Thermodynamic schemes of charged BTZ-like black holes in arbitrary dimensions
Ali Dehghani, Behnam Pourhassan, Soodeh Zarepour, Emmanuel N., Saridakis

TL;DR
This paper explores thermodynamic properties of charged BTZ-like black holes in various dimensions, revealing two schemes with distinct stability and critical behavior, and demonstrating their interpretation as interacting statistical systems.
Contribution
It introduces two thermodynamic schemes for charged BTZ-like black holes in arbitrary dimensions, analyzing their stability, critical phenomena, and statistical interpretation.
Findings
Scheme I black holes are super-entropic and thermodynamically unstable.
Scheme II black holes are stable and exhibit van der Waals critical behavior.
Black holes can be viewed as interacting statistical systems.
Abstract
We investigate thermodynamic schemes of charged BTZ-like black holes in arbitrary dimensions, namely higher-dimensional charged black holes in which the electromagnetic sector exhibits the same properties with that of the usual three-dimensional BTZ solution. We first present the Euclidean on-shell action in arbitrary dimensions, inserting a radial cutoff. We then extract the corresponding thermodynamic quantities from the semi-classical partition function in different ensembles and find that there exist two possible thermodynamic schemes, with different outcomes. Regarding the traditional scheme (scheme I), where the length cutoff is identified with the AdS radius, we show that charged BTZ-like black holes are super-entropic, namely they violate the reverse isoperimetric inequality conjecture, and their super-entropicity is strongly connected to a fundamental thermodynamic instability.…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Cosmology and Gravitation Theories · Quantum Electrodynamics and Casimir Effect
