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Main Authors: Ball, Adam, Law, Y. T. Albert
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2411.02555
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author Ball, Adam
Law, Y. T. Albert
author_facet Ball, Adam
Law, Y. T. Albert
contents We extend our recently identified dynamical edge mode boundary condition to $p$-form gauge theories, revealing their edge modes as Goldstone bosons arising from gauge transformations with support on the boundary. The symplectic conjugates of these edge modes correspond to the electric-field-like components normal to the boundary. We demonstrate that both the symplectic form and the Hamiltonian naturally decompose into bulk and edge parts. When the boundary is a stretched horizon, we show that the thermal edge partition function reduces to that of a codimension-two ghost $(p-1)$-form residing on the bifurcation surface. These findings provide a dynamical framework that elucidates observations made by several authors. Additionally, we generalize Donnelly and Wall's non-dynamical approach to obtain edge partition functions for both massive and massless $p$-forms. In the context of a de Sitter static patch, these results are consistent with the edge partition functions found by several authors in arbitrary dimensions.
format Preprint
id arxiv_https___arxiv_org_abs_2411_02555
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Dynamical Edge Modes in $p$-form Gauge Theories
Ball, Adam
Law, Y. T. Albert
High Energy Physics - Theory
We extend our recently identified dynamical edge mode boundary condition to $p$-form gauge theories, revealing their edge modes as Goldstone bosons arising from gauge transformations with support on the boundary. The symplectic conjugates of these edge modes correspond to the electric-field-like components normal to the boundary. We demonstrate that both the symplectic form and the Hamiltonian naturally decompose into bulk and edge parts. When the boundary is a stretched horizon, we show that the thermal edge partition function reduces to that of a codimension-two ghost $(p-1)$-form residing on the bifurcation surface. These findings provide a dynamical framework that elucidates observations made by several authors. Additionally, we generalize Donnelly and Wall's non-dynamical approach to obtain edge partition functions for both massive and massless $p$-forms. In the context of a de Sitter static patch, these results are consistent with the edge partition functions found by several authors in arbitrary dimensions.
title Dynamical Edge Modes in $p$-form Gauge Theories
topic High Energy Physics - Theory
url https://arxiv.org/abs/2411.02555