Holonomy Saddles and 5d BPS Quivers

Qiang Jia; Piljin Yi

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arXiv · 2208.14579

Holonomy Saddles and 5d BPS Quivers

Qiang Jia·Piljin Yi

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Abstract

We study the Seberg-Witten geometry of 5d ${\cal N}=1$ pure Yang-Mills theories compactified on a circle. The concept of the holonomy saddle implies that there are multiple 4d limits of interacting Seiberg-Witten theories from a single 5d theory, and we explore this in the simplest case of pure $SU(N)$ theories. The compactification leads to $N$ copies of locally indistinguishable 4d pure $SU(N)$ Seiberg-Witten theories in the infrared, glued together in a manner dictated by the Chern-Simons level. We show how this picture naturally builds the 5d BPS quivers which agree with the D0 probe dynamics previously proposed via the geometrically engineered local Calabi-Yau. We work out various $SU(2)$ and $SU(3)$ examples through a detailed look at the respective spectral curves. We also note a special $\mathbb{Z}_{2N}$ feature of $SU(N)_N$ spectral curves and the resulting BPS quivers, with emphasis on how the 4d holonomy saddles are affected.

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Qiang Jia, Piljin Yi. 2022-08-31. Holonomy Saddles and 5d BPS Quivers. https://arxiv.org/abs/2208.14579

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