Anomaly inflow for CSS and fractonic lattice models and dualities via cluster state measurement
Takuya Okuda, Aswin Parayil Mana, Hiroki Sukeno

TL;DR
This paper explores the topological and duality properties of CSS codes and fracton models using cluster state measurements, revealing anomaly inflow, symmetry-protected topological order, and novel dualities in quantum and statistical models.
Contribution
It introduces a framework linking CSS codes, foliated cluster states, and dualities, including a generalization of Kramers-Wannier-Wegner duality and non-invertible symmetries.
Findings
Demonstrates anomaly inflow between CSS codes and cluster states
Establishes a generalized duality for CSS-related statistical models
Constructs self-dual subsystem-symmetric quantum models
Abstract
Calderbank-Shor-Steane (CSS) codes are a class of quantum error correction codes that contains the toric code and fracton models. A procedure called foliation defines a cluster state for a given CSS code. We use the CSS chain complex and its tensor product with other chain complexes to describe the topological structure in the foliated cluster state, and argue that it has a symmetry-protected topological order protected by generalized global symmetries supported on cycles in the foliated CSS chain complex. We demonstrate the so-called anomaly inflow between CSS codes and corresponding foliated cluster states by explicitly showing the equality of the gauge transformations of the bulk and boundary partition functions defined as functionals of defect world-volumes. We show that the bulk and boundary defects are related via measurement of the bulk system. Further, we provide a procedure to…
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Taxonomy
TopicsBenford’s Law and Fraud Detection · Advanced Database Systems and Queries · Statistical Mechanics and Entropy
