The Four-Direction Orbit: Width, Tilt, Molecules and the Hidden Rotation

The electron orbits the nucleus in four spatial directions, and the light of a line has the frequency of the orbit's motion in the fourth direction. This paper reports what that orbit does when its conditions change. A nucleus of finite width gives the hydrogen line Lyman-γ at one Bohr radius to 0.13%. The tilt of the orbit into the fourth direction moves the line by only 1.4% between 5° and 85°. The uniform background couples to the electron's orientation through a plane inside our own directions. Around two nuclei the same orbit gives the colours of the four diatomic halogens with one constant, and around a chain of nuclei it moves the line from the ultraviolet toward the visible as the chain grows. A second electron rotating in a hidden plane exchanges energy with the orbit at two sharp resonances and does not lock to it. The paper also records where the orbit does not yet match: the circular orbit with Lyman-γ at one Bohr radius is not the one with hydrogen's binding energy, and the long polyene chains come out too red.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-11
DOI
https://doi.org/10.5281/zenodo.24121356
Primary Topic
Atomic and Molecular Physics
Type
preprint
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preprint

The Four-Direction Orbit: Width, Tilt, Molecules and the Hidden Rotation

Fedge No
Zenodo (CERN European Organization for Nuclear Research)
Atomic and Molecular Physics
preprint

The Four-Direction Orbit: Width, Tilt, Molecules and the Hidden Rotation

Fedge No
preprint en

Abstract

The electron orbits the nucleus in four spatial directions, and the light of a line has the frequency of the orbit's motion in the fourth direction. This paper reports what that orbit does when its conditions change. A nucleus of finite width gives the hydrogen line Lyman-γ at one Bohr radius to 0.13%. The tilt of the orbit into the fourth direction moves the line by only 1.4% between 5° and 85°. The uniform background couples to the electron's orientation through a plane inside our own directions. Around two nuclei the same orbit gives the colours of the four diatomic halogens with one constant, and around a chain of nuclei it moves the line from the ultraviolet toward the visible as the chain grows. A second electron rotating in a hidden plane exchanges energy with the orbit at two sharp resonances and does not lock to it. The paper also records where the orbit does not yet match: the circular orbit with Lyman-γ at one Bohr radius is not the one with hydrogen's binding energy, and the long polyene chains come out too red.

Zenodo (CERN European Organization for Nuclear Research)
Atomic and Molecular Physics
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