Elliptic hypergeometry of supersymmetric dualities
V. P. Spiridonov, G. S. Vartanov
TL;DR
This work connects Seiberg-like electric-magnetic dualities with the theory of elliptic hypergeometric integrals, providing a comprehensive catalog of N=1 dualities for SU(N), SP(2N), and G2 gauge groups and expressing their superconformal indices as elliptic integrals. It proves and conjectures a host of elliptic integral identities I_E = I_M that mirror dualities, and proposes two universal conjectures linking total ellipticity to both duality identities and ’t Hooft anomaly matching. The paper not only extends known results (Römelsberger, Dolan-Osborn) but also introduces numerous new dualities, including SP-SP and SU-SU mixes, and many conjectured elliptic beta integrals on root systems. By mapping dualities to integral transformations, it reveals deep structure connecting quantum field theory with the modular properties of elliptic functions, with potential for discovering additional dualities and exact solvable identities. The work thus provides a framework for systematic exploration of dualities through elliptic hypergeometry, with implications for confinement, anomaly matching, and the algebraic structure of supersymmetric theories.
Abstract
We give a full list of known $\mathcal{N}=1$ supersymmetric quantum field theories related by the Seiberg electric-magnetic duality conjectures for $SU(N), SP(2N)$ and $G_2$ gauge groups. Many of the presented dualities are new, not considered earlier in the literature. For all these theories we construct superconformal indices and express them in terms of elliptic hypergeometric integrals. This gives a systematic extension of the related Romelsberger and Dolan-Osborn results. Equality of indices in dual theories leads to various identities for elliptic hypergeometric integrals. About half of them were proven earlier, and another half represents new challenging conjectures. In particular, we conjecture a dozen new elliptic beta integrals on root systems extending the univariate elliptic beta integral discovered by the first author.
