Particles and Events in Classical Off-Shell Electrodynamics
M. C. Land

TL;DR
This paper examines classical off-shell electrodynamics, addressing its difficulties through a new particle current model, and compares its predictions with standard Maxwell theory, providing insights into the photon mass scale and renormalizability.
Contribution
It introduces a novel particle current model in off-shell electrodynamics that resolves classical difficulties and aligns with Maxwell theory under certain conditions.
Findings
The new model eliminates classical difficulties in off-shell electrodynamics.
Numerical solutions match Maxwell solutions when the time scale parameter exceeds 10^{-6} seconds.
The model offers a natural interpretation for the photon mass cut-off in quantum electrodynamics.
Abstract
Despite the many successes of the relativistic quantum theory developed by Horwitz, et. al., certain difficulties persist in the associated covariant classical mechanics. In this paper, we explore these difficulties through an examination of the classical Coulomb problem in the framework of off-shell electrodynamics. As the local gauge theory of a covariant quantum mechanics with evolution parameter , off-shell electrodynamics constitutes a dynamical theory of spacetime events, interacting through five -dependent pre-Maxwell potentials. We present a straightforward solution of the classical equations of motion, which is seen to be unsatisfactory, and reveals the essential difficulties in the formalism at the classical level. We then offer a new model of the particle current -- as a certain distribution of the event currents on the worldline -- which eliminates these…
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