Microscopic foundations of kinetic plasma theory: The relativistic Vlasov--Maxwell equations and their radiation-reaction-corrected generalization
Michael K.-H. Kiessling, Yves Elskens

TL;DR
This paper explores the microscopic foundations of relativistic plasma kinetic theory, deriving Vlasov-Maxwell equations with radiation-reaction corrections from particle interactions, and discusses their limits and approximations.
Contribution
It proposes a novel approach using empirical measures to derive kinetic equations with finite-N corrections, including radiation-reaction effects, from microscopic particle dynamics.
Findings
Finite-N corrections to Vlasov-Maxwell equations derived
Radiation-reaction effects incorporated into kinetic theory
Limit processes recover standard Vlasov-Maxwell model
Abstract
It is argued that the relativistic Vlasov--Maxwell equations of the kinetic theory of plasma approximately describe a relativistic system of charged point particles interacting with the electromagnetic Maxwell fields in a Bopp--Land\'e--Thomas--Podolsky (BLTP) vacuum, provided the microscopic dynamics lasts long enough.The purpose of this work is not to supply an entirely rigorous vindication, but to lay down a conceptual road map for the microscopic foundations of the kinetic theory of special-relativistic plasma, and to emphasize that a rigorous derivation seems feasible. Rather than working with a BBGKY-type hierarchy of -point marginal probability measures, the approach proposed in this paper works with the distributional PDE of the actual empirical 1-point measure, which involves the actual empirical 2-point measure in a convolution term.The approximation of the empirical…
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