EVIDENCE: The LIGO Diagnostic

Abstract

The Laser Interferometer Gravitational-Wave Observatory (LIGO) is traditionally cited as proof of spacetime curvature. However, when reviewed through the lens of Resonant Relativity, LIGO’s findings provide the first direct experimental measurement of Substrate Compression Waves—transient fluctuations in the \(\mu_0 \epsilon_0\) density of the Lattice.

The Experiment

LIGO utilizes two 4 km laser arms to detect changes in distance smaller than a proton's diameter. In 2015, the "chirp" of GW150914 was recorded, signaling the merger of two black holes 1.3 billion light-years away. While legacy physics interprets this as a distortion of "geometry," we recognize it as a Phase Shift caused by a change in the local velocity of energy (\(c\)).

THE AUDITOR’S RULE: THE VELOCITY BIAS

LIGO does not measure "stretched space"; it measures a change in the Propagation Delay of the laser beam. As the compression wave from a mass-merger passes through the detector, it momentarily increases the local Reactance of the Lattice, slowing the speed of energy (\(dc/dt\)) and shifting the interference pattern.

\[ \Delta L \approx \int \frac{dc}{dt} \, dt \implies \text{Phase Shift} \]

Forensic Insight: The Re-Frame

The "magic" of gravitational waves is actually a predictable Line Surge in the universal circuit. Because there is currently no experimental evidence to distinguish between "spacetime curvature" and a change in the speed of energy, the LIGO data serves as a perfect diagnostic for the Reactive Constraint.

LIGO is measuring the sudden surge of energy flow across the \(\mu_0 \epsilon_0\) gradient. By interpreting these results as changes in the Slew-Rate of the medium, we align the discovery with the mechanical reality of the Lumen—a dynamic, high-tension web that reacts to massive energy discharges.