Vector-like dark matter within an alternative left-right symmetric model
Yassine Bouzeraib, Mohamed Sadek Zidi, Genevi\`eve B\'elanger

TL;DR
This paper explores a novel left-right symmetric model with vector-like leptons, proposing a stable TeV-scale dark matter candidate that interacts via vector portals, and analyzes its detectability through collider, direct, and indirect detection methods.
Contribution
It introduces a new extension of the left-right symmetric model with vector-like leptons, providing a viable dark matter candidate and analyzing its experimental signatures.
Findings
Viable dark matter candidate at TeV scale identified.
Parameter space consistent with relic abundance and experimental constraints.
Complementarity of direct and indirect detection methods demonstrated.
Abstract
We investigate an extension of the left-right symmetric model featuring an additional non-abelian gauge symmetry. The particle content is augmented by one generation of vector-like leptons transforming under the fundamental representation of this new gauge group. We demonstrate that the neutral component of the vector-like lepton multiplet naturally provides a viable and stable dark matter candidate. Stability is ensured by imposing a discrete parity symmetry that forbids mixing between the vector-like leptons and the Standard Model leptons. As a consequence, the dark sector interacts with the visible sector exclusively through the vector portal (via s-channel processes) and the vector-like lepton portal (via t-channel processes). In our analysis, we incorporate collider constraints on the mass of the first-generation extra charged gauge boson , while assuming…
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Taxonomy
TopicsDark Matter and Cosmic Phenomena · Particle physics theoretical and experimental studies · Computational Physics and Python Applications
