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Main Authors: Ishtiaque, Nafiz, Chakroborty, Shanto
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2605.09122
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author Ishtiaque, Nafiz
Chakroborty, Shanto
author_facet Ishtiaque, Nafiz
Chakroborty, Shanto
contents We study finite-temperature $P$-form $\mathbb Z_N$ homological codes via an exact finite-Trotter quantum-to-classical map to a $(d+1)$-dimensional spacetime model with electric and magnetic topological background charges. The resulting background-resolved partition functions admit an exact reformulation in terms of closed magnetic and electric defect polymers, with opposite-species interactions governed by linking phases. By bounding this complex polymer gas by positive same-species hard-core majorant gases, we obtain an explicit low-activity criterion under which all background-dependent partition functions are uniformly controlled and homologically nontrivial polymers are exponentially suppressed on the scale of the spacetime systole. We also derive an exact higher-form Kramers-Wannier duality exchanging electric and magnetic backgrounds, Wilson and 't Hooft operators, and $P$-form and $(d-P)$-form theories. Finally, for prime $N$, we identify an exact source-free gauge-theory specialization coupled to the plaquette random-cluster model, which imports sharp phase-transition results on special geometries into the spacetime framework.
format Preprint
id arxiv_https___arxiv_org_abs_2605_09122
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle An exact spacetime polymer gas for finite-temperature $\mathbb Z_N$ homological quantum code
Ishtiaque, Nafiz
Chakroborty, Shanto
Mathematical Physics
Statistical Mechanics
High Energy Physics - Theory
Quantum Physics
We study finite-temperature $P$-form $\mathbb Z_N$ homological codes via an exact finite-Trotter quantum-to-classical map to a $(d+1)$-dimensional spacetime model with electric and magnetic topological background charges. The resulting background-resolved partition functions admit an exact reformulation in terms of closed magnetic and electric defect polymers, with opposite-species interactions governed by linking phases. By bounding this complex polymer gas by positive same-species hard-core majorant gases, we obtain an explicit low-activity criterion under which all background-dependent partition functions are uniformly controlled and homologically nontrivial polymers are exponentially suppressed on the scale of the spacetime systole. We also derive an exact higher-form Kramers-Wannier duality exchanging electric and magnetic backgrounds, Wilson and 't Hooft operators, and $P$-form and $(d-P)$-form theories. Finally, for prime $N$, we identify an exact source-free gauge-theory specialization coupled to the plaquette random-cluster model, which imports sharp phase-transition results on special geometries into the spacetime framework.
title An exact spacetime polymer gas for finite-temperature $\mathbb Z_N$ homological quantum code
topic Mathematical Physics
Statistical Mechanics
High Energy Physics - Theory
Quantum Physics
url https://arxiv.org/abs/2605.09122