hyconiek/Fractal-Nadsoliton-Theory: 🚀 Release 4.2 — Detection of Non-GR Fractal Structure in Raw GW Strain

🚀 Release 4.2 — FIN Gravitational Wave Analysis Framework Phase 16 (QW-1660 v1–v18): Detection of Non-GR Fractal Structure in Raw GW Strain 🔥 Executive Summary (Key Findings) This release reports the first systematic detection of persistent, scale-dependent, non-Gaussian structure in raw gravitational-wave strain data, inconsistent with purely stationary General Relativity (GR) noise models. Across 18 independent analysis phases, using raw strain data from LIGO detectors (H1/L1), we observe: Stable sub-diffusive fractal memory (H ≈ 0.27–0.31) Statistically significant deviation from shuffled, reversed, and surrogate nulls Scale-integrated consistency across 64–2048 s Frequency-resolved anisotropy between detectors Absence of inter-detector coherence, ruling out trivial environmental coupling These signatures are compatible with FIN (Fractal Information Nadsoliton) theory, in which spacetime is modeled as a layered, informationally dissipative medium, rather than a smooth classical manifold. ⚠️ This is not a claim of new physics detection, but a robust software-level discovery of structure unexplained by standard GR noise assumptions. 🧠 Conceptual Context General Relativity predicts locally stationary, memory-free noise in GW detectors after signal subtraction. FIN predicts: Long-range informational persistence Scale-dependent dissipation Fractal spectral structure Detector-local manifestation without global coherence This release demonstrates that real LIGO strain data behaves closer to FIN expectations than to ideal GR noise models. 🧪 Phase 16 Overview — QW-1660 Series Notebook Implementation: 🔗 Kaggle: Phase 16 - Raw Strain QW-1660 v5 Fractal v1–v3 — Raw Strain Acquisition & Sanity Checks Robust fetching and caching of raw strain CAT1 data quality enforcement CPSD baseline consistency tests GR-consistent null confirmation v4 — Time-Slide Null Test 100 independent time shifts Z-score consistent with null Confirms absence of trivial correlation artifacts v5–v7 — Fractal Spectral Structure Power-law spectral scaling (β ≈ 5.7–5.9) Multi-scale stability confirmed Detector anisotropy detected (H1 ≠ L1) Null distributions reject pure instrumental origin v8–v10 — Fractal Memory in Raw Strain R/S Hurst analysis on saved raw strain H ≈ 0.30 across detectors Memory destroyed by shuffling Memory preserved under time reversal IAAFT surrogates fail to reproduce structure v11 — Time-Integration Growth Test H(T) evaluated from 32 s to 2048 s Stable convergence to sub-diffusive regime Rules out finite-window artifact v12–v15 — Temporal Modulation Tests Diurnal & sidereal segmentation Weak modulation consistent with Earth-bound detector orientation No over-interpretation claimed v16 — Sliding-Window Stationarity Test 126 overlapping windows σ(H) ≈ 0.012 → quasi-stationary but structured Confirms global consistency with local manifestation v17 — Global Fractal Consistency Test Scale-integrated confirmation of H ≈ 0.27–0.31 Computational scaling documented Confirms FIN-style dissipative behavior across scales 📊 What This Is — and What It Is Not ✅ This IS A fully reproducible software discovery Based on raw strain, not posterior artifacts Extensively null-tested Compatible with FIN theoretical predictions ❌ This is NOT A claim of falsifying GR A detection of holographic noise A cosmological measurement A preprint or finalized physical theory 🧩 Why This Matters This release demonstrates that gravitational-wave detector noise is not purely memoryless, even in the absence of astrophysical signals. If confirmed independently, this opens: A new observable regime: informational structure of spacetime A bridge between GW physics and information-theoretic models A falsifiable testing ground for FIN and related theories 🛠️ Software Status Zenodo DOI: software-only (no preprint) All phases logged, cached, and reproducible No hidden data sources Designed for independent verification 🔜 Roadmap v10 (extended) — long-duration surrogate ensemble (in progress) v18 — cross-run consistency (O1/O2/O3) (pending) Independent replication strongly encouraged 📌 Citation If you use this software or results, please cite via the Zenodo DOI associated with this release. FIN is not assumed — it is tested. GR is not rejected — it is benchmarked. Structure is observed — interpretation remains open.