On Force Interactions for Electrodynamics-Like Theories
Vladimir Gol'dshtein, Reuven Segev

TL;DR
This paper develops a geometric framework for premetric electrodynamics, deriving Maxwell's equations and force interactions independently of constitutive relations, with applications to electrostatics and magnetostatics.
Contribution
It introduces a novel geometric continuum mechanics approach to electrodynamics, providing new expressions for force and stress interactions that differ from standard formulations.
Findings
Derived Maxwell equations from stress theory without constitutive assumptions
Presented new expressions for potential energy, force, and stress in spacetime
Applied framework to electrostatics and magnetostatics examples
Abstract
A framework for premetric p-form electrodynamics is proposed. Independently of particular constitutive relations, the corresponding Maxwell equations are derived as a special case of stress theory in geometric continuum mechanics. Expressions for the potential energy of a charged region in spacetime, as well as expressions for the force and stress interactions on the region, are presented. The expression for the force distribution is obtained by computing the rate of change of the proposed potential energy under a virtual motion of the region. These expressions differ from those appearing in the standard references. The cases of electrostatics and magnetostatics in R^3 are presented as examples.
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Taxonomy
TopicsNonlocal and gradient elasticity in micro/nano structures · Thermoelastic and Magnetoelastic Phenomena · Quantum and Classical Electrodynamics
