# Radiatively Induced Neutrino Mass Model with Flavor Dependent Gauge Symmetry

## TL;DR

This paper proposes a radiative neutrino mass model with a flavor-dependent gauge symmetry that incorporates dark matter, analyzes various experimental constraints, and predicts specific neutrino mixing patterns and CP phases.

## Contribution

It introduces a novel one-loop radiative seesaw model with $U(1)_{\mu-\tau}$ symmetry, linking neutrino masses, dark matter, and flavor physics with new predictive textures.

## Key findings

- Identifies parameter regions satisfying all experimental constraints.
- Predicts a specific two-zero texture in the neutrino mass matrix.
- Suggests a distinctive pattern for the Dirac CP phase.

## Abstract

We study a radiative seesaw model at one-loop level with a flavor dependent gauge symmetry $U(1)_{\mu-\tau}$, in which we consider bosonic dark matter. We also analyze the constraints from lepton flavor violations, muon $g-2$, relic density of dark matter, and collider physics, and carry out numerical analysis to search for allowed parameter region which satisfy all the constraints and to investigate some predictions. Furthermore we find that a simple but adhoc hypothesis induces specific two zero texture with inverse mass matrix, which provides us several predictions such as a specific pattern of Dirac CP phase.