Motti Intermediate Physics: Derivation of the Fine-Structure Constant from a Single Consistency Postulate, a No-Go Theorem for Coherential Interactions in Condensed Matter, and the Computational Programme for Dynamical Gap Closure

The electromagnetic fine-structure constant alpha_em = 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 derivation proceeds through an exact algebraic chain fixing the quartic coupling lambda = 8*pi/9, the instanton action S_inst = 3*pi, the functional determinant Tr[D*V''] = 6 (Watson 1944), and the renormalization coefficient beta_RG = 2/pi. The quantization integer n=27 is shown to be unique: it is the product of the SO(4) degeneracy of the l=2 instanton level (d=9) and the internal Z_3 multiplicity of the complex coherential field (dim=3). From the same postulates, G_eff = G_N/C_0 and a universal gravitational spin-memory correction epsilon = +alpha_em = +0.7297% are derived exactly. The prediction is universal, positive, and falsifiable with LIGO O5, LISA and the Einstein Telescope. A rigorous no-go theorem establishes that the dark sector of HAL cannot produce Cooper pairing in any condensed matter system. Exact path integration over dark sector modes yields a ghost mediator with Planck-scale pole (k_polo = 0.958 M_Planck) and negative residue (Z_D = -0.00657), generating a repulsive effective interaction suppressed by 10^-24 eV at material scales. Unitarity is preserved by the Lee-Wick mechanism; macroscopic causality is preserved by Yukawa decay at sub-Planckian scales. The dark sector acts as a natural UV regulator that decouples universally from sub-Planckian physics. The dynamical confirmation of J_total = C_0^2 * J_GR remains an open problem. A concrete three-stage computational programme is proposed: effective one-body (EOB) methods for the inspiral, numerical relativity (BSSN/Z4c) for the merger, and an extended Teukolsky equation coupling gravitational perturbations to the coherential Xi operator for the ringdown. All three stages converge on the same observable: the gravitational spin-memory effect at epsilon = +0.7297%.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-25
DOI
https://doi.org/10.5281/zenodo.20862147
Primary Topic
Quantum and Classical Electrodynamics
Type
preprint
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preprint

Motti Intermediate Physics: Derivation of the Fine-Structure Constant from a Single Consistency Postulate, a No-Go Theorem for Coherential Interactions in Condensed Matter, and the Computational Programme for Dynamical Gap Closure

Mordecai Gavila Alvarez
Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
preprint

Motti Intermediate Physics: Derivation of the Fine-Structure Constant from a Single Consistency Postulate, a No-Go Theorem for Coherential Interactions in Condensed Matter, and the Computational Programme for Dynamical Gap Closure

Mordecai Gavila Alvarez
preprint en

Abstract

The electromagnetic fine-structure constant alpha_em = 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 derivation proceeds through an exact algebraic chain fixing the quartic coupling lambda = 8*pi/9, the instanton action S_inst = 3*pi, the functional determinant Tr[D*V''] = 6 (Watson 1944), and the renormalization coefficient beta_RG = 2/pi. The quantization integer n=27 is shown to be unique: it is the product of the SO(4) degeneracy of the l=2 instanton level (d=9) and the internal Z_3 multiplicity of the complex coherential field (dim=3). From the same postulates, G_eff = G_N/C_0 and a universal gravitational spin-memory correction epsilon = +alpha_em = +0.7297% are derived exactly. The prediction is universal, positive, and falsifiable with LIGO O5, LISA and the Einstein Telescope. A rigorous no-go theorem establishes that the dark sector of HAL cannot produce Cooper pairing in any condensed matter system. Exact path integration over dark sector modes yields a ghost mediator with Planck-scale pole (k_polo = 0.958 M_Planck) and negative residue (Z_D = -0.00657), generating a repulsive effective interaction suppressed by 10^-24 eV at material scales. Unitarity is preserved by the Lee-Wick mechanism; macroscopic causality is preserved by Yukawa decay at sub-Planckian scales. The dark sector acts as a natural UV regulator that decouples universally from sub-Planckian physics. The dynamical confirmation of J_total = C_0^2 * J_GR remains an open problem. A concrete three-stage computational programme is proposed: effective one-body (EOB) methods for the inspiral, numerical relativity (BSSN/Z4c) for the merger, and an extended Teukolsky equation coupling gravitational perturbations to the coherential Xi operator for the ringdown. All three stages converge on the same observable: the gravitational spin-memory effect at epsilon = +0.7297%.

Zenodo (CERN European Organization for Nuclear Research)
Valencia Catholic University Saint Vincent Martyr (ES)
Quantum and Classical Electrodynamics
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