A De Broglie-Like Wave in the Planetary Systems
Vladan Pankovic, Rade Glavatovic, Marko Mandic, Vojislav Bozic-Sremac

TL;DR
This paper proposes a semi-accurate de Broglie-like wave model for planetary systems that reproduces the Titius-Bode-Richardson rule, suggesting planets' orbits are sums of natural numbers of wave types.
Contribution
It introduces a novel semi-accurate de Broglie-like wave approach to planetary systems, extending prior quantum-like models with interference phenomena.
Findings
Reproduces Titius-Bode-Richardson rule using wave model
Shows planetary orbits as sums of wave-based natural numbers
Proposes interference phenomena in planetary orbit formation
Abstract
In this work we do an "interpolation" of Scardigli theory of a quantum-like description of the planetary system that reproduces remarkable Titius-Bode-Richardson rule. More precisely, instead of simple, approximate, Bohr-like theory, or, accurate, Schrdinger-like theory, considered by Scardigli, we suggest originally a semi-accurate, de Broglie-like description of the planetary system. Especially, we shall propose a de Broglie-like waves in the planetary systems. More precisely, in distinction from Scardigly (which postulated absence of the interference phenomena at planet orbits) we shall prove that, roughly speaking, planets orbits equal a sum of natural numbers of two types, large and small, of the de-Broglie-like waves. It is similar to well-known situation in atomic physics by interpretation of Bohr momentum quantization postulate by de Broglie relation.
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Taxonomy
TopicsQuantum Mechanics and Applications · Astro and Planetary Science
