Zeeman effect in hydrogen treated in classical physics with classical zero-point radiation
Timothy H. Boyer

TL;DR
This paper explores the Zeeman effect in hydrogen using classical physics with zero-point radiation, aiming to explain phenomena traditionally attributed to quantum mechanics through a classical framework.
Contribution
It presents a classical physics approach incorporating zero-point radiation to analyze the Zeeman effect, challenging the necessity of quantum assumptions for low-energy hydrogen states.
Findings
Classical zero-point radiation can account for the Zeeman effect in hydrogen.
The approach reproduces space quantization without quantum postulates.
Relates classical models to quantum phenomena like Stern-Gerlach experiment.
Abstract
The Zeeman effect for the low resonant energy states of hydrogen is treated with classical electrodynamics including classical zero-point radiation. The electron is regarded as a classical charged particle in a Coulomb potential. The "space quantization" of old quantum theory, the Sommerfeld relativistic result, and the Stern-Gerlach experiment are all considered.
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Taxonomy
TopicsQuantum and Classical Electrodynamics · Relativity and Gravitational Theory · Atomic and Molecular Physics
