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Hauptverfasser: Belfiglio, Alessio, Chandran, S. Mahesh, Luongo, Orlando, Mancini, Stefano
Format: Preprint
Veröffentlicht: 2024
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Online-Zugang:https://arxiv.org/abs/2407.03775
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author Belfiglio, Alessio
Chandran, S. Mahesh
Luongo, Orlando
Mancini, Stefano
author_facet Belfiglio, Alessio
Chandran, S. Mahesh
Luongo, Orlando
Mancini, Stefano
contents We investigate the thermodynamics of regular black hole configurations via quantum analogs of entropy and energy -- namely, the entanglement entropy and entanglement energy -- near the event horizon of Bardeen and Hayward black holes. Following standard approaches, we introduce a quantum scalar field propagating in such black hole spacetimes and discretize the field degrees of freedom on a lattice of spherical shells. We observe that, at leading order, the entanglement entropy associated with the scalar field is proportional to Bekestein-Hawking entropy, while the corresponding entanglement energy scales proportionally to Komar energy. We then compute the heat capacity in both scenarios, discussing the black hole stability conditions and the possible appearance of second-order phase transitions. Finally, we extend our analysis to the black hole core, showing that in this sector entanglement energy serves as a valuable tool towards discriminating between singular and regular solutions.
format Preprint
id arxiv_https___arxiv_org_abs_2407_03775
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Horizon entanglement area law from regular black hole thermodynamics
Belfiglio, Alessio
Chandran, S. Mahesh
Luongo, Orlando
Mancini, Stefano
General Relativity and Quantum Cosmology
We investigate the thermodynamics of regular black hole configurations via quantum analogs of entropy and energy -- namely, the entanglement entropy and entanglement energy -- near the event horizon of Bardeen and Hayward black holes. Following standard approaches, we introduce a quantum scalar field propagating in such black hole spacetimes and discretize the field degrees of freedom on a lattice of spherical shells. We observe that, at leading order, the entanglement entropy associated with the scalar field is proportional to Bekestein-Hawking entropy, while the corresponding entanglement energy scales proportionally to Komar energy. We then compute the heat capacity in both scenarios, discussing the black hole stability conditions and the possible appearance of second-order phase transitions. Finally, we extend our analysis to the black hole core, showing that in this sector entanglement energy serves as a valuable tool towards discriminating between singular and regular solutions.
title Horizon entanglement area law from regular black hole thermodynamics
topic General Relativity and Quantum Cosmology
url https://arxiv.org/abs/2407.03775