Empirical Isolation of Low-Frequency Metric Fluctuations and Concetric Atomic Resonance inside GW170817 Continuum

This paper presents an empirical analysis of raw gravitational wave strain data from the Hanford (H1) and Livingston (L1) interferometers during the hypernova event GW170817 [2.2]. By implementing a high-pass filter constraint coupled with a scaling factor (Λ = 9.61), we isolate a persistent metric resonance at the sub-Hz boundary, specifically sintonized at 0.11 Hz [2.2]. A discrete time-slice analysis (steps of 0.1 seconds) reveals a sharp transverse phase disruption—termed a metric hiatus—at t = -0.1s before coalescence [2.2]. This structural decoupling suggests that the collapsing event boundary transitions into an oscillating membrane rather than a singular point density. Furthermore, applying a Green’s Response Function mapping to the inertia of heavy atomic nuclei forged post-explosion (Fe, Au, Pb) demonstrates a stable, linear coherence index profile. The results indicate that the internal fabric of the newly formed compact object retains a structured geometric memory of its material precursors, shifting the paradigm towards mechanical metric sintonization.