A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography

Abstract The strong eigenstate thermalization hypothesis (ETH) provides a sufficient condition for thermalization and equilibration. Although it is expected to be hold in a wide class of highly chaotic theories, there are only a few analytic examples demonstrating the strong ETH in special cases, of...

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Main Author: Taishi Kawamoto
Format: Article
Language:English
Published: SpringerOpen 2025-01-01
Series:Journal of High Energy Physics
Subjects:
Online Access:https://doi.org/10.1007/JHEP01(2025)095
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author Taishi Kawamoto
author_facet Taishi Kawamoto
author_sort Taishi Kawamoto
collection DOAJ
description Abstract The strong eigenstate thermalization hypothesis (ETH) provides a sufficient condition for thermalization and equilibration. Although it is expected to be hold in a wide class of highly chaotic theories, there are only a few analytic examples demonstrating the strong ETH in special cases, often through methods related to integrability. In this paper, we explore sufficient conditions for the strong ETH that may apply to a broad range of chaotic theories. These conditions are expressed as inequalities involving the long-time averages of real-time thermal correlators. Specifically, as an illustration, we consider simple toy examples which satisfy these conditions under certain technical assumptions. This toy models have same properties as holographic theories at least in the perturbation in large N. We give a few comments for more realistic holographic models.
format Article
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institution Kabale University
issn 1029-8479
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publishDate 2025-01-01
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spelling doaj-art-58980b6e6f554baf8a368bcacd317e722025-02-09T12:07:29ZengSpringerOpenJournal of High Energy Physics1029-84792025-01-012025115510.1007/JHEP01(2025)095A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holographyTaishi Kawamoto0Center for Gravitational Physics and Quantum Information, Yukawa Institute for Theoretical Physics, Kyoto UniversityAbstract The strong eigenstate thermalization hypothesis (ETH) provides a sufficient condition for thermalization and equilibration. Although it is expected to be hold in a wide class of highly chaotic theories, there are only a few analytic examples demonstrating the strong ETH in special cases, often through methods related to integrability. In this paper, we explore sufficient conditions for the strong ETH that may apply to a broad range of chaotic theories. These conditions are expressed as inequalities involving the long-time averages of real-time thermal correlators. Specifically, as an illustration, we consider simple toy examples which satisfy these conditions under certain technical assumptions. This toy models have same properties as holographic theories at least in the perturbation in large N. We give a few comments for more realistic holographic models.https://doi.org/10.1007/JHEP01(2025)095AdS-CFT CorrespondenceGauge-Gravity CorrespondenceHolography and Condensed Matter Physics (AdS/CMT)
spellingShingle Taishi Kawamoto
A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography
Journal of High Energy Physics
AdS-CFT Correspondence
Gauge-Gravity Correspondence
Holography and Condensed Matter Physics (AdS/CMT)
title A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography
title_full A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography
title_fullStr A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography
title_full_unstemmed A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography
title_short A strategy for proving the strong eigenstate thermalization hypothesis: chaotic systems and holography
title_sort strategy for proving the strong eigenstate thermalization hypothesis chaotic systems and holography
topic AdS-CFT Correspondence
Gauge-Gravity Correspondence
Holography and Condensed Matter Physics (AdS/CMT)
url https://doi.org/10.1007/JHEP01(2025)095
work_keys_str_mv AT taishikawamoto astrategyforprovingthestrongeigenstatethermalizationhypothesischaoticsystemsandholography
AT taishikawamoto strategyforprovingthestrongeigenstatethermalizationhypothesischaoticsystemsandholography