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Complexity Equals Anything II

We expand on our results in [1] to present a broad new class of gravitational observables in asymptotically Anti-de Sitter space living on general codimension-zero regions of the bulk spacetime. By taking distinct limits, these observables can reduce to well-studied holographic complexity proposals,...

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Detalles Bibliográficos
Autores principales: Belin, Alexandre, Myers, Robert C., Ruan, Shan-Ming, Sárosi, Gábor, Speranza, Antony J.
Lenguaje:eng
Publicado: 2022
Materias:
Acceso en línea:https://dx.doi.org/10.1007/JHEP01(2023)154
http://cds.cern.ch/record/2837843
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author Belin, Alexandre
Myers, Robert C.
Ruan, Shan-Ming
Sárosi, Gábor
Speranza, Antony J.
author_facet Belin, Alexandre
Myers, Robert C.
Ruan, Shan-Ming
Sárosi, Gábor
Speranza, Antony J.
author_sort Belin, Alexandre
collection CERN
description We expand on our results in [1] to present a broad new class of gravitational observables in asymptotically Anti-de Sitter space living on general codimension-zero regions of the bulk spacetime. By taking distinct limits, these observables can reduce to well-studied holographic complexity proposals, e.g., the volume of the maximal slice and the action or spacetime volume of the Wheeler-DeWitt patch. As with the codimension-one family found in [1], these new observables display two key universal features for the thermofield double state: they grow linearly in time at late times and reproduce the switchback effect. Hence we argue that any member of this new class of observables is an equally viable candidate as a gravitational dual of complexity. Moreover, using the Peierls construction, we show that variations of the codimension-zero and codimension-one observables are encoded in the gravitational symplectic form on the semi-classical phase-space, which can then be mapped to the CFT.
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institution Organización Europea para la Investigación Nuclear
language eng
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spelling cern-28378432023-10-04T07:33:32Zdoi:10.1007/JHEP01(2023)154http://cds.cern.ch/record/2837843engBelin, AlexandreMyers, Robert C.Ruan, Shan-MingSárosi, GáborSperanza, Antony J.Complexity Equals Anything IIgr-qcGeneral Relativity and Cosmologyhep-thParticle Physics - TheoryWe expand on our results in [1] to present a broad new class of gravitational observables in asymptotically Anti-de Sitter space living on general codimension-zero regions of the bulk spacetime. By taking distinct limits, these observables can reduce to well-studied holographic complexity proposals, e.g., the volume of the maximal slice and the action or spacetime volume of the Wheeler-DeWitt patch. As with the codimension-one family found in [1], these new observables display two key universal features for the thermofield double state: they grow linearly in time at late times and reproduce the switchback effect. Hence we argue that any member of this new class of observables is an equally viable candidate as a gravitational dual of complexity. Moreover, using the Peierls construction, we show that variations of the codimension-zero and codimension-one observables are encoded in the gravitational symplectic form on the semi-classical phase-space, which can then be mapped to the CFT.We expand on our results in arXiv:2111.02429 to present a broad new class of gravitational observables in asymptotically Anti-de Sitter space living on general codimension-zero regions of the bulk spacetime. By taking distinct limits, these observables can reduce to well-studied holographic complexity proposals, e.g., the volume of the maximal slice and the action or spacetime volume of the Wheeler-DeWitt patch. As with the codimension-one family found in arXiv:2111.02429, these new observables display two key universal features for the thermofield double state: they grow linearly in time at late times and reproduce the switchback effect. Hence we argue that any member of this new class of observables is an equally viable candidate as a gravitational dual of complexity. Moreover, using the Peierls construction, we show that variations of the codimension-zero and codimension-one observables are encoded in the gravitational symplectic form on the semi-classical phase-space, which can then be mapped to the CFT.arXiv:2210.09647CERN-TH-2022-159; YITP-22-101oai:cds.cern.ch:28378432022-10-18
spellingShingle gr-qc
General Relativity and Cosmology
hep-th
Particle Physics - Theory
Belin, Alexandre
Myers, Robert C.
Ruan, Shan-Ming
Sárosi, Gábor
Speranza, Antony J.
Complexity Equals Anything II
title Complexity Equals Anything II
title_full Complexity Equals Anything II
title_fullStr Complexity Equals Anything II
title_full_unstemmed Complexity Equals Anything II
title_short Complexity Equals Anything II
title_sort complexity equals anything ii
topic gr-qc
General Relativity and Cosmology
hep-th
Particle Physics - Theory
url https://dx.doi.org/10.1007/JHEP01(2023)154
http://cds.cern.ch/record/2837843
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AT myersrobertc complexityequalsanythingii
AT ruanshanming complexityequalsanythingii
AT sarosigabor complexityequalsanythingii
AT speranzaantonyj complexityequalsanythingii