PFUSRC 46.0: A Fundamental Reconstruction of the Dirac Equation from the 45° Coaxial Double-Cone Topology

This work derives the Dirac equation as a low-energy, weakly coupled, four-dimensional projection of the PFUSRC universal framework, rooted in the 45° coaxial double-cone geometry and the dual sevenfold system. By establishing a rigorous geometry-to-physics translation mechanism, we demonstrate that the differential operators ∂_μ, the Clifford algebra structure of γ^μ matrices, and the mass term m emerge naturally from the fundamental topology, rather than being introduced ad-hoc. The derivation resolves key conceptual and dimensional inconsistencies, proving that the Dirac equation is a phenomenological approximation of the universal PFUSRC convergence equation, rather than a fundamental law of nature. The framework is fully self-consistent, compatible with existing experimental results, and falsifiable through high-energy and astrophysical observations.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-28
DOI
https://doi.org/10.5281/zenodo.20420752
Primary Topic
Algebraic and Geometric Analysis
Type
article
Field-Weighted Citation Impact
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article

PFUSRC 46.0: A Fundamental Reconstruction of the Dirac Equation from the 45° Coaxial Double-Cone Topology

Zhenmin Wang
Zenodo (CERN European Organization for Nuclear Research)
Algebraic and Geometric Analysis
article

PFUSRC 46.0: A Fundamental Reconstruction of the Dirac Equation from the 45° Coaxial Double-Cone Topology

Zhenmin Wang
article en

Abstract

This work derives the Dirac equation as a low-energy, weakly coupled, four-dimensional projection of the PFUSRC universal framework, rooted in the 45° coaxial double-cone geometry and the dual sevenfold system. By establishing a rigorous geometry-to-physics translation mechanism, we demonstrate that the differential operators ∂_μ, the Clifford algebra structure of γ^μ matrices, and the mass term m emerge naturally from the fundamental topology, rather than being introduced ad-hoc. The derivation resolves key conceptual and dimensional inconsistencies, proving that the Dirac equation is a phenomenological approximation of the universal PFUSRC convergence equation, rather than a fundamental law of nature. The framework is fully self-consistent, compatible with existing experimental results, and falsifiable through high-energy and astrophysical observations.

Zenodo (CERN European Organization for Nuclear Research)
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Algebraic and Geometric Analysis
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