Emptying the Particle Zoo: A Structural Ontology of Matter

Abstract

The Standard Model provides an exceptionally successful empirical framework for particle physics, yet it remains a catalog rather than a generative ontology. It enumerates particles, families, charges, and interactions without explaining why these structures exist or why their symmetries take the forms they do. This paper introduces a structural alternative in which matter arises as operator‑stable excitations of a generative architecture. Operators—defined as transformations governing availability, bandwidth, invariance, and dimensionality—replace particles as the fundamental primitives. Mass, charge, spin, interaction strengths, and symmetry groups emerge as structural consequences of operator constraints rather than intrinsic properties. Dimensionality is treated as a dynamic stability condition of the operator ecology, with curvature, confinement, and field behavior arising from its contraction or expansion. The Standard Model’s families, generations, coupling constants, and interaction ranges are shown to emerge naturally from operator structure. The framework yields testable predictions involving dimensionality reduction, bandwidth‑dependent coupling variation, structural mass ratios, neutrino behavior, and confinement thresholds. This establishes a generative ontology for matter and interaction, replacing enumeration with structure and providing a unified foundation for physical theory.