Towards a unified theory of the fundamental physical interactions based on the underlying geometric structure of the tangent bundle
Joachim Herrmann

TL;DR
This paper proposes a geometric framework based on the tangent bundle with extended little groups of SO(3,1) as a gauge group to unify all fundamental interactions, explaining phenomena like fractional charge quantization and quark confinement.
Contribution
It introduces a novel geometric approach using the tangent bundle to unify fundamental interactions and explains emergent symmetries and confinement phenomena.
Findings
Emergent SU(3) color symmetry in the tangent bundle
Explanation of fractional charge quantization of quarks
Prediction of quark confinement as a large-scale Chern-Simons field property
Abstract
This paper pursues the hypothesis that the tangent bundle (TB) with the central extended little groups of the SO(3,1) group as gauge group is the underlying geometric structure for a unified theory of the fundamental physical interactions. Based on this hypothesis as a first step recently I presented a generalized theory of electroweak interaction which includes hypothetical dark matter particles (Eur. Phys. J C 79, 779 (2019). The vertical Laplacian of the tangent bundle possesses the same form as the Hamiltonian of a 2D semiconductor quantum Hall system. This explains fractional charge quantization of quarks and the existence of lepton and quark families. As will be shown the SU(3) colour symmetry for strong interaction arises in the TB as an emergent symmetry similar as Chern-Simon gauge symmetries in quantum Hall systems. This predicts a signature of quark confinement as an…
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Taxonomy
TopicsQuantum, superfluid, helium dynamics · Atomic and Subatomic Physics Research · Dark Matter and Cosmic Phenomena
