Quantum black hole–white hole entangled states

We investigate the quantum deformation of the Wheeler–DeWitt equation of a Schwarzchild black hole. Specifically, the quantum deformed black hole is a quantized model constructed from the quantum Heisenberg–Weyl Uq(h4) group. We show that the event horizon area and the mass are quantized, degenerate...

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Main Author: S. Jalalzadeh
Format: Article
Language:English
Published: Elsevier 2022-06-01
Series:Physics Letters B
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S0370269322001927
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author S. Jalalzadeh
author_facet S. Jalalzadeh
author_sort S. Jalalzadeh
collection DOAJ
description We investigate the quantum deformation of the Wheeler–DeWitt equation of a Schwarzchild black hole. Specifically, the quantum deformed black hole is a quantized model constructed from the quantum Heisenberg–Weyl Uq(h4) group. We show that the event horizon area and the mass are quantized, degenerate, and bounded. The degeneracy of states indicates entangled quantum black hole/white hole states. Accordingly, quantum deformation provides a new framework to examine Einstein–Rosen wormhole solutions. Besides, we obtain the mass, the temperature, and the entropy of the q-deformed quantum Schwarzschild black hole. We find an upper bound on the mass of a black hole/white hole pair. Also, at the quantum deformation level, the entropy of the black hole contains three parts: the usual Bekenstein–Hawking entropy, the logarithmic term, and a Cube of usual black hole entropy.
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spelling doaj.art-268137fafd2c4172b9e24956b6ea7a662022-12-22T02:11:37ZengElsevierPhysics Letters B0370-26932022-06-01829137058Quantum black hole–white hole entangled statesS. Jalalzadeh0Departamento de Física, Universidade Federal de Pernambuco, Recife, PE, 52171-900, BrazilWe investigate the quantum deformation of the Wheeler–DeWitt equation of a Schwarzchild black hole. Specifically, the quantum deformed black hole is a quantized model constructed from the quantum Heisenberg–Weyl Uq(h4) group. We show that the event horizon area and the mass are quantized, degenerate, and bounded. The degeneracy of states indicates entangled quantum black hole/white hole states. Accordingly, quantum deformation provides a new framework to examine Einstein–Rosen wormhole solutions. Besides, we obtain the mass, the temperature, and the entropy of the q-deformed quantum Schwarzschild black hole. We find an upper bound on the mass of a black hole/white hole pair. Also, at the quantum deformation level, the entropy of the black hole contains three parts: the usual Bekenstein–Hawking entropy, the logarithmic term, and a Cube of usual black hole entropy.http://www.sciencedirect.com/science/article/pii/S0370269322001927Quantum gravityQuantum groupBlack holeWhite holeWormholeBekenstein–Hawking entropy
spellingShingle S. Jalalzadeh
Quantum black hole–white hole entangled states
Physics Letters B
Quantum gravity
Quantum group
Black hole
White hole
Wormhole
Bekenstein–Hawking entropy
title Quantum black hole–white hole entangled states
title_full Quantum black hole–white hole entangled states
title_fullStr Quantum black hole–white hole entangled states
title_full_unstemmed Quantum black hole–white hole entangled states
title_short Quantum black hole–white hole entangled states
title_sort quantum black hole white hole entangled states
topic Quantum gravity
Quantum group
Black hole
White hole
Wormhole
Bekenstein–Hawking entropy
url http://www.sciencedirect.com/science/article/pii/S0370269322001927
work_keys_str_mv AT sjalalzadeh quantumblackholewhiteholeentangledstates