The Classical Origin of Spin: Vectors Versus Bivectors

There are two ways of linearizing the Klein–Gordon equation: Dirac’s choice, which introduces a matter–antimatter pair, and a second approach using a bivector, which Dirac did not consider. In this paper, we show that a bivector provides the classical origin of quantum spin. At high precessional frequencies, a symmetry transformation occurs in which classical reflection becomes quantum parity. We identify a classical spin-1 boson and demonstrate how bosons deliver energy, matter, and torque to a surface. The correspondence between classical and quantum domains allows spin to be identified as a quantum bivector, iσ. Using geometric algebra, we show that a classical boson has two blades, corresponding to magnetic quantum number states m=±1. We conclude that fermions are the blades of bosons, thereby unifying both into a single particle theory. We compare and contrast the Standard Model, which uses chiral vectors as fundamental, with the Bivector Standard Model, which uses bivectors, with two hands, as fundamental.

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Publication Details

Journal
Axioms
Published
2025-08-29
DOI
https://doi.org/10.3390/axioms14090668
Citations
1
Primary Topic
Relativity and Gravitational Theory
Type
article
Field-Weighted Citation Impact
1.15
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article

The Classical Origin of Spin: Vectors Versus Bivectors

Bryan Sanctuary
1 citations
Axioms
Relativity and Gravitational Theory
1.15
article

The Classical Origin of Spin: Vectors Versus Bivectors

Bryan Sanctuary
article en
1 citations

Abstract

There are two ways of linearizing the Klein–Gordon equation: Dirac’s choice, which introduces a matter–antimatter pair, and a second approach using a bivector, which Dirac did not consider. In this paper, we show that a bivector provides the classical origin of quantum spin. At high precessional frequencies, a symmetry transformation occurs in which classical reflection becomes quantum parity. We identify a classical spin-1 boson and demonstrate how bosons deliver energy, matter, and torque to a surface. The correspondence between classical and quantum domains allows spin to be identified as a quantum bivector, iσ. Using geometric algebra, we show that a classical boson has two blades, corresponding to magnetic quantum number states m=±1. We conclude that fermions are the blades of bosons, thereby unifying both into a single particle theory. We compare and contrast the Standard Model, which uses chiral vectors as fundamental, with the Bivector Standard Model, which uses bivectors, with two hands, as fundamental.

AxiomsVol. 14(9)
McGill University (CA)
Openalex Percentile: Top 17%
Relativity and Gravitational Theory
1.15
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