Chronodynamic Quantum Field: The Unified Temporal Field Theory (UTFT) of Fractional-Luminous-Time Layers

Abstract Quantum Chronodynamics (QCD-T): The Unified Temporal Field Theory (UTFT) establishes a comprehensive framework in which time is treated as a fundamental physical field—dynamic, quantized, and geometrically active. Within this chronodynamic architecture, the temporal field mediates interactions among energy, matter, and spacetime, unifying classical gravitation and quantum phenomena through a single field principle. The theory integrates and extends several sub-frameworks—Fractional Chrono-Aging Spacetime (FCAS), Unified Hyperdimensional Chrono Theory (UHCT), Hyperdimensional Time Theory (HTT), Active Time Theory with Composite Internal Structure (ATT-CIS), Theory of Luminous Temporality (TLT), Multi-Layered Time Theory (MLTT), Chronodynamic Lock Theory (CLT), Temporal Direction-Consumption Framework (TDCF), and Temporal Memory Theory – Retrieval and Prediction (TMT-RP)—into a single formal synthesis. Mathematically, UTFT formulates the temporal field T_\mu as a tensor–scalar construct governed by fractional-order differential dynamics that couple to spacetime curvature R_{\mu\nu} via a generalized chronometric potential. The fractional–luminous stratification of time introduces layered scales of temporal density, connecting quantum microstructure with cosmological expansion and gravitational flow. In this view, spacetime emerges as a secondary geometry induced by the evolution of the temporal field itself. Conceptually, Quantum Chronodynamics proposes that temporal flux, not spatial curvature alone, encodes causality, entropy flow, and the arrow of time. The UTFT framework predicts measurable chronodynamic effects—frequency drift in atomic clocks, deviations in gravitational-wave phase propagation, and sub-Planckian temporal noise—that can be probed through precision metrology and photonic-time experiments. By re-casting time as a quantized field with fractional-luminous layers, the theory opens a pathway toward unifying quantum field theory, general relativity, and the informational geometry of reality.