Self-force driven motion in curved spacetimes
Alessandro D.A.M. Spallicci, P. Ritter, S. Aoudia

TL;DR
This paper derives a covariant first-order correction to geodesic motion in curved spacetime, incorporating self-force effects for the extreme mass ratio two-body problem, advancing understanding of self-force driven dynamics.
Contribution
It introduces a covariant derivation of the first-order self-force correction to geodesic motion using the Dirac-Detweiler-Whiting effective field in curved spacetime.
Findings
Derived the first-order perturbative correction to geodesic motion.
Included self-force contributions and background metric effects.
Provided a covariant formulation for self-force driven motion.
Abstract
We adopt the Dirac-Detweiler-Whiting radiative and regular effective field in curved spacetime. Thereby, we derive straightforwardly the first order perturbative correction to the geodesic of the background in a covariant form, for the extreme mass ratio two-body problem. The correction contains the self-force contribution and a background metric dependent term.
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Taxonomy
TopicsCosmology and Gravitation Theories · Advanced Differential Geometry Research · Relativity and Gravitational Theory
