Non-stationary Energy in General Relativity
arXiv:1911.08383 · doi:10.1103/PhysRevD.101.024035
Abstract
Using the time evolution equations of (cosmological) General Relativity in the first order Fischer-Marsden form, we construct an integral that measures the amount of non-stationary energy on a given spacelike hypersurface in dimensions. The integral vanishes for stationary spacetimes; and with a further assumption, reduces to Dain's invariant on the boundary of the hypersurface which is defined with the Einstein constraints and a fourth order equation defining approximate Killing symmetries.
arXiv comment16 pages,dedicated to the memory of Rahmi Guven (1948-2019) who spent a life in gravity research in a region quite timid about science
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Cited by in corpus (8)
- Dain's invariant for black hole initial data
- Bowen-York Model Solution Redux
- Non-stationary Energy of Perfect Fluid Sources in General Relativity
- Basics of Apparent Horizons in Black Hole Physics
- Approximate analytical description of apparent horizons for initial data with momentum and spin
- Constraints and Time Evolution in Generic (Riemann) Gravity
- Perturbative solution of the Einstein Constraints with Spin and Momentum Far Away From a Binary Source in the Bowen-York formalism
- Perturbative Analytical Construction of Bowen-York Initial Data for Binary Black Holes up to Third Order in Spin and Linear Momentum