The Hidden Symmetries of Yang-Mills Theory in (3+1)-dimensions
L. A. Ferreira, H. Malavazzi

TL;DR
This paper uncovers hidden integrable-like structures and infinite symmetries in classical Yang-Mills theories in four dimensions, revealing new conserved charges and potential implications for understanding non-perturbative aspects of gauge theories.
Contribution
It introduces novel symmetries and conserved charges in Yang-Mills theories based on flat connections in loop spaces, expanding the understanding of their integrability properties.
Findings
Existence of infinite conserved charges in Yang-Mills theories.
Identification of two new symmetries related to these charges.
Potential implications for non-perturbative analysis of gauge theories.
Abstract
We show that classical, non-supersymmetric Yang-Mills theories coupled to spin-1/2 and spin-0 elementary matter fields, in (3+1)-dimensional Minkowski space-time, possess exact structures that resemble integrability, with an infinite number of conserved charges in involution. Such structures live in the space of non-abelian electric and magnetic charges, and are based on flat connections in generalized loop spaces, presenting an R-matrix, and Sklyanin relation. We present two novel symmetries of Yang-Mills theories. The first one corresponds to global transformations generated by the infinity of those conserved charges under the Poisson brackets. The gauge and matter fields, as well as Wilson lines and fluxes, have interesting transformation laws under such a global symmetry. The second one corresponds to symmetries of the integral Yang-Mills equations, which lead to the conserved…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Quantum and Classical Electrodynamics · Quantum Chromodynamics and Particle Interactions
