Post-Newtonian expansion of gravitational waves from a particle in circular orbits around a rotating black hole: Up to O(v8) beyond the quadrupole formula
Hideyuki Tagoshi, Masaru Shibata, Takahiro Tanaka, Misao Sasaki
Abstract
Extending a method developed by Sasaki in the Schwarzschild case and by Shibata, Sasaki, Tagoshi, and Tanaka in the Kerr case, we calculate the post-Newtonian expansion of the gravitational wave luminosities from a test particle in circular orbit around a rotating black hole up to O(v8) beyond the quadrupole formula. The orbit of a test particle is restricted on the equatorial plane. We find that spin dependent terms appear in each post-Newtonian order, and that at O(v6) they have a significant effect on the orbital phase evolution of coalescing compact binaries. By comparing the post-Newtonian formula of the luminosity with numerical results we find that, for 30M r 100M, the spin dependent terms at O(v6) and O(v7) improve the accuracy of the post-Newtonian formula significantly, but those at O(v8) do not improve.
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