S2L permutation symmetry for left-handed μ and τ families and neutrino oscillations in an SU(3)L × U(1)N gauge model
Teruyuki Kitabayashi, Masaki Yasuè
Abstract
We construct an SU(3)L × U(1)N gauge model based on an S2L permutation symmetry for left-handed μ and τ families, which provides the almost maximal atmospheric neutrino mixing and the large solar neutrino mixing of the LMA type. Neutrinos acquire one-loop radiative masses induced by the radiative mechanism of the Zee type as well as tree level masses induced by the type II seesaw mechanism utilizing interactions of lepton triplets with an SU(3)-sextet scalar. The atmospheric neutrino mixing controlled by the tree-level and radiative masses turns out to be almost maximal owing to the presence of S2L supplemented by a Z4 discrete symmetry. These symmetries ensure the almost equality between the νe-νμ and νe-ντ radiative masses dominated by contributions from heavy leptons contained in the third members of lepton triplets, whose Yukawa interactions conserve S2L, even after the spontaneous breaking. The solar neutrino mixing controlled by radiative masses including a νμ-ντ mass, which are taken to be the similar order, turns out to be described by large solar neutrino mixing angles.
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