Discrete gauge theories
Mark de Wild Propitius, F. Alexander Bais

TL;DR
This paper provides a comprehensive overview of discrete gauge theories, focusing on their topological properties, algebraic structures, and exotic phenomena such as flux metamorphosis and nonabelian statistics, with detailed examples and theoretical insights.
Contribution
It introduces a unified algebraic framework for understanding the topological and braid properties of particles in discrete gauge theories, including novel phenomena like flux metamorphosis and Cheshire charge.
Findings
Topological interactions due to Aharonov-Bohm effect
Classification of magnetic vortices in nonabelian theories
Illustration of exotic phenomena like flux metamorphosis and nonabelian braiding
Abstract
In these lecture notes, we present a self-contained discussion of planar gauge theories broken down to some finite residual gauge group H via the Higgs mechanism. The main focus is on the discrete H gauge theory describing the long distance physics of such a model. The spectrum features global H charges, magnetic vortices and dyonic combinations. Due to the Aharonov-Bohm effect, these particles exhibit topological interactions. Among other things, we review the Hopf algebra related to this discrete H gauge theory, which provides an unified description of the spin, braid and fusion properties of the particles in this model. Exotic phenomena such as flux metamorphosis, Alice fluxes, Cheshire charge, (non)abelian braid statistics, the generalized spin-statistics connection and nonabelian Aharonov-Bohm scattering are explained and illustrated by representative examples. Preface: Broken…
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Taxonomy
TopicsAdvanced Mathematical Modeling in Engineering · advanced mathematical theories · Numerical methods for differential equations
