# Understanding the muon anomalous magnetic moment in light of a flavor symmetry-based Minimal Supersymmetric Standard Model

## TL;DR

This paper explores a flavor symmetry-based Minimal Supersymmetric Standard Model that can simultaneously explain the muon anomalous magnetic moment, satisfy collider constraints, and account for dark matter relic density.

## Contribution

It demonstrates that a specific MSSM variant with distinct third-generation scalar masses can reconcile muon g-2, LHC bounds, and dark matter observations.

## Key findings

- Model accommodates muon g-2 within experimental bounds.
- Model is consistent with LHC collider constraints.
- Model explains observed dark matter relic density.

## Abstract

We investigate whether the Minimal Supersymmetric Standard Model with the scalar masses of the third generation distinct from the first two, in order to be able to accommodate the muon anomalous magnetic moment, is consistent with the latest results from LHCb, direct collider bounds from the ATLAS and CMS experiments. In particular, we show that this class of models allows for satisfying both the constraints from the muon $(g-2)_\mu$ experiment and various bounds from the LHC. In addition, such models can also explain the observed dark matter relic density.