The Rainbow-Omega Framework for the ID Model (v12.0)

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Authors: Naoki S. Kiryu
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Abstract

Abstract We propose the Informational Deviation (ID) Theory, a unified framework that describes fundamental physical constants and forces as geometric consequences of the conflict between the circular constant (pi) and the structural constant (phi, the Golden Ratio). By modeling protons as coupled quantum rotors constrained by a geometric grid, we derive the proton-to-electron mass ratio with high precision, suggesting a purely geometric origin for hadrons. Gravity is reinterpreted as a statistical residue from wave interference and an information density gradient. Gravitational lensing is explained as light refraction due to information density differences, consistent with observations. The theory resolves the Hubble tension through information delay accumulation and unifies microscopic and macroscopic scales without requiring dark matter. 1. Geometric Origin of Mass Standard physics treats particle masses as arbitrary. ID Theory posits that mass arises from rotational degrees of freedom in geometric structures. • Model: The proton is modeled as a set of 5 coupled tetrahedral rotors. • Derivation: The rotational phase space volume scales with pi^5. • Proton-to-electron mass ratio: m_p/m_e ≈ 6*pi^5 • With electromagnetic corrections from the fine-structure constant (alpha), the value matches CODATA (1836.152…) with high accuracy. 2. Gravity as Information Density Gradient Gravity is not a fundamental force but a statistical residue and gradient in information density. • Local scale: Rotors synchronize on a shared grid, creating low-entropy regions (mass). • Cosmic scale: Destructive interference over distances creates high-entropy vacuum pressure. • Weakness of gravity (10^-40): Explained by cancellation factor 1/sqrt(N), where N ≈ 10^80 (observable universe particles). • Gravitational lensing: Light refracts due to information density gradient (low ID near mass, high ID in vacuum). This reproduces Einstein rings, multiple images, and time delays without spacetime curvature. • Hubble tension: Apparent H0 difference (67 vs 73 km/s/Mpc) arises from information delay accumulation in distant light. 3. Digital Physics and Binary Entropy Map The universe operates as a binary information process resolving the conflict between pi (flow) and phi (grid). • State “1” (Matter): Low-entropy synchronized regions. • State “0” (Vacuum/Gravity): High-entropy canceled regions. 4. Geometric Derivations of Constants (Appendices) Appendix A: Fine-Structure Constant alpha^-1 ≈ 360/phi^2 - delta/(5*pi), where delta = 7.356 degrees (tetrahedral packing gap). Error < 0.003%. Appendix B: Proton-Electron Mass Ratio Detailed derivation of 6*pi^5 with surface interaction corrections. Appendix C: Gravitational Lensing as Information Refraction Full explanation of lensing effects via information density gradient, consistent with observations (e.g., Abell clusters, JWST data). Conclusion ID Theory v12.0 provides a geometrically consistent model unifying mass, gravity, and information. All predictions are based on pi, phi, and observed constants. Future work will focus on further observational tests.

Fields of Study & Subjects

Cosmology and Gravitation Theories Dark Matter and Cosmic Phenomena Computational Physics and Python Applications

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
8 January 2026
Document type
Preprint