Higher-order corrections to the relativistic perihelion advance and the mass of binary pulsars
arXiv:1005.5146 · doi:10.1007/s10509-010-0502-z
Abstract
We study the general relativistic orbital equation and using a straightforward perturbation method and a mathematical device first introduced by d'Alembert, we work out approximate expressions of a bound planetary orbit in the form of trigonometrical polynomials and the first three terms of the power series development of the perihelion advance. The results are applied to a more precise determination of the total mass of the double pulsar J0737-3039.
arXiv comment8 pages. Accepted for publication in "Astrophysics & Space Science"
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- The relativistic precession of the orbits
- Spin contribution to the perihelion precession in binary systems like OJ287: higher order corrections
- Einstein's perihelion formula and its generalization