Alternate Gauge Electroweak Model

TL;DR

This paper introduces an alternative gauge electroweak model that incorporates neutrino masses and explains the absence of right-handed neutrinos in weak interactions through a novel scalar function space and modified gauge transformations.

Contribution

It proposes a new gauge theory framework with a scalar function space that accounts for neutrino mass and matter dichotomy, differing from the Standard Model.

Findings

A covariant dipole-mode solution with precessions and nutations on the scalar space.

A mechanism for W boson transitions between coupled and uncoupled matter regions.

An alternative potential Lagrangian density for boson mass generation.

Abstract

We describe an alternate gauge electroweak model that permits neutrinos with mass, and at the same time explains why right-handed neutrinos do not appear in weak interactions. This is a local gauge theory involving a space [V ] of three scalar functions. The standard Lagrangian density for the Yang-Mills field part and Higgs doublet remain invariant. A ma jor change is made in the transformation and corresponding Lagrangian density parts involving the right-handed leptons. A picture involving two types of right-handed leptons emerges. A dichotomy of matter on the [V ] space corresponds to coupled and uncoupled right-handed Leptons. Here, we describe a covariant dipole-mode solution in which the neutral bosons A{\mu} and Z{\mu} produce precessions on [V ]. The W {\pm} {\mu} bosons provide nutations on [V ], and consequently, provide transitions between the coupled and uncoupled regions. To elucidate the [V ] space matter dichotomy, and to generate the boson masses, we also provide an alternate potential Lagrangian density.