Naturally Self-Tuned Low Mass Composite Scalars
Abstract
Scalar bosons composed of a pair of chiral fermions in a non-confining potential have an effective Yukawa coupling, , to free external chiral fermions. At large distance a Feynman loop of external fermions generates a scale invariant potential, , which acts on valence fermions for separation . This generally forces the -wave ground state to deform to a static, zero mass, configuration, and for slowly running, perturbative , a large external "shroud" wave-function forms. This is related to old results of Landau and Lifshitz in quantum mechanics. The massless composite scalar boson ground state is then an extended object. Infra-red effects can generate a small mass for the system. This points to a perturbative BEH-boson composed of top and anti-top quarks and a novel dynamical mechanism for spontaneous electroweak symmetry breaking.
Cite
@article{arxiv.2201.04478,
title = {Naturally Self-Tuned Low Mass Composite Scalars},
author = {Christopher T. Hill},
journal= {arXiv preprint arXiv:2201.04478},
year = {2022}
}
Comments
16 pages, 4 figures; we correct a normalization error and establish the equivalence of the critical coupling in the NJL model with that of the Landau-Lifshitz solutions; several other corrections, elaborations and tweaks