We consider an extension of the standard model (SM) augmented by two neutral singlet fermions per generation and a leptoquark. In order to generate the light neutrino masses and mixing, we incorporate inverse seesaw mechanism. The right-handed neutrino production in this model is significantly larger than the conventional inverse seesaw scenario. We analyze the different collider signatures of this model and find that the final states associated with three or more leptons, multijet and at least one b-tagged and ( or) t-tagged jet can probe larger RH neutrino mass scale. We have also proposed a same-sign dilepton signal region associated with multiple jets and missing energy that can be used to distinguish the present scenario from the usual...
The neutrino mass generation mechanism, the nature of dark matter and the origin of the baryon asymm...
Models of neutrino mass generation constitute well motivated scenarios of Beyond-the-Standard-Model ...
The existence of the tiny neutrino mass and the flavor mixing can be naturally explained by type I S...
We consider an extension of the standard model (SM) augmented by two neutral singlet fermions per ge...
AbstractIn this work we consider a simple extension of the Standard Model involving additional fermi...
In this present work, we uphold the standard model (SM) augmented with two right-handed (RH) neutrin...
We study neutrino masses in the framework of the supersymmetric inverse seesaw model. Different from...
We study neutrino masses in the framework of the supersymmetric inverse seesaw model. Different from...
The proposed work is an extension of the Standard Model, where we have introduced two gauge symmetri...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
In this doctoral thesis, we study both low- and high-energy observables related to massive neutrinos...
We review the collider phenomenology of neutrino physics and the synergetic aspects at energy, inten...
AbstractWe show that models with exotic leptons transforming as E∼(1,3,−1) under the standard model ...
Knowledge of the mechanism of neutrino mass generation would help understand a lot more about Lepton...
The neutrino mass generation mechanism, the nature of dark matter and the origin of the baryon asymm...
Models of neutrino mass generation constitute well motivated scenarios of Beyond-the-Standard-Model ...
The existence of the tiny neutrino mass and the flavor mixing can be naturally explained by type I S...
We consider an extension of the standard model (SM) augmented by two neutral singlet fermions per ge...
AbstractIn this work we consider a simple extension of the Standard Model involving additional fermi...
In this present work, we uphold the standard model (SM) augmented with two right-handed (RH) neutrin...
We study neutrino masses in the framework of the supersymmetric inverse seesaw model. Different from...
We study neutrino masses in the framework of the supersymmetric inverse seesaw model. Different from...
The proposed work is an extension of the Standard Model, where we have introduced two gauge symmetri...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
In this doctoral thesis, we study both low- and high-energy observables related to massive neutrinos...
We review the collider phenomenology of neutrino physics and the synergetic aspects at energy, inten...
AbstractWe show that models with exotic leptons transforming as E∼(1,3,−1) under the standard model ...
Knowledge of the mechanism of neutrino mass generation would help understand a lot more about Lepton...
The neutrino mass generation mechanism, the nature of dark matter and the origin of the baryon asymm...
Models of neutrino mass generation constitute well motivated scenarios of Beyond-the-Standard-Model ...
The existence of the tiny neutrino mass and the flavor mixing can be naturally explained by type I S...