A new distance law of planets and satellites in the solar system
Byong Lae Cho, Jik Su Kim, Yong Il Ri, Chol Jun Kim, Yong Chol Pak, Ki, Chol Kim, Ui Ri Mun

TL;DR
This paper proposes a new distance law for planets and satellites in the solar system, based on diffusion theory applied to the primordial nebula, supported by recent satellite discovery data.
Contribution
It introduces a novel distance law derived from diffusion processes in the primordial nebula, validated with new satellite data.
Findings
The distance law aligns well with observed planetary distances.
Diffusion of molecular gas in the nebula explains planetary spacing.
The theory remains consistent with recent satellite discoveries.
Abstract
In the 1960s, it has been substantiated that an equation of Schrodinger type could describe the diffusion phenomena, and the main consequence from this finding has been that there would be wave property in the diffusion processes as well. This theory has been immediately proved through laboratorial experiments. Afterwards the theory was applied to the primordial nebula which was thought to surround the protosun, and has found the consistency of the prediction of the theory with current distance distribution of the planets to be excellent. At the end of 20th century new satellites of planets were discovered. On the basis of the new data, the theory is tested thoroughly and the result allows us to come to the conclusion that the basic process for the distances of the planets from the protosun to be determined has been the diffusion of the primordial nebula consisting of mainly molecular…
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Taxonomy
TopicsStellar, planetary, and galactic studies · Astrophysics and Star Formation Studies · Astro and Planetary Science
