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Search for a light $Z^\prime$ at LHC in a neutrinophilic $U(1)$ model
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abstract
We consider a neutrinophilic $U(1)$ extension of the standard model (SM) which couples only to SM isosinglet neutral fermions, charged under the new group. The neutral fermions couple to the SM matter fields through Yukawa interactions. The neutrinos in the model get their masses from a standard inverse-seesaw mechanism while an added scalar sector is responsible for the breaking of the gauged $U(1)$ leading to a light neutral gauge boson ($Z'$), which has minimal interaction with the SM sector. We study the phenomenology of having such a light $Z'$ in the context of neutrinophilic interactions as well as the role of allowing kinetic mixing between the new $U(1)$ group with the SM hypercharge group. We show that current experimental searches allow for a very light $Z'$ if it does not couple to SM fields directly and highlight the search strategies at the LHC. We observe that multilepton final states in the form of $(4\ell + \slashed{E}_T)$ and $(3\ell + 2j + \slashed{E}_T)$ could be crucial in discovering such a neutrinophilic gauge boson lying in a mass range of $200$--$500$ GeV.
Forward citations
Cited by 2 Pith papers
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Probing a Heavy Dark $Z$ Boson at Multi-TeV Muon Colliders: Leveraging the Optimized Recoil Mass Technique
A 3-10 TeV muon collider could detect a heavy dark Z boson in photon-associated production, reaching kinetic-mixing strengths down to about 10^-3 near the kinematic limit by using resolution-optimized recoil-mass and ...
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Signals for a 2HDM with $Z'$ at the LHC
In a U(1)-extended two-Higgs-doublet model, scalar decays to a light Z' produce multilepton signals at the LHC, with discovery potential for scalar masses above 350 GeV at 3000 fb^-1.
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