Late-time tails of a self-gravitating massless scalar field, revisited
arXiv:0812.4333 · doi:10.1088/0264-9381/26/17/175006
Abstract
We discuss the nonlinear origin of the power-law tail in the long-time evolution of a spherically symmetric self-gravitating massless scalar field in even-dimensional spacetimes. Using third-order perturbation method, we derive explicit expressions for the tail (the decay rate and the amplitude) for solutions starting from small initial data and we verify this prediction via numerical integration of the Einstein-scalar field equations in four and six dimensions. Our results show that the coincidence of decay rates of linear and nonlinear tails in four dimensions (which has misguided some tail hunters in the past) is in a sense accidental and does not hold in higher dimensions.
10 pages, 6 figures, one reference added, updated to conform with published version
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- Hushing black holes: tails in dynamical spacetimes
- On the Relation Between Asymptotic Charges, the Failure of Peeling and Late-time Tails
- Late-time tails of wave maps coupled to gravity
- Quantitative decay rates for dispersive solutions to the Einstein-scalar field system in spherical symmetry
- Analytical and numerical treatment of perturbed black holes in horizon-penetrating coordinates
- A note about late-time wave tails on a dynamical background
- Dirac Fermions in Non-trivial Topology Black Hole Backgrounds
- Features of gravitational waves in higher dimensions
- Comment on "Late-time tails of a self-gravitating massless scalar field revisited" by Bizon et al: The leading order asymptotics
- Reply to the comment by Szpak on leading order asymptotics of late-time tails for a self-gravitating massless scalar field