Indistinguishable Chargeon-Fluxion Pairs in the Quantum Double of Finite Groups
Salman Beigi, Peter W. Shor, Daniel Whalen

TL;DR
This paper investigates auto-equivalences in the quantum double of finite groups, revealing conditions under which chargeon-fluxion pairs become indistinguishable, especially in groups like S_3 and certain near-fields.
Contribution
It characterizes when chargeon-fluxion pairs are indistinguishable in the quantum double of specific finite groups, linking group structure to auto-equivalence existence.
Findings
Existence of auto-equivalences for groups like the semidirect product of finite field groups.
Chargeon-fluxion pairs in S_3 are indistinguishable.
Modular invariants correspond to groups isomorphic to certain near-fields.
Abstract
We consider the category of finite dimensional representations of the quantum double of a finite group as a modular tensor category. We study auto-equivalences of this category whose induced permutations on the set of simple objects (particles) are of the special form of PJ, where J sends every particle to its charge conjugation and P is a transposition of a chargeon-fluxion pair. We prove that if the underlying group is the semidirect product of the additive and multiplicative groups of a finite field, then such an auto-equivalence exists. In particular, we show that for S_3 (the permutation group over three letters) there is a chargeon and a fluxion which are not distinguishable. Conversely, by considering such permutations as modular invariants, we show that a transposition of a chargeon-fluxion pair forms a modular invariant if and only if the corresponding group is isomorphic to…
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Taxonomy
TopicsAlgebraic structures and combinatorial models · Advanced Operator Algebra Research · Physics of Superconductivity and Magnetism
