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arXiv · 2311.12931

Argyres-Douglas Theories, IR N-ality and Complete Graphs

Abstract

We show that for a large subclass of Argyres-Douglas-type theories, the Higgs branch admits multiple hyperkahler quotient realizations as Higgs branches of three dimensional $\mathcal{N}=4$ quiver gauge theories, which are related by a sequence of Seiberg-like IR dualities. We refer to this phenomenon as the Hyperkahler Quotient N-ality of the four dimensional Higgs branch. The associated set of 3d theories contains a special subset of maximal unitary quivers: quiver gauge theories for which the resolution/deformation parameters of the Higgs branch are manifest in the Lagrangian as Fayet-Iliopoulas parameters. Starting from the Type IIB description for a given SCFT, we present an explicit construction to determine the aforementioned set of 3d quivers, including the subset of maximal unitary quivers. As a byproduct, we find a simple method for constructing the three dimensional mirror associated with the SCFT. We demonstrate the construction for the $(A_k, A_k)$ theories of Cecotti, Neitzke and Vafa, focusing on the cases $k=3$ and $k=4$. The associated maximal unitary quiver is unique up to field redefinitions and turns out to be an Abelian quiver gauge theory. The three dimensional mirror obtained in this fashion reproduces the well-known complete graph. In the appendices to the main paper, we study the quotient N-ality in the closely related family of $D^b_p (SU(N))$ SCFTs, for which both the maximal unitary quiver as well as the 3d mirror turn out to be non-Abelian gauge theories generically

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BibTeXRIS

Anindya Dey. 2023-11-21. Argyres-Douglas Theories, IR N-ality and Complete Graphs. https://arxiv.org/abs/2311.12931

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