Low multipole contributions to the gravitational self-force
- 20 April 2004
- journal article
- research article
- Published by American Physical Society (APS) in Physical Review D
- Vol. 69 (8) , 084019
- https://doi.org/10.1103/physrevd.69.084019
Abstract
We calculate the unregularized monopole and dipole contributions to the self-force acting on a particle of small mass in a circular orbit around a Schwarzschild black hole. From a self-force point of view, these nonradiating modes are as important as the radiating modes with In fact, we demonstrate how the dipole self-force contributes to the dynamics even at the Newtonian level. The self-acceleration of a particle is an inherently gauge-dependent concept, but the Lorenz gauge is often preferred because of its hyperbolic wave operator. Our results are in the Lorenz gauge and are also obtained in closed form, except for the even-parity dipole case where we formulate and implement a numerical approach.
Keywords
All Related Versions
This publication has 30 references indexed in Scilit:
- Equation of motion of small bodies in relativityAnnals of Physics, 2004
- Self-force via a Green’s function decompositionPhysical Review D, 2003
- Reconstruction of black hole metric perturbations from the Weyl curvaturePhysical Review D, 2002
- Scalar, electromagnetic, and gravitational self-forces in weakly curved spacetimesPhysical Review D, 2002
- Gravitational self-force and gauge transformationsPhysical Review D, 2001
- Axiomatic approach to electromagnetic and gravitational radiation reaction of particles in curved spacetimePhysical Review D, 1997
- Gravitational radiation reaction to a particle motionPhysical Review D, 1997
- Laws of motion and precession for black holes and other bodiesPhysical Review D, 1985
- Motion of a small body through an external field in general relativity calculated by matched asymptotic expansionsPhysical Review D, 1980
- Distortion in the Metric of a Small Center of Gravitational Attraction due to its Proximity to a Very Large MassJournal of Mathematical Physics, 1963