Fundamental Conceptual UCL Ontology
Abstract
This work presents a conceptual clarification of a conditional correlational ontology for fundamental physics. The framework is motivated by the observation that many foundational difficulties—most notably the problem of time—arise from treating representational structures as ontologically primitive. We argue that correlation, rather than objects, events, spacetime, or information, constitutes the minimal physically meaningful primitive. Within this view, sites are introduced solely as indexing devices, not as physical entities, and the correlational ``lattice'' is understood as a conditional effective structure rather than a fundamental network. Time is shown to emerge only under specific structural conditions, when internal parameters become sufficiently connected, stable, and synchronizable to support ordering and irreversible coarse-grained behavior. Temporal description is thus neither universal nor automatic, but regime-dependent. This conceptual framework is fully consistent with existing correlational and UCL-based approaches. It does not modify their mathematical structure or physical claims, but clarifies their ontological status and prevents misinterpretation. By separating minimal ontology from effective representation, the framework provides a coherent foundation for emergent physics while remaining agnostic about deeper algebraic or informational descriptions.
Fields of Study & Subjects
Origins and Evolution of Life
Quantum Mechanics and Applications
Quantum many-body systems
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 8 January 2026