precise Higgs boson mass measurement determines the value of the quartic coupling in the scalar potential at the electroweak scale and allows one to study its behavior all the way up to high energies. Given today’s measured values of [[Standard Model ]{}]{}parameters such as the top quark and Higgs boson masses, we know that the Higgs quartic coupling remains perturbative after renomalization group equations (RGEs) are used to evolve it to high energies. However, the stability of the fundamental vacuum is likely to fail at mass scales below the fundamental Planck scale [@Tanabashi:2018oca].

Another most important milestone in the landscape of particle physics has been the discovery of neutrino oscillations [@Kajita:2016cak; @McDonald:2016ixn]. This implies the existence of new physics [@deSalas:2017kay] and forces us to amend the [[Standard Model ]{}]{}by adding new particles in order to provide nonzero masses to neutrinos [@Valle:2015pba].

Electroweak symmetry breaking acquires a new perspective in dynamical theories of neutrino mass generation. In fact, these extensions can affect the profile of the Higgs boson in an important way. Indeed, it has been argued that the presence of new couplings associated to neutrino mass generation can have an important impact upon the vacuum stability issue [@Bonilla:2015kna] [^1]. Models 