Domain Walls in the A 4 flavored NMSSM

Q2 Physics and Astronomy
M. A. Loualidi, Salah Nasri
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引用次数: 0

Abstract

In this work, we study the phenomenology of neutrinos and the formation of cosmic domain walls in the NMSSM extended by an $A_4 \times Z_3$ flavor symmetry. Neutrino masses result from the type I seesaw mechanism using only two flavon fields and the NMSSM singlet $\mathcal{S}$ while their mixing is of Trimaximal mixing form. We perform our phenomenological study in the normal mass hierarchy where we find that observables like $m_{\beta\beta}$, $m_\beta$, and $\sum_i m_i$ can be tested by future experiments. Due to the difference between the $A_4$ subgroups that undergo spontaneous breaking in both the charged lepton and neutrino sectors, the resulting domain walls in each sector exhibit distinct structures. We delve into the details of the breaking patterns within these two sectors, and we introduce a nuanced geometric representation for them. To tackle the domain wall problem, we explore a well-established method involving the explicit breaking of the flavor symmetry. This is achieved through the introduction of Planck-suppressed operators induced by supergravity.
A 4味NMSSM中的域壁
在这项工作中,我们研究了中微子的现象学以及由$A_4 \times Z_3$味道对称性扩展的NMSSM中宇宙域壁的形成。中微子质量来自仅使用两个黄子场和NMSSM单子$\mathcal{S}$的I型跷跷板机制,而它们的混合则是Trimaximal混合形式。我们在正常质量层次中进行了现象学研究,发现$m_{\beta\beta}$、$m_\beta$和$\sum_i m_i$等观测值可以通过未来的实验来检验。由于带电轻子和中微子部门中发生自发破缺的 $A_4$ 子群之间的差异,每个部门中产生的域壁都表现出不同的结构。我们深入研究了这两个扇区中的破缺模式细节,并为它们引入了一种细致入微的几何表示方法。为了解决域墙问题,我们探索了一种行之有效的方法,其中涉及味道对称性的显式破缺。这是通过引入超引力诱导的普朗克抑制算子实现的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Letters in High Energy Physics
Letters in High Energy Physics Physics and Astronomy-Nuclear and High Energy Physics
CiteScore
1.20
自引率
0.00%
发文量
4
审稿时长
12 weeks
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