Emergent Particle-Like Excitations from Topological Ring Waves, Inter-Substrate Coupling, and Phase Locking

The Standard Model of particle physics and conventional quantum mechanics effectively treat elementary particles as point-like entities with assigned intrinsic invariants (rest mass, charge, spin). Despite its empirical successes, this paradigm faces fundamental conceptual challenges, notably self-energy divergences and the lack of an ontological mechanism for wave-particle duality. Here, we present a wave-first conceptual framework: physical reality is fundamentally a continuous, multi-layered oscillating field substrate. Stable, particle-like phenomena emerge naturally as localized topological ring-waves and vortex nodes governed by resonant phase-locking and inter-substrate (multi-layer/multi-world) coupling. By enforcing a closed-loop phase-consistency condition alongside nonlinear dispersion containment, this model accounts for discrete mass states and localized energy concentrations without requiring point-like singularities.