Asymptotically Free Yang-Mills Classical Mechanics with Self-Linked Orbits
M Luebcke, A.J. Niemi, K. Torokoff

TL;DR
This paper introduces a classical mechanics Hamiltonian model that mimics key features of Yang-Mills theory, including asymptotic freedom and topologically complex orbits, providing insights into nonperturbative phenomena.
Contribution
It constructs a classical Hamiltonian exhibiting symmetry breaking, dimensional transmutation, and self-similarity aligned with Yang-Mills theory, with stable, topologically knotted periodic orbits.
Findings
Supports stable periodic orbits with nontrivial topology
Replicates the beta-function behavior of Yang-Mills theory
Demonstrates classical analogs of quantum phenomena
Abstract
We construct a classical mechanics Hamiltonian which exhibits spontaneous symmetry breaking akin the Coleman-Weinberg mechanism, dimensional transmutation, and asymptotically free self-similarity congruent with the beta-function of four dimensional Yang-Mills theory. Its classical equations of motion support stable periodic orbits and in a three dimensional projection these orbits are self-linked into topologically nontrivial, toroidal knots.
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