Bootstrapping the Finiteness of Leigh-Strassler Deformations and Uncovering Hidden Symmetries
Lucas S. Sousa

TL;DR
This paper uses a bootstrap-like approach to determine constraints on Leigh-Strassler deformations, revealing hidden symmetries, integrable structures, and connections to gauge/gravity duality, extending understanding of finiteness conditions in supersymmetric models.
Contribution
It introduces a new symmetry called q-symmetry, constrains the finiteness conditions, and uncovers hidden integrable structures and gauge/gravity interpretations in Leigh-Strassler deformations.
Findings
Reproduces known one-loop and planar limit results from mathematical conditions.
Identifies a new q-symmetry leading to additional integrable deformations.
Establishes a linear relation between parameters in gauge/gravity duality.
Abstract
In this paper, we follow a Bootstrap-like approach to determine the most restricted form the finiteness constraint , which relates the four parameters of Leigh-Strassler (LS) deformed models, by imposing mathematical and physical conditions. Focusing first on real parameters, we apply these conditions, together with a new symmetry of the superpotential we named ``q-symmetry'', to strongly constrains . Imposing only these mathematical conditions is enough, for example, to reproduces the \textit{structure} of the one-loop correction and the \textit{exact result} in the planar limit, which are known from the literature. Extending the analysis to complex parameters, we develop a similar method to obtain the more restricted form of , though the complex case obscures expansions in ``q-invariant'' variables. We also show how…
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Taxonomy
TopicsAlgebraic structures and combinatorial models · Noncommutative and Quantum Gravity Theories · Black Holes and Theoretical Physics
