Gravitational Vacuum Condensate Stars
Preprint
- 20 July 2004
Abstract
A new final state of gravitational collapse is proposed. By extending the concept of Bose-Einstein condensation to gravitational systems, a cold, dark, compact object with an interior de Sitter condensate $p_{_V} = -\rho_{_V}$ and an exterior Schwarzschild geometry of arbitrary total mass $M$ is constructed. These are separated by a shell with a small but finite proper thickness $\ell$ of fluid with equation of state $p=+\rho$, replacing both the Schwarzschild and de Sitter classical horizons. The new solution has no singularities, no event horizons, and a global time. Its entropy is maximized under small fluctuations and is given by the standard hydrodynamic entropy of the thin shell, which is of order $k_{_B}\ell Mc/\hbar$, instead of the Bekenstein-Hawking entropy formula, $S_{_{BH}}= 4\pi k_{_B} G M^2/\hbar c$. Hence unlike black holes, the new solution is thermodynamically stable and has no information paradox.
Keywords
All Related Versions
- Version 1, 2004-07-20, ArXiv
- Version 1, 2001-09-11, ArXiv (Unconfirmed version)
- Version 2, 2001-09-12, ArXiv (Unconfirmed version)
- Version 3, 2002-02-26, ArXiv (Unconfirmed version)
- Version 4, 2002-02-27, ArXiv (Unconfirmed version)
- Published version: Proceedings of the National Academy of Sciences, 101 (26), 9545.
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