The Classical Electron Problem
T. L. Gill, W. W. Zachary, J. Lindesay

TL;DR
This paper introduces a modified Maxwell theory using source proper-time, leading to a new symmetry, a dissipative wave equation, and a resolution to classical self-energy issues, with implications for global simultaneity and action-at-a-distance.
Contribution
It presents a reformulation of Maxwell theory based on source proper-time, resulting in a new symmetry group and a dissipative wave equation that addresses classical self-energy problems.
Findings
New symmetry group related to source proper-time
Dissipative wave equation with inertial resistance to acceleration
No self-energy divergence in the modified theory
Abstract
In this paper, we construct a parallel image of the conventional Maxwell theory by replacing the observer-time by the proper-time of the source. This formulation is mathematically, but not physically, equivalent to the conventional form. The change induces a new symmetry group which is distinct from, but closely related to the Lorentz group, and fixes the clock of the source for all observers. The new wave equation contains an additional term (dissipative), which arises instantaneously with acceleration. This shows that the origin of radiation reaction is not the action of a "charge" on itself but arises from inertial resistance to changes in motion. This dissipative term is equivalent to an effective mass so that classical radiation has both a massless and a massive part. Hence, at the local level the theory is one of particles and fields but there is no self-energy divergence (nor any…
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Taxonomy
TopicsRelativity and Gravitational Theory · Computational Physics and Python Applications · Quantum Mechanics and Applications
