A New Supersymmetric Framework for Fermion Masses
arXiv:hep-ph/9512302 · doi:10.1016/0550-3213(96)00226-X
Abstract
Supersymmetric theories involving a spontaneously broken flavor symmetry can solve the flavor-changing problem while having quark and lepton masses derived from both and terms. As an example, a theory of leptons is constructed in which holomorphy constrains the electron to be massless at tree level. The electron flavor symmetries are broken by D terms, leading to flavor mixing in the slepton mass matrices, which allows a radiative electron mass to be generated by the gauge interactions of supersymmetric QED. Such a radiative origin for the electron mass can be probed by searches for , and could be verified or eliminated by measurements of slepton pair production.
Replacing earlier version, correcting some typographical errors
References in corpus (5)
Cited by in corpus (19)
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- Unified Theories with U(2) Flavor Symmetry
- Probing Lepton Flavor Violation at Future Colliders
- Signals of Supersymmetric Lepton Flavor Violation at the LHC
- Exponentially spread dynamical Yukawa couplings from non-perturbative chiral symmetry breaking in the dark sector
- Supersymmetric Framework for a Dynamical Fermion Mass Hierarchy
- Fermion Hierarchy from Sfermion Anarchy
- Phenomenology of flavor-mediated supersymmetry breaking
- A Domino Theory of Flavor
- Axion Protection from Flavor
- Supersymmetry breaking as the origin of flavor
- Flavor ``Conservation'' and Hierarchy in TeV-scale Supersymmetric Standard Model
- Split SUSY Radiates Flavor
- Solving the SUSY CP problem with flavor breaking F-terms
- Radiative mass generation and suppression of supersymmetric contributions to flavor changing processes
- Scale dependence of quark mass matrices in models with flavor symmetries
- Large Top Quark Yukawa Coupling and Horizontal Symmetries
- Relaxing b\to sγConstraints on the Supersymmetric Particle Mass Spectrum
- Higgs Boson Yukawa Form Factors from Supersymmetric Radiative Fermion Masses