Teleparallel Space-Time with Defects yields Geometrization of Electrodynamics with quantized Charges
Alexander Unzicker

TL;DR
This paper proposes a geometric model of electrodynamics using teleparallel space-time with defects, linking electromagnetic phenomena to topological defects in space-time and suggesting elementary particles as such defects.
Contribution
It introduces a novel geometric framework that unifies electromagnetism with space-time defects using a generalized teleparallel geometry, extending Einstein and Cartan's ideas.
Findings
Electromagnetic fields are modeled as geometric defects in space-time.
Elementary particles are hypothesized as topological defects of space-time.
The model suggests electric charge has units of length squared, not current.
Abstract
In the present paper a geometrization of electrodynamics is proposed which makes use of a generalization of Riemannian geometry considered already by Einstein and Cartan in the 20ies. Cartan's differential forms description of a teleparallel space-time with torsion is modified by introducing distortion 1-forms which correspond to the distortion tensor in dislocation theory. Under the condition of teleparallelism, the antisymmetrized part of the distorsion 1-form approximates the electromagnetic field, whereas the antisymmetrized part of torsion contributes to the electromagnetic current. Cartan's structure equations, the Bianchi identities, Maxwell's equations and the continuity equation are thus linked in a most simple way. After these purely geometric considerations a physical interpretation, using analogies to the theory of defects in ordered media, is given. A simple defect, which…
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Taxonomy
TopicsRelativity and Gravitational Theory · Noncommutative and Quantum Gravity Theories · Algebraic and Geometric Analysis
