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The research investigates a minimal inverse seesaw model to explain neutrino mass and mixing properties.

Neutrino mass and mixing, resonant leptogenesis and charged lepton flavor violation in a minimal inverse seesaw model with S₄ symmetry

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The random trial reveals neutrino mass predictions and flavor violation in a minimal model, suggesting significant implications for cosmology.

The research investigates a minimal inverse seesaw model to explain neutrino mass and mixing properties.
Developed a model based on S4 symmetry for Majorana neutrinos
Analyzed parameters for neutrino oscillation and baryon asymmetry
Predicted charged lepton flavor violation outcomes
Model favors normal neutrino mass ordering with a higher octant for θ23.
Predicted sum of neutrino masses is approximately 58.98 meV.
Effective Majorana neutrino mass estimated at 6.2 meV, aligning with experimental observations.

Vien et al. (2026) studied this question.

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View Full Paper

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Authors

The random trial reveals neutrino mass predictions and flavor violation in a minimal model, suggesting significant implications for cosmology.

The research investigates a minimal inverse seesaw model to explain neutrino mass and mixing properties.
Developed a model based on S4 symmetry for Majorana neutrinos
Analyzed parameters for neutrino oscillation and baryon asymmetry
Predicted charged lepton flavor violation outcomes
Model favors normal neutrino mass ordering with a higher octant for θ23.
Predicted sum of neutrino masses is approximately 58.98 meV.
Effective Majorana neutrino mass estimated at 6.2 meV, aligning with experimental observations.

Vien et al. (2026) studied this question.

View Full Paper

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