Preons, Braid Topology, and Representations of Fundamental Particles
David Chester, Xerxes D. Arsiwalla, and Louis H. Kauffman

TL;DR
This paper explores the mathematical foundations of preon models in particle physics, linking braid topology and Lie algebra representations to better understand the structure and symmetries of fundamental particles.
Contribution
It establishes a detailed mapping between preon models and Lie algebra representations, introducing a new 5-vector model and analyzing CPT symmetry within braid diagrams.
Findings
Braided diagrams represent Lorentz spinors and encode charges and chirality.
Helon diagrams correspond to the $SU(3)_c imes U(1)_{em}$ sector of the standard model.
Self-consistent braid diagrams exhibit CPT invariance.
Abstract
In particle phenomenology, preon models study compositional rules of standard model interactions. In spite of empirical success, mathematical underpinnings of preon models in terms of group representation theory have not been fully worked out. Here, we address this issue while clarifying the relation between different preon models. In particular, we focus on two prominent models: Bilson-Thompson's helon model, and Lambek's 4-vector model. We determine the mapping between helon model particle states and representation theory of Lie algebras. Braided ribbon diagrams of the former represent on-shell states of spinors of the Lorentz group. Braids correspond to chirality, and twists, to charges. We note that this model captures only the sector of the standard model. We then map the twists of helon diagrams to the weight polytope of . The…
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Taxonomy
TopicsAdvanced Mathematical Theories and Applications
