Emergent Spatial Structure
Abstract
Spatial structure is derived as an emergent, regime-dependent feature within a minimal correlational framework that postulates no fundamental entities, localization, geometry, or spacetime. Physical reality is described as an open correlational structure accessed exclusively through admissible projections that restrict and reorganize descriptive information. We show that the correlational substrate and its canonical response are intrinsically non-spatial. No notion of position, distance, dimension, or locality is defined at the fundamental level. Spatial relations arise only when projections induce stable relational organization among correlational perturbations. Effective distances, dimensionality, and metric structure are identified as projection-dependent relational constructs satisfying persistence conditions under admissible perturbations. Spatial metrics are shown to emerge as stable relational patterns rather than as fundamental geometrical objects. Locality, symmetry, and isotropy appear as artifacts of specific classes of projections and need not be universally applicable across physical regimes. Static spatial regimes are shown to admit well-defined physical structure without invoking time or dynamical geometry. This framework resolves the status of space without circularity and reinterprets spatial notions as emergent features of descriptive access. Space is neither fundamental nor universally required, but a structurally necessary consequence of stable relational organization within specific physical regimes.
Fields of Study & Subjects
Noncommutative and Quantum Gravity Theories
Relativity and Gravitational Theory
Philosophy and Theoretical Science
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 7 February 2026