Simone Giacomelli, William Harding, Noppadol Mekareeya, Alessandro Mininno
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引用次数: 0
Abstract
We propose that Argyres-Douglas theories of type Dp(SU(N)) and (Ap−1, AN−1) — both realizable as Type A class \(\mathcal{S}\) theories with irregular punctures — can be obtained via a sequence of mass deformations from a common ancestor: a class \(\mathcal{S}\) theory with only regular punctures. Building on our previous work, this result establishes that these theories ultimately originate from 6d \(\mathcal{N}=(1, 0)\) orbi-instanton theories compactified on a torus. The requisite 4d mass deformations are realized as tractable Fayet-Iliopoulos deformations on the 3d mirror quiver. The core of our method is a constructive procedure that utilizes the Euclidean algorithm to define a chain of deformations connecting different Dp(SU(N)) theories. By reversing this chain, we recursively build a “parent” star-shaped quiver for any given (N, p). This quiver is the 3d mirror theory of the required class \(\mathcal{S}\) ancestor. We substantiate our general claims with several detailed examples that explicitly illustrate the deformation procedure.
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