CFT Phase Transition Analysis of Charged, Rotating Black Holes in $D=4$: A Holographic Thermodynamics Approach

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Main Authors: Baruah, Abhishek, Phukon, Prabwal
Format: Preprint
Published: 2024
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author Baruah, Abhishek
Phukon, Prabwal
author_facet Baruah, Abhishek
Phukon, Prabwal
contents We investigate the holographic thermodynamics of 4-D Kerr-Newman AdS black holes, focusing on the conformal thermal states that are dual to these black holes. We explore the thermodynamic behavior within specific ensembles characterized by fixed sets of variables: $(\mathcal{Q},\mathcal{J},\mathcal{V},C)$, $(\mathcal{Q},Ω,\mathcal{V},C)$, $(φ,Ω,\mathcal{V},C)$, $(φ,\mathcal{J},\mathcal{V},C)$, $(\mathcal{Q},Ω,p,C)$, and $(φ,Ω,p,C)$. Here, $φ$, $\mathcal{Q}$, $Ω$, $\mathcal{J}$, $p$, $\mathcal{V}$, and $C$ represent the electric potential, electric charge, angular velocity, angular momentum, CFT pressure, CFT volume, and central charge, respectively. The inclusion of both charge and momentum significantly enriches the regime of phase transitions, leading to a variety of phenomena including first-order Van der Waals-type phase transitions, (de)confinement phase transitions, Davies-type phase transitions, and second-order superfluid $λ$-type phase transitions. Notably, the introduction of the CFT pressure variable allows us to identify phase transitions and critical behavior in the $(\mathcal{Q},Ω,p,C)$ and $(φ,Ω,p,C)$ ensembles, which had not been previously observed. This study underscores the complexity and richness of phase transitions in these systems due to the inclusion of both charge and angular momentum.
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id arxiv_https___arxiv_org_abs_2407_02997
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle CFT Phase Transition Analysis of Charged, Rotating Black Holes in $D=4$: A Holographic Thermodynamics Approach
Baruah, Abhishek
Phukon, Prabwal
High Energy Physics - Theory
General Relativity and Quantum Cosmology
We investigate the holographic thermodynamics of 4-D Kerr-Newman AdS black holes, focusing on the conformal thermal states that are dual to these black holes. We explore the thermodynamic behavior within specific ensembles characterized by fixed sets of variables: $(\mathcal{Q},\mathcal{J},\mathcal{V},C)$, $(\mathcal{Q},Ω,\mathcal{V},C)$, $(φ,Ω,\mathcal{V},C)$, $(φ,\mathcal{J},\mathcal{V},C)$, $(\mathcal{Q},Ω,p,C)$, and $(φ,Ω,p,C)$. Here, $φ$, $\mathcal{Q}$, $Ω$, $\mathcal{J}$, $p$, $\mathcal{V}$, and $C$ represent the electric potential, electric charge, angular velocity, angular momentum, CFT pressure, CFT volume, and central charge, respectively. The inclusion of both charge and momentum significantly enriches the regime of phase transitions, leading to a variety of phenomena including first-order Van der Waals-type phase transitions, (de)confinement phase transitions, Davies-type phase transitions, and second-order superfluid $λ$-type phase transitions. Notably, the introduction of the CFT pressure variable allows us to identify phase transitions and critical behavior in the $(\mathcal{Q},Ω,p,C)$ and $(φ,Ω,p,C)$ ensembles, which had not been previously observed. This study underscores the complexity and richness of phase transitions in these systems due to the inclusion of both charge and angular momentum.
title CFT Phase Transition Analysis of Charged, Rotating Black Holes in $D=4$: A Holographic Thermodynamics Approach
topic High Energy Physics - Theory
General Relativity and Quantum Cosmology
url https://arxiv.org/abs/2407.02997