Charge-changing weak interactions for right-handed particles in the Standard Model
J.D. Franson

TL;DR
This paper explores the theoretical possibility of charge-changing weak interactions for right-handed particles within the Standard Model, especially for heavy fermions like the top quark, due to the quantization of the W boson field.
Contribution
It reveals that the Standard Model predicts significant right-handed weak interactions for heavy fermions and proposes an alternative quantization method to address divergences in the W boson propagator.
Findings
Standard Model predicts right-handed interactions for heavy fermions.
An alternative quantization approach can eliminate divergences.
High-energy experiments are needed to test these predictions.
Abstract
Experiments have shown that the charge-changing weak interaction is purely left-handed, which is taken into account in the Standard Model by the inclusion of a left-handed projection operator in the Lagrangian. Nevertheless, it will be shown here that the Standard Model predicts charge-changing weak interactions for right-handed fermions that can be larger than those for left-handed fermions if the mass is sufficiently large, as is the case for the top quark. Here we are using the conventional terminology in which a massive fermion with its spin parallel to its momentum is referred to as being right-handed in the relativistic limit, where it is in an approximate eigenstate of the chirality operator. These effects are due to the way in which the field of the W boson is quantized, which gives a divergent tensor product in the Feynman propagator in the unitary gauge. It will be shown that…
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Taxonomy
TopicsQuantum Mechanics and Applications · Cold Atom Physics and Bose-Einstein Condensates · Opinion Dynamics and Social Influence
