Integrated correlators in a $\mathcal{N}=2$ SYM theory with fundamental flavors: a matrix-model perspective
M. Billo, M. Frau, A. Lerda, A. Pini, P. Vallarino

TL;DR
This paper computes exact matrix model expressions for integrated correlators in a specific supersymmetric gauge theory with fundamental flavors, providing insights into strong coupling regimes and dual string amplitudes.
Contribution
It introduces a matrix-model approach to analyze mass-deformed SYM with fundamental flavors, deriving exact results at all couplings and 1/N corrections.
Findings
Exact expressions for the partition function and its mass derivatives up to 1/N^2
Results valid for all values of the 't Hooft coupling
Constraints on dual open string scattering amplitudes at strong coupling
Abstract
The D theory is a conformal SYM theory in four dimensions with gauge group SU(), four matter hypermultiplets in the fundamental and two in the anti-symmetric representation, and a flavor symmetry that contains a U(4) factor. Its holographic dual is obtained via a combination of orbifold and orientifold projections from Type II B string theory on and possesses a sector of open strings attached to D7 branes with U(4) Chan-Paton factors. The AdS Veneziano amplitude of the U(4) gluons is dual to four-point correlators of moment-map operators of the U(4) flavor symmetry in the D theory. An integrated version of these correlators is captured by a deformation of the D theory in which the fundamental hypermultiplets acquire a mass. The partition function of this massive theory can be evaluated with matrix-model techniques using localization. In…
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Taxonomy
TopicsTheoretical and Computational Physics · Cold Atom Physics and Bose-Einstein Condensates · Quantum optics and atomic interactions
