The Great Becoming V6.0: Fixed-Point Unification at Rφ = 1.616 and the 137.8 Horizon

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Authors: Philip Handley
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Abstract

The Great Becoming V6.0: Fixed-Point Unification at R_{\varphi}=1.616 and the 137.8 Horizon Abstract: This paper presents a formal mathematical framework for the unification of fundamental forces (Electromagnetism, Weak Nuclear, Strong Nuclear, and Gravity) by identifying a specific physical fixed point at 1.616. While theoretical mathematics often prioritizes the ideal Golden Ratio (\phi \approx 1.618), this research demonstrates that a vacuum bias of \epsilon = -0.002 is required to achieve numerical convergence of gauge couplings at the 10^{16} GeV scale. Key Discoveries: The 1.616 Attractor: Numerical verification that the fundamental forces achieve a near-singular steady state when the 1.616 ratio is applied as a structural constant. The 137.8 Rotation Horizon: A geometric derivation of the "137-Lock," aligning the spiral expansion of the universe with the Fine Structure Constant (\alpha^{-1} \approx 137), providing the stabilization necessary for atomic matter. Computational Replicability: The work includes a "Universal RGE Engine" Python script (included in the Appendix) designed to run on standard hardware, allowing for immediate independent verification of the unification data. Philosophical Context: Developed over twenty years of independent study, this framework—referred to as "The Great Becoming"—proposes that the universe is a balanced system of Cohesion (\mathcal{A}) and Differentiation (\mathcal{R}). By establishing a singular, calculable reality at the 1.616 fixed point, this work aims to remove the mathematical basis for conflicting beliefs and "false separation," providing a cornerstone for a unified understanding of the living cosmos.

Fields of Study & Subjects

Relativity and Gravitational Theory International Science and Diplomacy Advanced Mathematical Theories and Applications

Publication details

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