Bit threads in higher-curvature gravity

Abstract We generalize holographic bit threads to bulk theories with a gravitational action containing higher-curvature terms. Bit threads are a reformulation of holographic entanglement entropy, where the entropy is given by the maximum number of threads emanating from a boundary region into the bu...

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Main Authors: Jonathan Harper, Matthew Headrick, Andrew Rolph
Format: Article
Language:English
Published: SpringerOpen 2018-11-01
Series:Journal of High Energy Physics
Subjects:
Online Access:http://link.springer.com/article/10.1007/JHEP11(2018)168
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author Jonathan Harper
Matthew Headrick
Andrew Rolph
author_facet Jonathan Harper
Matthew Headrick
Andrew Rolph
author_sort Jonathan Harper
collection DOAJ
description Abstract We generalize holographic bit threads to bulk theories with a gravitational action containing higher-curvature terms. Bit threads are a reformulation of holographic entanglement entropy, where the entropy is given by the maximum number of threads emanating from a boundary region into the bulk. We show that the addition of higher-curvature terms adds corrections to the bit thread thickness that depend on the local geometry and thread orientation. Two different methods are given: determination of the density bound by requiring the maximum number of threads through a given surface to reproduce the entanglement entropy functional on that surface, and application of Lagrange dualization. The results of the two methods are applied to Gauss-Bonnet gravity as the simplest non-trivial example.
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spelling doaj.art-ee3dba3b31e744fdb02fbfb6f5cc0d732022-12-22T00:32:25ZengSpringerOpenJournal of High Energy Physics1029-84792018-11-0120181113110.1007/JHEP11(2018)168Bit threads in higher-curvature gravityJonathan Harper0Matthew Headrick1Andrew Rolph2Martin Fisher School of Physics, Brandeis UniversityMartin Fisher School of Physics, Brandeis UniversityMartin Fisher School of Physics, Brandeis UniversityAbstract We generalize holographic bit threads to bulk theories with a gravitational action containing higher-curvature terms. Bit threads are a reformulation of holographic entanglement entropy, where the entropy is given by the maximum number of threads emanating from a boundary region into the bulk. We show that the addition of higher-curvature terms adds corrections to the bit thread thickness that depend on the local geometry and thread orientation. Two different methods are given: determination of the density bound by requiring the maximum number of threads through a given surface to reproduce the entanglement entropy functional on that surface, and application of Lagrange dualization. The results of the two methods are applied to Gauss-Bonnet gravity as the simplest non-trivial example.http://link.springer.com/article/10.1007/JHEP11(2018)168AdS-CFT CorrespondenceClassical Theories of Gravity
spellingShingle Jonathan Harper
Matthew Headrick
Andrew Rolph
Bit threads in higher-curvature gravity
Journal of High Energy Physics
AdS-CFT Correspondence
Classical Theories of Gravity
title Bit threads in higher-curvature gravity
title_full Bit threads in higher-curvature gravity
title_fullStr Bit threads in higher-curvature gravity
title_full_unstemmed Bit threads in higher-curvature gravity
title_short Bit threads in higher-curvature gravity
title_sort bit threads in higher curvature gravity
topic AdS-CFT Correspondence
Classical Theories of Gravity
url http://link.springer.com/article/10.1007/JHEP11(2018)168
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