Classical electrodynamics predicts a gyromagnetic ratio of g=2 for spin-1/2 particles under relativistic wave equations
Classical electrodynamics and relativistic wave equations such as the Dirac equation canonically predict a gyromagnetic ratio of g = 2 for spin-1/2 particles, a foundational baseline against which small quantum electrodynamic anomalies are measured.
The retrieved papers (specifically papers 5 and 8) explicitly state that the Dirac equation predicts a gyromagnetic ratio of g = 2 for spin-1/2 particles, supporting the claim while discussing subsequent quantum or structural anomalies.
Nyambuya GG. Gyromagnetic Ratio of Electrically Neutral Particles: Case of the Neutron. 2026. https://doi.org/10.20944/preprints202604.0996.v1
Paper 5 confirms that the Dirac equation predicts a gyromagnetic ratio of g = 2 for charged spin-1/2 particles.
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Golden Gadzirayi Nyambuya. On an Alternative Approach to the Anomalous Gyromagnetic Ratio of the Electron and Proton: Toward a Unified and Universal Dirac Equation (I). 2026. https://doi.org/10.20944/preprints202602.1605.v1
Paper 8 notes that fundamental spin-1/2 particles are canonically expected to follow the Dirac prediction of g = 2, serving as the baseline for evaluating anomalous deviations.
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