A Generalized Crystalline Equivalence Principle
Devon Stockall, Matthew Yu

TL;DR
This paper proves a broad version of the crystalline equivalence principle, establishing an equivalence between TQFTs with spatial symmetry and those with internal symmetry, and introduces a classification of anomalies in this context.
Contribution
It generalizes the crystalline equivalence principle and provides a new framework for classifying anomalies in TQFTs with spatial and categorical symmetries.
Findings
Established an equivalence of categories for TQFTs with G-symmetry
Defined and classified anomalies in TQFTs with spatial symmetry
Extended anomaly classification to categorical symmetries
Abstract
We prove a general version of the crystalline equivalence principle which gives an equivalence of categories between a category of TQFTs defined on a generic space with -symmetry, and a category of TQFTs with internal symmetry. We give a definition and classification of anomalies associated to TQFTs in the presence of spatial symmetry, which we then generalize to a definition of an anomaly for a categorical symmetry.
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