Water Electrolysis in the Higgs Lattice Model: Cluster Mechanics of Cleaving Molecular Bonds by Brute Force

Introduction: Electrolysis as a Mechanical Problem The current transition to a hydrogen economy is severely bottlenecked by the energy inefficiency of classical water () electrolysis. Standard electrochemistry describes this process abstractly supplying electrical energy overcomes the binding energy, facilitating electron transfer. However, the physical model of the Higgs lattice (based on 55-node Mackay Icosahedron clusters and the Mexican Hat potential) reveals that electrolysis is, in reality, a process of "brute spatial force," wherein proton gluons are mechanically torn from their geometric locks.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-03-21
DOI
https://doi.org/10.5281/zenodo.19150960
Primary Topic
Cold Fusion and Nuclear Reactions
Type
article
Field-Weighted Citation Impact
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article

Water Electrolysis in the Higgs Lattice Model: Cluster Mechanics of Cleaving Molecular Bonds by Brute Force

Peter Kyjovsky
Zenodo (CERN European Organization for Nuclear Research)
Cold Fusion and Nuclear Reactions
article

Water Electrolysis in the Higgs Lattice Model: Cluster Mechanics of Cleaving Molecular Bonds by Brute Force

Peter Kyjovsky
article en

Abstract

Introduction: Electrolysis as a Mechanical Problem The current transition to a hydrogen economy is severely bottlenecked by the energy inefficiency of classical water () electrolysis. Standard electrochemistry describes this process abstractly supplying electrical energy overcomes the binding energy, facilitating electron transfer. However, the physical model of the Higgs lattice (based on 55-node Mackay Icosahedron clusters and the Mexican Hat potential) reveals that electrolysis is, in reality, a process of "brute spatial force," wherein proton gluons are mechanically torn from their geometric locks.

Zenodo (CERN European Organization for Nuclear Research)
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Cold Fusion and Nuclear Reactions
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