Quantum construction of a unitary SU(2/1) model of the electro-weak interactions with 2 Higgs doublets
Jean Thierry-Mieg

TL;DR
This paper develops a quantum SU(2/1) superalgebra model for electroweak interactions, incorporating two Higgs doublets, ensuring unitarity, and providing a geometric interpretation, while predicting Higgs masses without additional particles.
Contribution
It introduces a unitary SU(2/1) superalgebra framework with two Higgs doublets for electroweak interactions, resolving unitarity issues and predicting Higgs masses without extra particles.
Findings
The model maintains unitarity through fermion loop contributions.
Photon remains massless after symmetry breaking.
Higgs mass sum is constrained to approximately 107.2 GeV.
Abstract
The interactions and even the number of the Higgs scalar fields are not fixed in the SU(2)U(1) standard model of the electro-weak interactions and the intrinsically chiral nature of the weak interactions is not explained. Embedding SU(2)U(1) into the Lie super-algebra SU(2/1) fills these gaps. The 2 smallest representations of SU(2/1) adequately describe the electron, neutrino, up and down quarks and correlate their chiralities with their U(1) charges, and the Higgs fields have the quantum numbers of the odd generators. But so far, there was an apparent conflict with unitarity, because the quark representation is not Hermitian and the super-Killing metric is not positive definite. We solve this paradox by assuming the existence of 2 complex Higgs doublets minimally coupled to the Fermions via the chiral projections of the odd generators of SU(2/1). We find that Lagrangian induced by the…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Neutrino Physics Research · Quantum Chromodynamics and Particle Interactions
