How Natural Origins Achieves the Algebraization of the Dirac Equation

This paper develops the algebraization of the Dirac equation by reexamining the bottom layer meanings of high speed electron energy, momentum, magnetic moment, spin, positron, probability current, and four component spinor in modern relativistic quantum mechanics. The paper argues that the greatness of the Dirac equation lies in its ability to preserve, within a first order matrix equation, the closed loop mass ledger, spatial step ledger, charge conjugation ledger, and magnetic rollback ledger of the electron. These results are not created by the matrices themselves. They are bottom layer relations that the electron must preserve while maintaining its own structure in light speed refreshed space. In the Natural Origins framework, the electron is neither a diffused probability wave nor a mechanically spinning small sphere. It is a closed loop entity with a self time element, root flux, and negative electric slope. Mass and rest energy are interpreted as settlement readouts of the electron self time element in an external time potential background. The increase of motion energy is interpreted as the amplification of the external public time readout of local closed loop time after spatial stepping occupies the refresh budget. The Dirac energy relation is generated directly from the unit circle refresh budget, while the matrix structure is repositioned as a linear encoding that compresses the closed loop anchor ledger, spatial step ledger, charge conjugation ledger, and magnetic rollback ledger into a first order algorithm. The paper further states that spin is not mechanical rotation inside the electron, but the two exit settlement readout formed when the magnetic rollback accompanying a moving electric slope enters an external magnetic axis. The principal value of the electron magnetic moment comes from full ledger restoration between complete magnetic rollback and spinor half angle bookkeeping. The positron is an independent positive electric closed loop produced by refresh leading, rather than a hole in a negative energy sea. The whole paper finally forms a unified main line: time element closure gives mass and energy readouts, unit circle budgeting gives relativistic energy and momentum, moving electric slope generates magnetic rollback and manifests as spin and magnetic moment, and refresh lagging and refresh leading generate the charge conjugation of electron and positron. The Dirac equation is thereby no longer understood as a mysterious matrix equation that creates spin and antimatter, but as an algebraic compression of how a moving closed loop electron maintains the balance of mass, charge, stepping, and magnetic rollback in light speed refreshed space.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-25
DOI
https://doi.org/10.5281/zenodo.22110176
Primary Topic
Quantum and Classical Electrodynamics
Type
preprint
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preprint

How Natural Origins Achieves the Algebraization of the Dirac Equation

Yuchuan Xu, Xiangqian Zhang
Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
preprint

How Natural Origins Achieves the Algebraization of the Dirac Equation

Yuchuan Xu, Xiangqian Zhang
preprint en

Abstract

This paper develops the algebraization of the Dirac equation by reexamining the bottom layer meanings of high speed electron energy, momentum, magnetic moment, spin, positron, probability current, and four component spinor in modern relativistic quantum mechanics. The paper argues that the greatness of the Dirac equation lies in its ability to preserve, within a first order matrix equation, the closed loop mass ledger, spatial step ledger, charge conjugation ledger, and magnetic rollback ledger of the electron. These results are not created by the matrices themselves. They are bottom layer relations that the electron must preserve while maintaining its own structure in light speed refreshed space. In the Natural Origins framework, the electron is neither a diffused probability wave nor a mechanically spinning small sphere. It is a closed loop entity with a self time element, root flux, and negative electric slope. Mass and rest energy are interpreted as settlement readouts of the electron self time element in an external time potential background. The increase of motion energy is interpreted as the amplification of the external public time readout of local closed loop time after spatial stepping occupies the refresh budget. The Dirac energy relation is generated directly from the unit circle refresh budget, while the matrix structure is repositioned as a linear encoding that compresses the closed loop anchor ledger, spatial step ledger, charge conjugation ledger, and magnetic rollback ledger into a first order algorithm. The paper further states that spin is not mechanical rotation inside the electron, but the two exit settlement readout formed when the magnetic rollback accompanying a moving electric slope enters an external magnetic axis. The principal value of the electron magnetic moment comes from full ledger restoration between complete magnetic rollback and spinor half angle bookkeeping. The positron is an independent positive electric closed loop produced by refresh leading, rather than a hole in a negative energy sea. The whole paper finally forms a unified main line: time element closure gives mass and energy readouts, unit circle budgeting gives relativistic energy and momentum, moving electric slope generates magnetic rollback and manifests as spin and magnetic moment, and refresh lagging and refresh leading generate the charge conjugation of electron and positron. The Dirac equation is thereby no longer understood as a mysterious matrix equation that creates spin and antimatter, but as an algebraic compression of how a moving closed loop electron maintains the balance of mass, charge, stepping, and magnetic rollback in light speed refreshed space.

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