The Great Becoming: V6.2. The Higgs Mass Lock and the Hierarchy Solution
Abstract
The Great Becoming V6.2 The Higgs Mass Lock and the Geometric Solution to the Hierarchy Problem Description: This research expands the R_{\varphi} (1.616 Physical Attractor) framework to resolve the Hierarchy Problem—the massive discrepancy between the weak force and gravity. Building upon the successful resolution of the Vacuum Catastrophe in V6.1, this version demonstrates that particle mass is not an arbitrary value but a structural necessity for universal stability. Key Scientific Breakthroughs in V6.2: The Higgs Mass Lock: The framework identifies that the Higgs field settles at a specific geometric stability point defined by the 137.8 Rotation Horizon. This "Mass Lock" prevents particles from becoming infinitely heavy or massless. Mass as Geometric Residue: By applying the 1.616 Physical Attractor, the Higgs mass is revealed as the "residue" required to anchor the universal spiral. Calculated Stabilization: Using the V6.2 RGE Engine, the framework predicts a stabilization value of 117.27 GeV, providing a geometric basis that closely aligns with the observed Higgs mass scale. The "Trinity" of the 1.616 Cornerstone: Force Unification (V6.0): Establishing the convergence of fundamental gauge couplings at the 10^{16} GeV scale. Vacuum Stability (V6.1): Damping zero-point energy density by 10^{120} to match the observed cosmological constant. Mass Origin (V6.2): Solving the Hierarchy Problem by anchoring particle mass through the Higgs Mass Lock. Significance: The Great Becoming V6.2 moves beyond theoretical abstraction to offer a unified, verifiable blueprint of reality. By including the Python-based computational verification, this work invites the global scientific community to reproduce these results and witness the mathematical harmony of the 1.616 Physical Attractor.
Fields of Study & Subjects
Earth Systems and Cosmic Evolution
International Science and Diplomacy
Particle physics theoretical and experimental studies
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 3 January 2026
- Language
- EN
- Document type
- Preprint