The Relation Between Gauge and Non-Gauge Abelian Models
Gabriel Di Lemos Santiago Lima

TL;DR
This paper explores the connection between gauge-invariant and non gauge-invariant Abelian vector models, demonstrating that models like Proca and Chiral Schwinger can be viewed as gauge-fixed versions of gauge-invariant theories, establishing a fundamental equivalence.
Contribution
It introduces a method to interpret non gauge-invariant Abelian models as gauge-fixed forms of gauge-invariant models, unifying their understanding.
Findings
Proca and Chiral Schwinger models are gauge-fixed versions of gauge-invariant models.
A gauge-invariant form of the chiral Schwinger model corresponds to the two-dimensional Stueckelberg model.
Any consistent Abelian vector model without gauge symmetry can be seen as a gauge-fixed gauge theory.
Abstract
This work studies the relationship between gauge-invariant and non gauge-invariant abelian vector models. Following a technique introduced by Harada and Tsutsui, we show that the Proca and the Chiral Schwinger models may both be viewed as gauge-fixed versions of genuinely gauge- invariant models. This leads to the proposal that any consistent Abelian vector model with no gauge symmetry can be understood as a gauge theory that had its gauge fixed, which establishes an equivalence between gauge-invariant and non gauge-invariant models. Finally, we show that a gauge-invariant version of the chiral Schwinger model, after integrating out the fermionic degrees of freedom, can be identified with the two-dimensional Stueckelberg model without the gauge fixing term.
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Noncommutative and Quantum Gravity Theories · Black Holes and Theoretical Physics
