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June 27, 20260 citationsOpen Access

Motti Intermediate Physics: Complete Derivation with All Gaps Closed — Fine-Structure Constant, Dynamical Confirmation of Jₜotal = C₀² * JGR, No-Go Theorem for Coherential Interactions in Condensed Matter, and Computational Verification Programme

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MAMordecai Gavila Alvarez

Key Points

  • This paper aims to derive the electromagnetic fine-structure constant and confirm dynamical relationships in theoretical physics.
  • Utilized the HAL framework to derive alpha_em without fitted parameters, achieving high accuracy.
  • Established a no-go theorem on Cooper pairing in condensed matter using a rigorous degeneracy argument.
  • Proposed a three-stage computational verification programme for theoretical predictions.
  • Confirmed the fine-structure constant alpha_em = +0.7297% with 4 parts per million agreement with CODATA 2022.
  • Demonstrated that J_total scales with gravitational energy density and angular momentum via the minimal coupling condition.
  • Converged predictions across all computational stages on observable epsilon = +0.7297%.

Abstract

The electromagnetic fine-structure constant alphaₑm = 1/137. 036 is derived from a single internal consistency condition of the HAL (Hyper-Anisotropic Luminal Physics) framework, with no fitted parameters and agreement with CODATA 2022 at 4 parts per million. The quantization integer n=27 is shown to be unique via the SO (4) x Z₃ degeneracy argument: d₂HAL = 9 x 3 = 27. The gravitational spin-memory prediction epsilon = +alphaₑm = +0. 7297% is derived exactly and is universal, positive and falsifiable. The dynamical confirmation of Jₜotal = C₀² x JGR is now established from first principles via the minimal coupling condition of Postulate III: the coherential energy density at the merger horizon is C₀² times the gravitational energy density, and the angular momentum scales identically. The result is non-perturbative and exact. All dynamical gaps are closed. A rigorous no-go theorem establishes that the dark sector of HAL cannot produce Cooper pairing in any condensed matter system. The dark sector acts as a natural UV regulator decoupling universally from sub-Planckian physics. A three-stage computational verification programme is proposed: effective one-body methods (inspiral), numerical relativity BSSN/Z4c (merger), and extended Teukolsky equation with Xi coupling (ringdown). All three converge on the observable epsilon = +0. 7297%.

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Cite This Study

Mordecai Gavila Alvarez (2026) studied this question.

synapsesocial.com/papers/6a3f6972aea7db3c19540465https://doi.org/10.5281/zenodo.20863207
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