Gravitational Radiation Damping and the Three-Body Problem
arXiv:gr-qc/0206059 · doi:10.1046/j.1365-8711.2002.05498.x
Abstract
A model of three-body motion is developed which includes the effects of gravitational radiation reaction. The radiation reaction due to the emission of gravitational waves is the only post-Newtonian effect that is included here. For simplicity, all of the motion is taken to be planar. Two of the masses are viewed as a binary system and the third mass, whose motion will be a fixed orbit around the center-of-mass of the binary system, is viewed as a perturbation. This model aims to describe the motion of a relativistic binary pulsar that is perturbed by a third mass. Numerical integration of this simplified model reveals that given the right initial conditions and parameters one can see resonances. These (m,n) resonances are defined by the resonance condition, , where and are relatively prime integers and and are the angular frequencies of the binary orbit and third mass orbit, respectively. The resonance condition consequently fixes a value for the semimajor axis of the binary orbit for the duration of the resonance; therefore, the binary energy remains constant on the average while its angular momentum changes during the resonance.
16 pages, 3 Postscript figures, to appear in MNRAS
References in corpus (2)
Cited by in corpus (9)
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- Uniqueness of collinear solutions for the relativistic three-body problem
- Can N-body systems generate periodic gravitational waves?
- Dynamical perturbations around an extreme mass ratio inspiral near resonance
- Gravitational Waves in the Circular Restricted Three Body Problem
- Resonance Behavior and Partial Averaging in a Three-Body System with Gravitational Radiation Damping