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arXiv · 1606.08760

Figure-eight choreographies of the equal mass three-body problem with Lennard-Jones-type potentials

Hiroshi Fukuda·Toshiaki Fujiwara·Hiroshi Ozaki
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Abstract

We report on figure-eight choreographic solutions to a system of three identical particles interacting through a potential of Lennard-Jones type, $1/r^{12}-1/r^6$ where $r$ is a distance between the particles. By numerical search, we found there are a multitude of such solutions. A series of them are close to a figure-eight solutions to a homogeneous system with no $1/r^{12}$ term in the potential. The rest are very different from them and have several points with large curvatures in their figure-eight orbits, at which particles are repelled. Here figure-eight choreographies are the periodic motion whose shape is symmetric in both horizontal and vertical axis, starting with an isosceles triangle configuration and going back to an isosceles triangle configuration with opposite direction through Euler configuration. Thus the lobe of this figure-eight may be complex shape and needs not to be convex.

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Hiroshi Fukuda, Toshiaki Fujiwara, Hiroshi Ozaki. 2017-01-06. Figure-eight choreographies of the equal mass three-body problem with Lennard-Jones-type potentials. https://doi.org/10.1088/1751-8121%2Faa5741

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