The Dual-Phase Active Vacuum Hypothesis: A New Mechanism for Time Dilation and Particle Localization

This paper introduces a novel physical framework that reinterprets space-time as an active, two-phase vacuum medium. Departing from the purely metric description of General Relativity, the proposed model defines the rate of proper time (τ) as a dynamic function of vacuum phase densities: the localizing Higgs-like phase (φ) and the delocalizing neutrino-based phase (n). The fundamental equation dτ = dt√(1 + αφ² − βn) is presented as a unifying bridge between gravitational effects and quantum vacuum states. The hypothesis provides physical mechanisms for several phenomena: Inertia and Mass: interpreted as the viscous resistance of the vacuum to the reconfiguration of resonant nodes (particles). Radiation: defined as a direct relational transaction between source and absorber, eliminating the concept of a "traveling photon" and explaining the invariance of the speed of light as a vacuum substrate property. Magnetism and Spin: modeled as mechanical coupling of phase vortices ("gear-reduction effect"). Furthermore, the paper proposes testable predictions (falsifiability), including non-metric time dilation at gravitational Lagrange points (L1, L2) and an M2 scaling law for black hole evaporation. This framework suggests a path toward resolving the singularity problem and offers a mechanism for the observed accelerated expansion of the Universe without the need for external Dark Energy.