q-Equilibrium of gas in spacetime of multi-horizon black holes

We investigate the possibility of describing the thermal system with different temperatures for a black hole with multiple horizons. A black hole with two horizons such as the Schwarzschild-de Sitter black hole corresponds to two thermal systems with generically different temperatures. Then, it is not suitable to describe these systems with equilibrium thermodynamics corresponding to Gibbs-Boltzmann kinetic theory. In the present work, we investigate such thermal systems by using hydrostatic equilibrium thermodynamics. Assuming that the gas between the horizons obeys the Tsallis statistical mechanics, we found that it is possible to obtain the temperature gradient for the classical gas. Interestingly, the gas behaves as classical gas near the horizon and behaves like quantum gas around flat spacetime with constant temperature. As a result, the multi-horizon black holes in hydrostatic equilibrium can be in a stable configuration with the aspect of the q -kinetic theory.

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Publication Details

Journal
Nuclear Physics B
Published
2025-04-25
DOI
https://doi.org/10.1016/j.nuclphysb.2025.116922
Citations
1
Primary Topic
Black Holes and Theoretical Physics
Type
article
Field-Weighted Citation Impact
1.87
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article

q-Equilibrium of gas in spacetime of multi-horizon black holes

Pitayuth Wongjun, Phuwadon Chunaksorn, Ratchaphat Nakarachinda
1 citations
Nuclear Physics B
Black Holes and Theoretical Physics
1.87
article

q-Equilibrium of gas in spacetime of multi-horizon black holes

Pitayuth Wongjun, Phuwadon Chunaksorn, Ratchaphat Nakarachinda
article en
1 citations

Abstract

We investigate the possibility of describing the thermal system with different temperatures for a black hole with multiple horizons. A black hole with two horizons such as the Schwarzschild-de Sitter black hole corresponds to two thermal systems with generically different temperatures. Then, it is not suitable to describe these systems with equilibrium thermodynamics corresponding to Gibbs-Boltzmann kinetic theory. In the present work, we investigate such thermal systems by using hydrostatic equilibrium thermodynamics. Assuming that the gas between the horizons obeys the Tsallis statistical mechanics, we found that it is possible to obtain the temperature gradient for the classical gas. Interestingly, the gas behaves as classical gas near the horizon and behaves like quantum gas around flat spacetime with constant temperature. As a result, the multi-horizon black holes in hydrostatic equilibrium can be in a stable configuration with the aspect of the q -kinetic theory.

Nuclear Physics BVol. 1016
Naresuan University (TH)
Openalex Percentile: Top 14%
Black Holes and Theoretical Physics
1.87
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