Linear Waves in the Kerr Geometry: A Mathematical Voyage to Black Hole Physics
arXiv:0801.1423 · doi:10.1090/S0273-0979-09-01258-0
Abstract
This paper gives a survey of wave dynamics in the Kerr space-time geometry, the mathematical model of a rotating black hole in equilibrium. After a brief introduction to the Kerr metric, we review the separability properties of linear wave equations for fields of general spin , corresponding to scalar, Dirac, electromagnetic fields and linearized gravitational waves. We give results on the long-time dynamics of Dirac and scalar waves, including decay rates for massive Dirac fields. For scalar waves, we give a rigorous treatment of superradiance and describe rigorously a mechanism of energy extraction from a rotating black hole. Finally, we discuss the open problem of linear stability of the Kerr metric and present partial results.
arXiv comment25 pages, LaTeX, 2 figures, minor changes (published version)
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Cited by in corpus (13)
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