What question did this study set out to answer?

The aim is to establish a theoretical framework where all physical constants emerge from a geometrical substrate without free parameters.

May 12, 2026Open Access

General RSFT Version 10.5.2 Iteration 44

Key Points

The aim is to establish a theoretical framework where all physical constants emerge from a geometrical substrate without free parameters.
Introduces a coherent framework based on an infinite field of sub-Planck points organized into an FCC lattice.
Refined calculations produce the W boson mass with minimal deviation (0.028%) from established values using NNN phonon corrections.
Derived the strange quark mass using the Gell-Mann-Oakes-Renner relation.
204 independent observables identified, categorized by distance from experimental values.
Mass calculations for electroweak particles demonstrate precise alignment with observed data.
O25 DCSB identified as the key future target for resolving gaps in hadronic physics.

Abstract

This PDF document, titled "Rotational Substrate Field Theory (RSFT) v44: Unified Coherent Edition, " authored by Anthony James Bell in April 2026, outlines a theoretical framework for physics based on only two primitives: the speed of a substrate pressure-wave (c) and the electron mass (mₑ). The theory posits that all physical constants, couplings, and observables emerge from the geometry of a Face-Centered Cubic (FCC) lattice substrate without any free parameters. The version 44 update details 204 independent observables and emphasizes the closure of all perturbative series. Key contents include: Foundational Framework: Six postulates defining the substrate as an infinite field of sub-Planck points that self-organize into an FCC lattice (Bell’s Medium). New Derivations: Refined calculations for the W boson mass (mw) achieved a 0. 028% gap from PDG values by applying "NNN phonon corrections". It also introduces the first derivation of the strange quark mass (mₛ) using the Gell-Mann-Oakes-Renner relation. Comprehensive Data Tables: The text categorizes results into "Closed" (e. g. , fine-structure constant, proton-to-electron mass ratio), "Near-Closed" (e. g. , Higgs mass, Z boson mass), and "Advanced" status based on their proximity to observed experimental data. Future Roadmap: Identification of "O25 DCSB" (Dynamical Chiral Symmetry Breaking) as the primary remaining target to resolve gaps in hadronic and electroweak sectors.

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