The origin of the 95 GeV excess in the flavor-dependent U(1)X model

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Hauptverfasser: Ge, Zhao-feng, Niu, Feng-Yan, Yang, Jin-Lei
Format: Preprint
Veröffentlicht: 2024
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author Ge, Zhao-feng
Niu, Feng-Yan
Yang, Jin-Lei
author_facet Ge, Zhao-feng
Niu, Feng-Yan
Yang, Jin-Lei
contents This study investigates the excesses observed in the CMS diphoton and ditau data around 95 GeV within the framework of the flavor-dependent U(1)X model. The model introduces a singlet scalar to explain the nonzero neutrino masses. This newly introduced Higgs interacts directly with the quark sector, motivated by the aim to explain the flavor numbers of the fermion sector. Additionally, it undergoes mixing with the SM-like Higgs boson. The study suggests that designating this singlet Higgs state in this model as the lightest Higgs boson holds great potential for explaining the excesses around 95 GeV. In the calculations, we maintained the masses of the lightest and next-to-lightest Higgs bosons at around 95 GeV and 125 GeV respectively. It was found that the theoretical predictions on the signal strengthes μ(h95)_γγ, μ(h95)_ττ in the flavor-dependent U(1)X model can be fitted well to the excesses observed at CMS.
format Preprint
id arxiv_https___arxiv_org_abs_2405_07243
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle The origin of the 95 GeV excess in the flavor-dependent U(1)X model
Ge, Zhao-feng
Niu, Feng-Yan
Yang, Jin-Lei
High Energy Physics - Phenomenology
This study investigates the excesses observed in the CMS diphoton and ditau data around 95 GeV within the framework of the flavor-dependent U(1)X model. The model introduces a singlet scalar to explain the nonzero neutrino masses. This newly introduced Higgs interacts directly with the quark sector, motivated by the aim to explain the flavor numbers of the fermion sector. Additionally, it undergoes mixing with the SM-like Higgs boson. The study suggests that designating this singlet Higgs state in this model as the lightest Higgs boson holds great potential for explaining the excesses around 95 GeV. In the calculations, we maintained the masses of the lightest and next-to-lightest Higgs bosons at around 95 GeV and 125 GeV respectively. It was found that the theoretical predictions on the signal strengthes μ(h95)_γγ, μ(h95)_ττ in the flavor-dependent U(1)X model can be fitted well to the excesses observed at CMS.
title The origin of the 95 GeV excess in the flavor-dependent U(1)X model
topic High Energy Physics - Phenomenology
url https://arxiv.org/abs/2405.07243