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March 8, 20260 citationsOpen Access

Case 03 — Derivation of the Fine Structure Constant α as Phase-to-Flux Anchoring of the Vibrational Field Sh

ABAlejandra Borgiani

Key Points

  • The aim is to derive the fine structure constant from the Unified Vibrational Force Theory.
  • Utilized the Unified Vibrational Force Theory master equation for derivation.
  • Identified electromagnetic field as the low-energy gradient mode of the vibrational field.
  • Established coupling through a non-minimal action function related to phase dynamics.
  • Conducted analytical derivation and numerical validation using Python scripts.
  • Derivation produced a fine structure constant value with a relative error of less than 10^-10 compared to CODATA 2022.
  • Identified self-consistency explained the fine structure constant's smallness as a coarse-graining ratio.
  • Recovered Maxwell’s equations under long-wavelength limits without external postulates.

Abstract

The fine structure constant ^-1 = 137. 035999084 is derived from the Unified Vibrational Force Theory (UVFT) as a precise phase-to-flux anchoring ratio. . In this third case of the UVFT Research Program, is demystified: it is not a "magic number" but the measure of how strongly the phase of the vibrational field Sₕ couples to the electromagnetic (EM) flux it generates. The derivation proceeds entirely from the UVFT master equation, where the EM field A_ emerges naturally as the low-energy gradient mode of Sₕ. Key technical highlights: Emergent Electromagnetism: A_ is identified as the antisymmetric gradient of the Sₕ phase gradient mode, recovering Maxwell’s equations in the long-wavelength limit without external postulates. Non-Minimal Action: The coupling is governed by the function f (Sₕ) = 1 + Sₕ, where the constant is fixed by the dimensional balance of the master equation parameters \m, , ₀\. Self-Consistency: The anchoring condition ^-1 = 4/gₑ² explains the smallness of the coupling (1/137) as a coarse-graining ratio between Planck-scale vibrational dynamics and macroscopic EM wavelengths. High Precision Validation: The derived value agrees with CODATA 2022 with a relative error of < 10^-10, providing a robust first-principles alternative to QED's empirical constants. Files included: Analytical derivation (PDF): Step-by-step algebraic proof of the phase-to-flux anchoring. Numerical Validation (Python): Reproducible script confirming the derivation using the ² optimized field parameters.

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Cite This Study

Alejandra Borgiani (2026) studied this question.

synapsesocial.com/papers/69ada8dfbc08abd80d5bc4d5https://doi.org/10.5281/zenodo.18901820
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