Harmonic Oscillators and Elementary Particles
Y. Sobouti

TL;DR
This paper explores the analogy between 3D harmonic oscillators and elementary particles, showing how symmetries in oscillators can model particle properties like flavor, color, and spin.
Contribution
It establishes a one-to-one correspondence between oscillator eigenmodes and particle multiplets, providing a novel symmetry-based framework for understanding elementary particles.
Findings
Oscillator eigenmodes correspond to flavor multiplets.
Permutation symmetry models color and anticolor multiplets.
Gluons are represented by oscillator symmetry generators.
Abstract
Two dynamical systems with same symmetry should have features in common, and as far as their shared symmetry is concerned, one may represent the other. The three light quark constituents of the hadrons, a) have an approximate flavor SU(3) symmetry, b) have an exact color SU(3) symmetry, and c) as spin 1/2 particles, have a Lorentz SO(3,1) symmetry. So does a 3D harmonic oscillator. a) Its Hamiltonian has the SU(3) symmetry, breakable if the 3 fundamental modes of oscillation are not identical. b) The 3 directions of oscillation have the permutation symmetry. This enables one to create three copies of unbreakable SU(3) symmetry for each mode of the oscillation, and mimic the color of the elementary particles. And c) The Lagrangian of the 3D oscillator has the SO(3,1) symmetry. This can be employed to accommodate the spin of the particles. In this paper we draw up a one-to-one…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Neutrino Physics Research · Scientific Research and Discoveries
