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PreprintCC BY 4.0Zenodo

Engineering the Modern Alchemist: Scalable Transmutation of Mercury-198 into Gold-197 via High-Flux Neutron Spallation Systems

  • sudhakar geruganti1
  1. 1PROFESSOR IN ENGINEERING COLLEGE AND PHD RESEARCH SCHOLAR
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Abstract

Alternative Title

Metallurgical Frameworks for Industrial-Scale Nuclear Transmutation: A Comparative Study of the Maardan Fusion Isotopic Decay Paradigm

Sub-Title

Bridging High-Energy Nuclear Physics and Advanced Materials Science for the Continuous-Wave Synthesis of Elemental Precious Metals

📝 Detailed Description

This comprehensive academic research paper establishes a rigorous materials science and engineering framework around the experimental nuclear transmutation protocols pioneered by the Maardan Fusion architecture. Historically, the synthesis of gold from base metals (specifically elemental mercury isotopes) has been confined to sub-nanogram, picogram-scale milestones within heavy-ion collision laboratories such as CERN. These traditional methods are severely bottlenecked by extreme energy inputs and microscopic target cross-sections.

This paper bridges the gap between pure quantum mechanics and practical industrial manufacturing by analyzing a continuous-wave, high-flux neutron spallation system targeting circulating liquid-phase Mercury-198 (198Hg). The document outlines the complete sequence of nuclear reactions, starting with an induced (n, 2n) spallation reaction that transitions the substrate into unstable Mercury-197 (197Hg), which subsequently undergoes electron capture (ϵ) to settle cleanly into stable, elemental Gold-197 (197Au).

From a departmental standpoint (Metallurgical and Materials Engineering), the description details the core mechanical and thermodynamic barriers preventing runaway failures in high-flux environments. It directly addresses:

Refractory Alloy Metallurgy: The implementation of Molybdenum-Lanthanum (MoLa) and Tungsten-Rhenium (W-Re) shielding to prevent Liquid Metal Embrittlement (LME) and high-pressure vapor erosion.

Phase-Separation Thermodynamics: The calculation of vacuum-induction distillation parameters (360∘ C at 10−3 Torr) required to continuously isolate solid gold from the fluid amalgam matrix without disrupting the core loop.

Scalability Benchmarking: A structured data matrix contrasting traditional high-energy physics energy inputs against an optimized industrial pathway aiming for multi-ton annual yields.

If you want to prepare this for presentation or submission, let me know:

Should I format these titles into a formal Title Page layout including your specific institutional details?

Would you like me to draft an accompanying Graphical Abstract Outline or Keywords list for journal indexing?

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Cite

BibTeXRIS
BibTeX
@misc{geruganti2026engineering,
  title = {{Engineering the Modern Alchemist: Scalable Transmutation of Mercury-198 into Gold-197 via High-Flux Neutron Spallation Systems}},
  author = {sudhakar geruganti},
  howpublished = {Zenodo},
  year = {2026},
  month = oct,
  doi = {10.5281/zenodo.23636949},
  url = {https://zenodo.org/records/23636949},
  note = {CC BY 4.0},
}
RIS
TY  - UNPB
TI  - Engineering the Modern Alchemist: Scalable Transmutation of Mercury-198 into Gold-197 via High-Flux Neutron Spallation Systems
AU  - sudhakar geruganti
PY  - 2026
DA  - 2026/10/25
PB  - Zenodo
DO  - 10.5281/zenodo.23636949
UR  - https://zenodo.org/records/23636949
AB  - Alternative Title  Metallurgical Frameworks for Industrial-Scale Nuclear Transmutation: A Comparative Study of the Maardan Fusion Isotopic Decay Paradigm  Sub-Title  Bridging High-Energy Nuclear Physics and Advanced Materials Science for the Continuous-Wave Synthesis of Elemental Precious Metals  📝 Detailed Description  This comprehensive academic research paper establishes a rigorous materials science and engineering framework around the experimental nuclear transmutation protocols pioneered by the Maardan Fusion architecture. Historically, the synthesis of gold from base metals (specifically elemental mercury isotopes) has been confined to sub-nanogram, picogram-scale milestones within heavy-ion collision laboratories such as CERN. These traditional methods are severely bottlenecked by extreme energy inputs and microscopic target cross-sections.  This paper bridges the gap between pure quantum mechanics and practical industrial manufacturing by analyzing a continuous-wave, high-flux neutron spallation system targeting circulating liquid-phase Mercury-198 (^198Hg). The document outlines the complete sequence of nuclear reactions, starting with an induced (n, 2n) spallation reaction that transitions the substrate into unstable Mercury-197 (^197Hg), which subsequently undergoes electron capture (ϵ) to settle cleanly into stable, elemental Gold-197 (^197Au).  From a departmental standpoint (Metallurgical and Materials Engineering), the description details the core mechanical and thermodynamic barriers preventing runaway failures in high-flux environments. It directly addresses:  Refractory Alloy Metallurgy: The implementation of Molybdenum-Lanthanum (MoLa) and Tungsten-Rhenium (W-Re) shielding to prevent Liquid Metal Embrittlement (LME) and high-pressure vapor erosion.  Phase-Separation Thermodynamics: The calculation of vacuum-induction distillation parameters (360^∘ C at 10^−3 Torr) required to continuously isolate solid gold from the fluid amalgam matrix without disrupting the core loop.  Scalability Benchmarking: A structured data matrix contrasting traditional high-energy physics energy inputs against an optimized industrial pathway aiming for multi-ton annual yields.  If you want to prepare this for presentation or submission, let me know:  Should I format these titles into a formal Title Page layout including your specific institutional details?  Would you like me to draft an accompanying Graphical Abstract Outline or Keywords list for journal indexing?  Do you need an Executive Summary based on this description for quick presentation to a review board?
ER  -