SU(2) from Bipolar Torsion Geometry

This paper attempts to derive the SU(2) algebraic structure of quantum spin fromthe bipolar n = 2 torsion recursion of the Cohesion UFT, and thereby derive the Bellcorrelation E(a, b) = − cos θ without importing quantum mechanical postulates. Thederivation proceeds as follows. The bipolar torsion axis is a unit vector n ∈ S2. The2-sphere carries a natural symplectic structure — the area form ω = sin θ dθ ∧ dϕ —that is a geometric property of S2, not a quantum mechanical input. The Poissonbrackets induced by this symplectic structure are {ni, nj} = εijknk, which is the classicalsu(2) Poisson algebra. The slip operator of the bipolar torsion cycle defines ℏ as theminimum torsion action. Replacing Poisson brackets with commutators via ℏ gives[Jˆi, Jˆj ] = iℏεijkJˆk, which is SU(2). The Bell correlation E(a, b) = − cos θ then followsfrom the standard SU(2) result for anti-phase bipolar pairs in the spin- 12representation.Two steps in this chain are identified rather than formally derived: that the area formof S2is the correct symplectic structure for the torsion dynamics (plausible from thegeometry but not yet proven from the Lagrangian), and that n = 2 specifically yieldsthe spin- 12representation rather than higher spin. These gaps are precisely located.The derivation is substantially complete; the remaining steps are formal rather thanconceptual.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-02
DOI
https://doi.org/10.5281/zenodo.19969744
Primary Topic
Algebraic and Geometric Analysis
Type
article
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article

SU(2) from Bipolar Torsion Geometry

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

SU(2) from Bipolar Torsion Geometry

Dexter Gilbert
article en

Abstract

This paper attempts to derive the SU(2) algebraic structure of quantum spin fromthe bipolar n = 2 torsion recursion of the Cohesion UFT, and thereby derive the Bellcorrelation E(a, b) = − cos θ without importing quantum mechanical postulates. Thederivation proceeds as follows. The bipolar torsion axis is a unit vector n ∈ S2. The2-sphere carries a natural symplectic structure — the area form ω = sin θ dθ ∧ dϕ —that is a geometric property of S2, not a quantum mechanical input. The Poissonbrackets induced by this symplectic structure are {ni, nj} = εijknk, which is the classicalsu(2) Poisson algebra. The slip operator of the bipolar torsion cycle defines ℏ as theminimum torsion action. Replacing Poisson brackets with commutators via ℏ gives[Jˆi, Jˆj ] = iℏεijkJˆk, which is SU(2). The Bell correlation E(a, b) = − cos θ then followsfrom the standard SU(2) result for anti-phase bipolar pairs in the spin- 12representation.Two steps in this chain are identified rather than formally derived: that the area formof S2is the correct symplectic structure for the torsion dynamics (plausible from thegeometry but not yet proven from the Lagrangian), and that n = 2 specifically yieldsthe spin- 12representation rather than higher spin. These gaps are precisely located.The derivation is substantially complete; the remaining steps are formal rather thanconceptual.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 4%
Algebraic and Geometric Analysis
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