Closed-Form Dual-Attractor Predictions for Fine Structure Metrology Splits, Muonium Spectroscopy, Anomalous Magnetic Moments, and Neutron Decay Anomalies
Year: 2026
Type: preprint
Abstract: Standard electroweak and QED frameworks rely on empirically measured coupling constants, perturbative renormalization, and speculative dark-sector extensions to reconcile precision anomalies across lepton magnetic moments (g-2), atomic fine-structure interferometry, and high-field collider observables. This priority timestamp manuscript deploys a strictly parameter-free, closed-form mathematical formalism to establish exact, falsifiable baselines across the lepton and electroweak sectors. Without adjustable parameters, the model derives the zero-baryon fine-structure constant baseline, resolves the Rubidium-87 vs. Cesium-133 atom-interferometry variance via nuclear baryonic clamping, and decouples pristine lepton magnetic moments from high-field storage-ring apparatus offsets (Fermilab/BNL muon g-2) ahead of upcoming precision experimental releases.
Author: Independent Research Group
Language: English
Subfield: Nuclear and High Energy Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225644435
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