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Auteurs principaux: Caminiti, Jacqueline, Friedman-Shaw, Batia, May, Alex, Myers, Robert C., Papadoulaki, Olga
Format: Preprint
Publié: 2024
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Accès en ligne:https://arxiv.org/abs/2404.15400
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author Caminiti, Jacqueline
Friedman-Shaw, Batia
May, Alex
Myers, Robert C.
Papadoulaki, Olga
author_facet Caminiti, Jacqueline
Friedman-Shaw, Batia
May, Alex
Myers, Robert C.
Papadoulaki, Olga
contents In the AdS/CFT correspondence, the causal structure of the bulk AdS spacetime is tied to entanglement in the dual CFT. This relationship is captured by the connected wedge theorem, which states that a bulk scattering process implies the existence of $O(1/G_N)$ entanglement between associated boundary subregions. In this paper, we study the connected wedge theorem in two asymptotically AdS$_{2+1}$ spacetimes: the conical defect and BTZ black hole geometries. In these settings, we find that bulk scattering processes require not just large entanglement, but also additional restrictions related to candidate RT surfaces which are non-minimal. We argue these extra relationships imply a certain CFT entanglement structure involving internal degrees of freedom. Because bulk scattering relies on sub-AdS scale physics, this supports the idea that sub-AdS scale locality emerges from internal degrees of freedom. While the new restriction that we identify on non-minimal surfaces is stronger than the initial statement of the connected wedge theorem, we find that it is necessary but still not sufficient to imply bulk scattering in mixed states.
format Preprint
id arxiv_https___arxiv_org_abs_2404_15400
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Holographic scattering and non-minimal RT surfaces
Caminiti, Jacqueline
Friedman-Shaw, Batia
May, Alex
Myers, Robert C.
Papadoulaki, Olga
High Energy Physics - Theory
In the AdS/CFT correspondence, the causal structure of the bulk AdS spacetime is tied to entanglement in the dual CFT. This relationship is captured by the connected wedge theorem, which states that a bulk scattering process implies the existence of $O(1/G_N)$ entanglement between associated boundary subregions. In this paper, we study the connected wedge theorem in two asymptotically AdS$_{2+1}$ spacetimes: the conical defect and BTZ black hole geometries. In these settings, we find that bulk scattering processes require not just large entanglement, but also additional restrictions related to candidate RT surfaces which are non-minimal. We argue these extra relationships imply a certain CFT entanglement structure involving internal degrees of freedom. Because bulk scattering relies on sub-AdS scale physics, this supports the idea that sub-AdS scale locality emerges from internal degrees of freedom. While the new restriction that we identify on non-minimal surfaces is stronger than the initial statement of the connected wedge theorem, we find that it is necessary but still not sufficient to imply bulk scattering in mixed states.
title Holographic scattering and non-minimal RT surfaces
topic High Energy Physics - Theory
url https://arxiv.org/abs/2404.15400