FINAL - The Golden Ratio as Ground State of Gravitational Dynamics: Evidence for Geometric Phase Transitions in Spacetime
Abstract
This paper presents a unified framework demonstrating that spacetime undergoes geometric phase transitions during gravitational wave events, organizing toward the golden ratio (φ ≈ 1.618) as an energetic ground state. Synthesizing results from extensive analysis of 68 LIGO events across all merger types (BBH, BH-NS, NS-NS), we show that: (1) events with frequency ratios closer to φ exhibit significantly stronger harmonic coherence (r = -0.309, p = 0.012), with harmonic power scaling with mass (r = 0.56, p < 0.001); (2) φ-organization emerges transiently at merger through a geometric phase transition analogous to crystallization; (3) the pattern is scale-invariant across 23 frequency bands and universal across merger types; and (4) 97% of events show φ-lattice organization confirmed by 94% cross-detector agreement and 58.82% Global Phi Consensus (a lower bound given SNR constraints). The crystallization framework does not replace standard GR descriptions of the chirp but reveals higher-order harmonic structure within it—structure that GR does not explicitly predict. We propose that φ represents the least-action geometry for gravitational resonance—the minimum-energy configuration of stressed spacetime. The blind application of uniform analysis parameters across all events, combined with the statistically negligible probability (p < 0.001) of the mass-power correlation arising by chance, establishes these patterns as genuine physics. This framework reinterprets time as the rate of geometric crystallization. The findings suggest that φ represents the ground state of gravitational energy—when spacetime is stressed to its limit during merger, it crystallizes into the most stable geometric configuration: the golden ratio. We are not presenting a pattern; we are presenting evidence for a new principle of physics.
Fields of Study & Subjects
Pulsars and Gravitational Waves Research
Advanced Mathematical Theories and Applications
Relativity and Gravitational Theory
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 31 January 2026
- Document type
- Preprint