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Clustering Theorem for Bose-Hubbard class Gibbs states

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arxiv 2411.10759 v4 pith:PBD5O3DJ submitted 2024-11-16 cond-mat.stat-mech math-phmath.MP

Clustering Theorem for Bose-Hubbard class Gibbs states

classification cond-mat.stat-mech math-phmath.MP
keywords bosonicclusteringbose-hubbardboundestablishgibbsstatesallows
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We establish the exponential clustering of correlation functions for the high-temperature Gibbs states of Bose-Hubbard type models. To overcome the technical difficulties arising from the unboundedness of bosonic operators, we develop the interaction-picture cluster-expansion technique. This method also allows us to systematically bound the moments of the local particle number. This result provides an analytical justification for the low-boson-density condition frequently assumed in the study of bosonic many-body systems. As direct mathematical consequences of the clustering property, we derive a uniform upper bound on the specific heat density and establish a bosonic thermal area law with improved temperature dependence.

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  1. When quantum thermal states look classical

    quant-ph 2026-07 accept novelty 8.0

    Long-range Pauli Gibbs states lose entanglement, magic, and infinite-temperature analyticity at distinct constant inverse temperatures Θ(1/sk), Θ(log(1/ε)/sk), and Θ(1/s√k), with matching classical algorithms.