2021
DOI: 10.48550/arxiv.2109.05992
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Non-invertible topological defects in 4-dimensional $\mathbb{Z}_2$ pure lattice gauge theory

Abstract: We explore topological defects in the 4-dimensional pure Z 2 lattice gauge theory. This theory has 1-form Z 2 center symmetry as well as the Kramers-Wannier-Wegner (KWW) duality. We construct the KWW duality topological defects in the similar way to that constructed by Aasen, Mong, Fendley [1] for the 2-dimensional Ising model. These duality defects turn out to be non-invertible. We also construct the 1-form Z 2 symmetry defects as well as the junctions among KWW duality defects and 1-form Z 2 center symmetry … Show more

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Cited by 12 publications
(22 citation statements)
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“…The phase transitions at θ = ±π mod 4π are transitions between these two low-energy phases. Our result is in agreement with [20], where a non-invertible defect was found in a lattice model which exhibits the same phase transition. 4 For w T X 5 1 to be non-vanishing X 5 must be unorientable, but we will assume X 4 to be orientable and spin.…”
Section: Examplessupporting
confidence: 92%
See 1 more Smart Citation
“…The phase transitions at θ = ±π mod 4π are transitions between these two low-energy phases. Our result is in agreement with [20], where a non-invertible defect was found in a lattice model which exhibits the same phase transition. 4 For w T X 5 1 to be non-vanishing X 5 must be unorientable, but we will assume X 4 to be orientable and spin.…”
Section: Examplessupporting
confidence: 92%
“…For the particular cases we study, the resulting non-invertible defect will be shown to be a generalization of the Kramers-Wannier defect in (1+1)d. Our defects will have similar implications for self-duality of the gauge theories. Our result can be seen as a continuum analog of the Kramers-Wannier duality of lattice Z 2 gauge theories in (3+1)-dimensions [5], whose corresponding defect has been studied in [20].…”
mentioning
confidence: 64%
“…These are operators that, like more familiar symmetries, do not change under small deformations of their positions, but whose fusion algebra is more general than that of a group. These non-invertible symmetries have recently been explored in [53,54,[66][67][68][69][70][71]. Other arguments for conditions similar to (3.29) have appeared in [50][51][52].…”
Section: Non-abelian Weak Gravity and Non-invertible Symmetrymentioning
confidence: 99%
“…for all h ∈ H. 7 In the subsequent sections, we will use the string diagram notation where the above conditions 1-5 are represented as follows:…”
mentioning
confidence: 99%