Alternative Formulation of The Quantum Electroweak Theory
Jun-Chen Su

TL;DR
This paper presents a simplified, explicitly renormalizable formulation of the electroweak theory in the SU(2)×U(1) gauge symmetry framework, avoiding the need for the Higgs boson and ensuring unitarity through an α-limiting procedure.
Contribution
It introduces an alternative, simpler formulation of the quantum electroweak theory that is renormalizable and does not require the Higgs boson, using the Lorentz gauge and ghost equations.
Findings
The theory is explicitly renormalizable.
Electroweak theory without Higgs boson is feasible.
Unitarity is maintained via the α-limiting procedure.
Abstract
The quantization of the electroweak theory is performed starting from the Lagrangian given in the so-called unitary gauge in which the unphysical Goldstone fields disappear. In such a Lagrangian, the unphysical longitudinal components of the gauge fields and the residual gauge degrees of freedom are naturally eliminated by introducing the Lorentz gauge condition and the ghost equation. In this way, the quantum theory given in -gauge is perfectly established in the Lagangian formalism by the Faddeev-Popov approach or the Lagrange multiplier method in the framework of SU(2)U(1) gauge symmetry. The theory established is not only simpler than the ordinary Rgauge theory, but also explicitly renormalizable. The unitarity of the S-matrix is ensured by the limiting procedure proposed previously. Especially, it is shown that the electroweak theory without…
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Taxonomy
TopicsAdvanced Thermodynamics and Statistical Mechanics · Quantum Mechanics and Applications · Complex Systems and Time Series Analysis
