probable.” The result was never published. Sternglass could not repeat it in 1960. Einstein’s last note to him was two words: “Be stubborn.”
8. Making at Scale
After 1940, making matter became an industry.
- New elements. Curium (1944) was the first element with no natural source. There are now 24 such elements, numbers 95 to 118. Oganesson, the heaviest, was first made in 2002.
- Tonnes. Reactors produced an estimated 78 tonnes of technetium-99 between 1983 and 1994.
- Medicine. A short-lived form of technetium is made daily for hospitals. The Dutch reactor at Petten is among the main sources of its parent isotope.
- Gold. In 1980, Glenn Seaborg and colleagues turned several thousand atoms of bismuth into gold at Berkeley. CERN made gold from lead: 18 nuclei from uranium in 2022, and about 260 billion nuclei by 2025 — roughly 90 picograms.
- Mirror atoms. Antihydrogen was first made at CERN in 1995. In 2011, 309 atoms were held at once, some for 1,000 seconds.
Nature works on another scale entirely. In 1952, technetium was detected in red giant stars, proving that stars make elements. In 2017, two neutron stars merged. The light that followed held strontium: at least 2 × 10²⁵ kilograms — more than three Earth masses (Watson et al., 2019).
Note the method in every case. Collision or capture. A nucleus is struck by a neutron or an ion, or squeezed in a star. The soften-write-harden cycle is absent. Nothing is softened. The price is paid in full, in energy.
9. The State Road
A second road was found by accident, in a ring built for another purpose. At GSI in Darmstadt, heavy atoms are stripped of their electrons and stored for hours.
The results are striking.
- 1992. Dysprosium-163 is stable when neutral. Stripped, it decays with a half-life of 47 days — becoming holmium.
- 1996. Rhenium-187 has a neutral half-life of 43 billion years. Stripped: 32.9 years.
- 2024. Thallium-205 is stable when neutral. Stripped, it becomes lead, with a half-life of 291 days (Leckenby et al., 2024).
Here the method is different. The atom is left alone. Its surroundings are changed and held. The knot then moves one address by itself. The ancient cycle reappears inside a modern instrument. The atom is softened by stripping. Its bare state sets the form that fits. It hardens as the neighbouring element.
A gentler version exists. Beryllium-7, held inside a cage of sixty carbon atoms, decays 0.83% faster (Ohtsuki et al., 2004).
Three further reports belong on this road, but are not accepted. Mitsubishi researchers reported nanogram-scale transmutation of caesium into praseodymium in layered palladium films (Iwamura et al., 2015). Toyota reported a replication in 2013; the wider field remains unconvinced. Vysotskii and Kornilova report manganese becoming iron in microbial cultures. Louis Kervran claimed that hens make calcium from potassium; controlled tests found nothing — the hens draw calcium from their bones.
10. Out of Rest
The newest work makes things from nothing but a structure and a field.
- Stanford, 1997. Light on light yields 106 positrons.
- Chalmers, 2011. A superconducting line is switched at 11 GHz. Photons appear in pairs where there were none (Wilson et al., 2011).
- Brookhaven, 2021. The light fields of passing gold ions yield 6,085 electron-positron pairs.
- Manchester, 2022. Current through narrow graphene channels pulls electron-hole pairs out of the material’s rest state.
- Amherst and Aalto, 2016. A magnetic field is switched around a cold rubidium cloud. A knot forms in under a millisecond, on demand (Hall et al., 2016).
- Helsinki and Grenoble, 1996. Superfluid helium-3 is heated locally and cooled back through its critical point. Vortices freeze in. Their number follows from the speed of cooling.
The last two show the full cycle. The medium is brought to its critical point. A field or boundary sets the form. The medium leaves the critical point quickly. What closed, stays. These are knots in artificial media, not atoms. But they show the method working where it can be watched.
11. The Recipe
Set side by side, the procedures repeat across two millennia.
| Where | Sealed in | Softened by | Written by | Held for |
|---|---|---|---|---|
| Thebes, c. 300 | Crucible | Fire | Proportions by weight | Minutes |
| China, c. 317 | Earthen pot | Gentle heat | Salt and lime paste | 30 days |
| India, 10th c. | Mercury itself | Grinding with plant juice | Digested gold | Months |
| New Delhi, 1942 | Soapnut shell and clay | Lamp flame | Two plant powders | 45 minutes |
| The Hague, 1666 | Wax | Molten lead | A grain | 15 minutes |
| Yokohama, 2002 | Layered film | Gas flowing through | Layer structure | Days |
| Darmstadt, 1992 | Storage ring | Stripping | The bare state | Days |
| Amherst, 2016 | Magnetic trap | Aligned field | Field switch | Under 1 ms |
Four features recur everywhere.
- A closed vessel, sealed from the surroundings.
- A softened medium — molten, dissolved, ground, or stripped.
- A small agent, tiny against what it changes.
- A held condition, then release.
The collision method of the nuclear era has none of these four. It is the exception in this history. It is also the only method that is fully measured.
The book prices the three roads per mole. Rearranging: about 10⁵ joules — daily practice since Thebes. Moving an address by state: about 5 × 10⁹ joules — measured, but only on single atoms. Forming: about 10¹⁶ joules for copper — measured for the electron pair only.
The open problems are equally clear. Nobody has moved an address by state in a weighable amount. Nobody has formed a knot heavier than an electron pair from a structure alone. Nobody has formed a knot without its mirror image.
12. Assessment
The book’s own status section is a model of intellectual honesty, and this essay endorses its ledger.
- Established. Nuclear transmutation by collision, pair creation from radiation, the made elements, the state road at Darmstadt, and the rest-state experiments.
- Unverified. The two Indian inscriptions, the Helvetius account, the rainbow body reports, and the materialisations.
- Refuted. Miethe’s lamp experiment and Kervran’s biological transmutation.
- Assumed, not proven. The key physical hypothesis: that passages arriving in phase add into one closure.
The historical reading — three operations, one cycle — is an interpretation, not a measurement. But it earns its keep. It orders two thousand years of scattered practice into a single account, and it makes testable distinctions between traditions that mixed their claims.
13. Conclusion
The history of making matter is not a museum of errors. It is a record of one idea pursued by three methods. The oldest method, rearranging, has been daily practice since Thebes. The second, moving an element’s address, was proved in the twentieth century — by collision, expensively, and by state, at the single-atom level. The third, forming matter, has been demonstrated only for the lightest particles.
The recurring recipe — a closed vessel, a softened medium, a small agent, a held condition — appears in a Han-dynasty pot and in a modern storage ring alike. The nuclear industry ignored it and paid the price in energy. The state road honoured it and moved atoms without collision.
The remaining questions are precise and worth money. Can the state road be scaled to weighable amounts? Can the rest-state method form knots heavier than an electron pair? Can it be done without a mirror? The traditions claimed all of this long ago. Physics has confirmed one operation, glimpsed another, and priced the third. The recipe is on the table. The kitchen is being built.
Annotated References
Primary source
Konstapel, J. (2026). How to Make Matter: The History of the Creation and Transmutation of Matter. Constable Research, Leiden, 9 October 2026.
The source text for this essay. A twelve-chapter history spanning Egypt, China, India, Tibet, the Netherlands and the modern laboratory. Its distinguishing feature is a “register of experiments” that grades every claim as established, unverified, refuted or assumed. Use: the backbone of any further work on this topic.
Konstapel, J. (2026). Matter Can Be Made. Constable Research, Leiden, 9 October 2026.
The companion essay. Holds the physical evidence in seven classes and every calculation used in the historical work: mesh sizes, energies per mole, and the count of in-phase passages. Use: read sections 3 and 12 for the derivations behind the recipe in Chapter 11.
Konstapel, J. (2026). The Vacuum.Net Theory. Constable Research, Leiden, 28 September 2026.
Sets out the fishnet picture: strands, windings, knots and meshes, with the natural units. Use: the conceptual vocabulary for all three operations.
Konstapel, J. (2026). “How to build a Vacuum Replicator.” constable.blog, 29 July 2026.
The cycle of soften, write and harden, stated as an engineering design rather than a history. Use: the bridge between the historical chapters and possible experiments.
Konstapel, J. (2026). “Het Gouden Elixir.” constable.blog, 3 June 2026.
The Chinese inner alchemy read against the layers of the net. Use: context for Chapter 3’s “turn inward.”
Egypt
Caley, E. R. (1926). “The Leyden Papyrus X: an English translation with brief notes.” Journal of Chemical Education 3, 1149. Reissued with the Stockholm Papyrus, edited by W. B. Jensen, University of Cincinnati, 2008.
All 111 Theban recipes in English, including the exact weights for asem and the self-testing procedures. Use: read recipes 5–8 and 87; note Caley’s remark on where the idea of transmutation began.
Leemans, C. (1885). Papyri Graeci Musei Antiquarii Publici Lugduni-Batavi, vol. II. Leiden: Brill.
The first scholarly edition of the papyrus, from the city where it still lies. Use: the standard reference for the Greek text.
Mertens, M. (1995). Zosime de Panopolis: Mémoires authentiques. Paris: Les Belles Lettres.
The surviving Greek of the oldest known alchemical author, with commentary. Use: the primary window into the doctrine in which metal and worker change together.
China
Ware, J. R. (1966). Alchemy, Medicine and Religion in the China of A.D. 320: The Nei P’ien of Ko Hung. Cambridge, Mass.: MIT Press.
The inner chapters of the Baopuzi in full translation. Use: chapters 4 and 16 for the laboratory procedures and the sealed-pot recipe.
Needham, J., and Lu Gwei-Djen (1974). Science and Civilisation in China, vol. 5, part 2. Cambridge University Press.
The standard account of Chinese gold-making and elixirs, with the chemistry identified. Use: the distinction between imitation and transmutation maps directly onto the framework’s first two operations.
Pregadio, F. (2011). The Seal of the Unity of the Three. Mountain View: Golden Elixir Press.
The Cantong qi translated and placed in its cosmological setting. Use: the founding text of the mercury-lead system.
India
Dhanya, S., et al. (2017). Review of the eighteen samskaras of mercury. International Journal of Research in Ayurveda and Pharmacy 8(4).
The eighteen steps in a single table, from the classical texts. Use: the quickest entry into the Indian procedure.
White, D. G. (1996). The Alchemical Body: Siddha Traditions in Medieval India. University of Chicago Press.
The Indian art treated as one practice of metal and body. Use: the chapters on mercury explain why steps 1–8 serve the body and steps 9–18 serve the metals.
Haraldsson, E. (1987). Miracles Are My Visiting Cards. London: Century.
The one sustained outside investigation of a living guru’s materialisations, with Osis. Use: read together with its Indian critics; the authors themselves reached no definite conclusion.
Tibet
Tiso, F. V. (2016). Rainbow Body and Resurrection. Berkeley: North Atlantic Books.
The Khenpo A-chö case from field journals and interviews. Use: the best-documented source on the rainbow body, by an investigator who openly states the limits of eyewitness evidence.
The Netherlands, 1666
Helvetius, J. F. (1667). Vitulus Aureus. Amsterdam. English as The Golden Calf, 1670.
The full first-person account of the 1666 transmutation claim: the stranger, the grain in wax, the testing by goldsmith and Master of the Mint. Use: about thirty pages; the only source, but detailed and dated.
The nuclear era
Blackett, P. M. S. (1925). Proceedings of the Royal Society A 107, 349.
The first deliberate transmutation, photographed in a cloud chamber: nitrogen-14 to oxygen-17. Use: the founding experimental record of modern transmutation.
Perrier, C., and Segrè, E. (1937). Journal of Chemical Physics 5, 712.
The discovery of technetium, the first element made rather than found. Use: the birth certificate of artificial matter.
Sherr, R., Bainbridge, K. T., and Anderson, H. H. (1941). “Transmutation of mercury by fast neutrons.” Physical Review 60, 473.
Gold from mercury at Harvard — all of it radioactive. Use: the ancient goal reached, and why it did not matter.
“Einstein’s lost hypothesis.” Nautilus (magazine feature).
The Sternglass episode and his correspondence with Einstein, including the “somewhat conceivable, although not probable” remark and the final note: “Be stubborn.” Use: the fullest account of an unpublished anomaly that shaped the book’s central assumption.
State and rest
Jung, M., et al. (1992). Physical Review Letters 69, 2164.
Stripped dysprosium-163 becomes holmium: the first established case of the “state road.” Use: the measured foundation of Chapter 9.
Leckenby, G., et al. (2024). Nature 635, 321.
Stripped thallium-205 becomes lead, half-life 291 days. Use: the newest confirmation that a stable atom moves one address when its electrons are removed.
Iwamura, Y., Itoh, T., and Tsuruga, S. (2015). Current Science 108, 628.
The layered-film transmutation claims from the Mitsubishi programme. Use: the most serious of the unaccepted reports; read alongside the Toyota replication and its critics.
Wilson, C. M., et al. (2011). Nature 479, 376.
Photon pairs created from the vacuum by switching a boundary condition at 11 GHz. Use: the cleanest demonstration of matter formed from rest alone.
Hall, D. S., et al. (2016). Nature Physics 12, 478.
A knot tied on demand in a cold rubidium cloud, in under a millisecond. Use: the full soften-write-harden cycle, visible to the eye of the instrument.
Kibble, T. W. B. (2001). arXiv:cond-mat/0111082.
The theory of windings formed from rest, and the rule for freezing knots in by fast cooling. Use: the physical rule behind the helium-3 vortex experiments.
Watson, D., et al. (2019). Nature 574, 497.
The neutron-star merger of 2017 and its strontium: an element weighed in the sky. Use: the calibration point for what nature makes, at scale.
Essay prepared on the basis of the uploaded manuscript. All established claims carry the references above; all unverified claims are labelled as such, following the source book’s own register.