6D SCFTs的原子希格辛。第一部分

IF 5.4 1区 物理与天体物理 Q1 Physics and Astronomy
Jiakang Bao, Hao Y. Zhang
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引用次数: 0

摘要

本文研究了任意给定的由f理论构造的6d \( \mathcal{N} \) = (1,0) SCFTs的完整希格斯分支哈塞图。这可以通过确定6d scft广义颤振上的所有最小希格辛量来实现。我们称这个过程为原子希格辛,它可以迭代地实现。我们用Hasse图的许多具体例子给出了我们的通用算法。我们还将我们的算法与三维\( \mathcal{N} \) = 4磁振子确定的希格辛子进行了比较。对于磁颤振是酉的情况,我们可以重现完整的哈斯图。对于一些新的例子,我们也从IIA型膜体系构造了正辛磁振子。我们的方法,基于f理论,适用于已知的和新的正辛情况,以及没有已知描述磁颤振的理论。我们希望基于几何的方法能够帮助扩展6d SCFTs的RG流的范围。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Atomic Higgsings of 6D SCFTs. Part I

In this paper, we study the full Higgs branch Hasse diagrams for any given 6d \( \mathcal{N} \) = (1, 0) SCFTs constructed via F-theory. This can be done by a procedure of determining all the minimal Higgsings on the generalized quivers of the 6d SCFTs. We call this procedure the atomic Higgsing, which can be implemented iteratively. We present our general algorithm with many concrete examples of Hasse diagrams. We also compare our algorithm with the Higgsings determined by the 3d \( \mathcal{N} \) = 4 magnetic quivers. For the cases where the magnetic quivers are unitary, we can reproduce the full Hasse diagrams. We also construct the orthosymplectic magnetic quivers from the Type IIA brane systems for some new examples. Our approach, based on F-theory, applies to the known and new orthosymplectic cases, as well as theories that do not have known descriptions in terms of magnetic quivers. We expect our geometry-based approach to help extend the horizon of the RG flows of the 6d SCFTs.

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来源期刊
Journal of High Energy Physics
Journal of High Energy Physics 物理-物理:粒子与场物理
CiteScore
10.30
自引率
46.30%
发文量
2107
审稿时长
1.5 months
期刊介绍: The aim of the Journal of High Energy Physics (JHEP) is to ensure fast and efficient online publication tools to the scientific community, while keeping that community in charge of every aspect of the peer-review and publication process in order to ensure the highest quality standards in the journal. Consequently, the Advisory and Editorial Boards, composed of distinguished, active scientists in the field, jointly establish with the Scientific Director the journal''s scientific policy and ensure the scientific quality of accepted articles. JHEP presently encompasses the following areas of theoretical and experimental physics: Collider Physics Underground and Large Array Physics Quantum Field Theory Gauge Field Theories Symmetries String and Brane Theory General Relativity and Gravitation Supersymmetry Mathematical Methods of Physics Mostly Solvable Models Astroparticles Statistical Field Theories Mostly Weak Interactions Mostly Strong Interactions Quantum Field Theory (phenomenology) Strings and Branes Phenomenological Aspects of Supersymmetry Mostly Strong Interactions (phenomenology).
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