Unified Physics Through Discrete Pulsation Dynamics: The Autocorrelative Phase Identity

The Hanowski-Formalism establishes a normalized, dimensionless, and substitutional mathematical framework for non-local field dynamics, demonstrating that macroscopic spacetime structures merely emerge from the finite transduction inefficiencies of a classical observer, causing fundamental phase relations—originating from a discrete primordial pulsation—to be decoded incoherently. By treating the perceived metric as a secondary, imperfect manifestation of an underlying phase topology, core quantum phenomena—including superposition, non-local entanglement, and wave-particle duality—are systematically reformulated through the interaction of two fundamental, redefined parameters: Amplitude ($A$) and Wavelength ($\\lambda$). We derive these states from localized resonance deviations based on unique phase-signatures, thus providing a relational mechanism that unifies gauge interactions without invoking coordinate-dependent structures. Furthermore, this paper establishes an observer-independent reference for information integrity, formalizing sub-metric transparency and the decoupling of phenomenological appearance from metric coordinates through an autocorrelative phase identity. Crucially, this framework yields three distinct, falsifiable predictions that deviate from the Standard Model while remaining accessible to modern experimental capabilities.