A Collision Operator for Field-Mediated Interactions in General Relativistic Kinetic Theory
arXiv:2411.19405 · doi:10.1088/1361-6382/ae415d
Abstract
We develop a Hamiltonian framework for general relativistic kinetic theory on the cotangent bundle of a Lorentzian (pseudo-Riemannian) manifold. Starting from the geodesic Hamiltonian , we derive a Landau-type collision operator for self-gravitating particles undergoing binary interactions mediated by an arbitrary potential energy , and couple the resulting kinetic stress-energy to the Einstein field equations to obtain the Landau-Einstein system. In the presence of a coordinate-time Killing symmetry we find a family of stationary states of the form , where is the mean field, , is an inverse-temperature parameter, and encodes symmetry-induced degeneracy.
40 pages, 2 figures
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