Geometric Localization of Electromagnetic Duality Symmetry Based on Noether's Theorem and the Inevitable Derivation of Magnetic Charge Conservation inside ℵ-Trijindaduonion Spacetime

This study extends Noether’s theorem to a 32-dimensional non-alternative and non-associative ℵ-trijindaduonion (Tℵ) Artinian local ring structure, providing a purely algebraic proof for the necessity of electric and magnetic charge polarity configurations in macroscopic spacetime. The simultaneous localization of the first law of thermodynamics—as demanded by time-translation symmetry—and the strong-weak electromagnetic duality symmetry (S-duality) is realized within a spatiotemporal dimensional reduction pyramid. Under these constraints, the asymmetric manifestation of the electron as a negative charge (e−) and the macroscopically stable monopole as a South pole (gS) is demonstrated to be a unique, mathematically inevitable algebraic solution to maintain the global Noetherian invariants of the universe, rather than a stochastic consequence of spontaneous symmetry breaking. It is rigorously proven that the complete parity symmetry violation of space and the negative sign in Faraday’s law of induction constitute a coupled mechanism of symmetries and conservation laws that prevents the spatiotemporal causal matrix from collapsing via nilpotent maximal ideals. This framework completes the mathematical paradigm of grand unification.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-08
DOI
https://doi.org/10.5281/zenodo.24048200
Primary Topic
Quantum and Classical Electrodynamics
Type
article
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article

Geometric Localization of Electromagnetic Duality Symmetry Based on Noether's Theorem and the Inevitable Derivation of Magnetic Charge Conservation inside ℵ-Trijindaduonion Spacetime

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Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
article

Geometric Localization of Electromagnetic Duality Symmetry Based on Noether's Theorem and the Inevitable Derivation of Magnetic Charge Conservation inside ℵ-Trijindaduonion Spacetime

Your Name
article en

Abstract

This study extends Noether’s theorem to a 32-dimensional non-alternative and non-associative ℵ-trijindaduonion (Tℵ) Artinian local ring structure, providing a purely algebraic proof for the necessity of electric and magnetic charge polarity configurations in macroscopic spacetime. The simultaneous localization of the first law of thermodynamics—as demanded by time-translation symmetry—and the strong-weak electromagnetic duality symmetry (S-duality) is realized within a spatiotemporal dimensional reduction pyramid. Under these constraints, the asymmetric manifestation of the electron as a negative charge (e−) and the macroscopically stable monopole as a South pole (gS) is demonstrated to be a unique, mathematically inevitable algebraic solution to maintain the global Noetherian invariants of the universe, rather than a stochastic consequence of spontaneous symmetry breaking. It is rigorously proven that the complete parity symmetry violation of space and the negative sign in Faraday’s law of induction constitute a coupled mechanism of symmetries and conservation laws that prevents the spatiotemporal causal matrix from collapsing via nilpotent maximal ideals. This framework completes the mathematical paradigm of grand unification.

Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
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