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May 8, 20260 citationsOpen Access

General RSFT Version 10.5.2 Iteration 39

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ABAnthony Bell

Key Points

  • The aim is to unify physics using Rotational Substrate Field Theory with two core parameters: substrate wave speed and electron mass.
  • Introduced six new derivations in RSFT v39, leveraging FCC lattice geometry.
  • Updated Higgs mass, proton magnetic moment, W boson width, CKM observables, and solar neutrino mass splitting.
  • Categorized 175 observables by their experimental proximity with an accompanying status table.
  • Solar neutrino mass splitting identified with a 0.255% observational gap reduction.
  • Higgs mass derivation completed with a three-loop quartic self-coupling correction.
  • Notable 'CLOSED' results include the fine-structure constant and exact CP problem solution.

Abstract

Description of RSFT Unified Coherent Edition v39 This document outlines the Rotational Substrate Field Theory (RSFT), a theoretical framework founded by Anthony James Bell that aims to unify physics using only two primitives: the substrate wave speed (c) and the electron mass (mₑ). Operating under the principle of zero free parameters, the theory derives 175 independent observables from first principles, primarily utilizing the geometry of a self-organizing Face-Centered Cubic (FCC) lattice. The v39 edition introduces six new derivations that bridge gaps in previous versions: Higgs Mass (mH): Completes the perturbative series with a three-loop quartic self-coupling correction. Proton Magnetic Moment (ₚ): Incorporates an FCC 100 torsion correction. W Boson Width (W): Refines the value using NNN Bell's Medium (BM) phonon self-energy. CKM Observables: Updates the Cabibbo Angle (₁₂) and CP-violation phase (₂₏) through BM phonon dressing and torsion contributions. Solar Neutrino Mass Splitting (m²ₒ₎₋): Identified as the standout result of v39, this derivation uses Wigner-Seitz cell geometry to reduce the observational gap to 0. 255%. The file includes a comprehensive registry of Open Problems and a status table for all 175 observables, categorized by their proximity to experimental data (e. g. , CLOSED, NEAR-CLOSED, or ADVANCED). Notable "CLOSED" results include the fine-structure constant (1/₄₌), proton-to-electron mass ratio (Mₚ/mₑ), and the exact solution for the strong CP problem (ₐ₂₃).

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Cite This Study

Anthony Bell (2026) studied this question.

synapsesocial.com/papers/69fd8021bfa21ec5bbf087d0https://doi.org/10.5281/zenodo.20041273
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