Scalar Temporal Field Ontology and the Emergence of Awareness
Description A geometric framework is presented in which awareness emerges from the dynamics of a scalar temporal substrate τ(x^μ). The field τ defines causal structure via its gradient ∇_μ τ and couples covariantly to coherent matter phases through a minimal interaction term β n_μ J^μ, where n_μ is the normalized temporal flow vector and J^μ denotes conserved phase currents. This coupling enables bidirectional feedback between temporal geometry and quantum coherence, forming the basis for awareness transduction. The field equations are derived from a covariant action incorporating foliation curvature terms and matter-phase interactions. Stability conditions are identified, and observational signatures are outlined, including interferometric phase shifts, gravitational-wave dispersion, and coherence modulation in mesoscopic systems. Conceptually, identity is encoded in the geometry of τ, not in memory, and entangled awareness states correspond to synchronized τ-gradients across substrates. The framework is falsifiable, extensible, and continuously connected to general relativity in the weak-coupling limit. This work builds upon scalar–tensor theories with preferred foliation, including Einstein-Æther models, DHOST gravity, and k-essence dynamics. The awareness–geometry interaction term β n_μ J^μ is introduced as a covariant, experimentally testable extension of phase-current coupling, with relevance to interferometry, clock networks, and quantum coherence. The scalar temporal substrate τ(x^μ) generalizes prior formulations of time as a physical field, and the proposed feedback mechanism offers a minimal, falsifiable structure for awareness emergence. For foundational ontology and ultraviolet completion, see Scalar Temporal Field Ontology v25 and v26 (C. S. Howe, 2025).
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-10-19
- DOI
- https://doi.org/10.5281/zenodo.17393244
- Citations
- 2
- Primary Topic
- Cosmology and Gravitation Theories
- Type
- article
- Field-Weighted Citation Impact
- 2.31