Geometric Microstates for the Three Dimensional Black Hole?
arXiv:1508.04079
Abstract
We study microstates of the three dimensional black hole obtained by quantizing topologically non-trivial geometries behind the event horizon. In chiral gravity these states are found by quantizing the moduli space of bordered Riemann surfaces. In the semi-classical limit these microstates can be counted using intersection theory on the moduli space of punctured Riemann surfaces. We make a conjecture (supported by numerics) for the asymptotic behaviour of the relevant intersection numbers. The result is that the geometric microstates with fixed topology have an entropy which grows too slowly to account for the semiclassical Bekenstein-Hawking entropy. The sum over topologies, however, leads to a divergence. We conclude with some speculations about how this might be resolved to give an entropy proportional to horizon area.
21 pages, 5 figures
References in corpus (6)
- Three-Dimensional Gravity Revisited
- The Holographic Entropy Cone
- BTZ Black Hole with Gravitational Chern-Simons: Thermodynamics and Statistical Entropy
- Behind the geon horizon
- Moduli spaces of hyperbolic surfaces and their Weil-Petersson volumes
- Lectures and notes: Mirzakhani's volume recursion and approach for the Witten-Kontsevich theorem on moduli tautological intersection numbers
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