Discovery of 10,059 new three-dimensional periodic orbits of general three-body problem
Xiaoming Li, Shijun Liao

TL;DR
This paper reports the discovery of over 10,000 new three-dimensional periodic orbits in the three-body problem using high-accuracy numerical methods, revealing many stable configurations and enriching understanding of chaotic dynamics.
Contribution
The study introduces a novel high-accuracy numerical approach that uncovers a vast number of previously unknown 3D periodic orbits, including stable and special configurations, for arbitrary mass ratios.
Findings
Discovered 10,059 new 3D periodic orbits, with 20% being linearly stable.
Identified special 'choerographical' and 'piano-trio' orbit configurations.
Results enhance understanding of chaos and stability in the three-body problem.
Abstract
A very few three-dimensional (3D) periodic orbits of general three-body problem (with three finite masses) have been discovered since Newton mentioned it in 1680s. Using a high-accuracy numerical strategy we discovered 10,059 three-dimensional periodic orbits of the three-body problem in the cases of and where is an integer, among which 1,996 (about 20\%) are linearly stable. Note that our approach is valid for arbitrary mass so that in theory we can gain an arbitrarily large amount of 3D periodic orbits of the three-body problem. In the case of three equal masses, we discovered twenty-one 3D ``choerographical'' periodic orbits whose three bodies move periodically in a single closed orbit. It is very interesting that, in the case of two equal masses, we discovered 273 three-dimensional periodic orbits with the two bodies…
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Taxonomy
TopicsSpacecraft Dynamics and Control · Quantum chaos and dynamical systems · Astro and Planetary Science
