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Main Authors: Shokeeb, Yosef, Jaubert, Ludovic D. C., Yan, Han
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2510.25994
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author Shokeeb, Yosef
Jaubert, Ludovic D. C.
Yan, Han
author_facet Shokeeb, Yosef
Jaubert, Ludovic D. C.
Yan, Han
contents We generalize the Hyperbolic Fracton Model from the $\{5,4\}$ tessellation to generic tessellations, and investigate its core properties: subsystem symmetries, fracton mobility, and holographic correspondence. While the model on the original tessellation has features reminiscent of the flat-space lattice cases, the generalized tessellations exhibit a far richer and more intricate structure. The ground-state degeneracy and subsystem symmetries are generated recursively layer-by-layer, through the inflation rule, but without a simple, uniform pattern. The fracton excitations follow exponential-in-distance and algebraic-in-lattice-size growing patterns when moving outward, and depend sensitively to the tessellation geometry, differing qualitatively from both type-I or type-II fracton model on flat lattices. Despite this increased complexity, the hallmark holographic features -- subregion duality via Rindler reconstruction, the Ryu-Takayanagi formula for mutual information, and effective black hole entropy scaling with horizon area -- remain valid. These results demonstrate that the holographic correspondence in fracton models persists in generic tessellations, and provide a natural platform to explore more intricate subsystem symmetries and fracton physics.
format Preprint
id arxiv_https___arxiv_org_abs_2510_25994
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Hyperbolic Fracton Model, Subsystem Symmetry and Holography III: Extension to Generic Tessellations
Shokeeb, Yosef
Jaubert, Ludovic D. C.
Yan, Han
Strongly Correlated Electrons
High Energy Physics - Theory
Quantum Physics
We generalize the Hyperbolic Fracton Model from the $\{5,4\}$ tessellation to generic tessellations, and investigate its core properties: subsystem symmetries, fracton mobility, and holographic correspondence. While the model on the original tessellation has features reminiscent of the flat-space lattice cases, the generalized tessellations exhibit a far richer and more intricate structure. The ground-state degeneracy and subsystem symmetries are generated recursively layer-by-layer, through the inflation rule, but without a simple, uniform pattern. The fracton excitations follow exponential-in-distance and algebraic-in-lattice-size growing patterns when moving outward, and depend sensitively to the tessellation geometry, differing qualitatively from both type-I or type-II fracton model on flat lattices. Despite this increased complexity, the hallmark holographic features -- subregion duality via Rindler reconstruction, the Ryu-Takayanagi formula for mutual information, and effective black hole entropy scaling with horizon area -- remain valid. These results demonstrate that the holographic correspondence in fracton models persists in generic tessellations, and provide a natural platform to explore more intricate subsystem symmetries and fracton physics.
title Hyperbolic Fracton Model, Subsystem Symmetry and Holography III: Extension to Generic Tessellations
topic Strongly Correlated Electrons
High Energy Physics - Theory
Quantum Physics
url https://arxiv.org/abs/2510.25994