Realization and stability of non-Abelian chiral quantum spin liquids via dimensional reduction

A bstract This work is concerned with the realization and stability of a non-Abelian chiral quantum spin liquid phase. To do so, we cast the problem in a quantum wires framework, which is a dimensional deconstruction framework that allows us to study the (2+1) dimensional spin liquids phase from a series of coupled (1+1) dimensional theories. The lower dimension grants us the ability to perform a bosonization procedure, which yields two different partition functions connected by a strong-weak duality transformation. This bosonization procedure is illuminating in that it makes the fixed point structure of the model unequivocal. Then, we proceed by studying the RG flow through the β -functions, which we use to determine the phase structure. We find that the quantum spin liquid phase is realized and stable in the deep IR limit.

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Publication Details

Journal
Journal of High Energy Physics
Published
2025-03-28
DOI
https://doi.org/10.1007/jhep03(2025)212
Primary Topic
Advanced Condensed Matter Physics
Type
article
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article

Realization and stability of non-Abelian chiral quantum spin liquids via dimensional reduction

Rodrigo Corso B. Santos, Carlos A. Hernaski
Journal of High Energy Physics
Advanced Condensed Matter Physics
article

Realization and stability of non-Abelian chiral quantum spin liquids via dimensional reduction

Rodrigo Corso B. Santos, Carlos A. Hernaski
article en

Abstract

A bstract This work is concerned with the realization and stability of a non-Abelian chiral quantum spin liquid phase. To do so, we cast the problem in a quantum wires framework, which is a dimensional deconstruction framework that allows us to study the (2+1) dimensional spin liquids phase from a series of coupled (1+1) dimensional theories. The lower dimension grants us the ability to perform a bosonization procedure, which yields two different partition functions connected by a strong-weak duality transformation. This bosonization procedure is illuminating in that it makes the fixed point structure of the model unequivocal. Then, we proceed by studying the RG flow through the β -functions, which we use to determine the phase structure. We find that the quantum spin liquid phase is realized and stable in the deep IR limit.

Journal of High Energy PhysicsVol. 2025(3)
Universidade Estadual de Londrina (BR)
Openalex Percentile: Top 96%
Advanced Condensed Matter Physics
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