2015
DOI: 10.1016/j.jde.2015.01.045
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Equivalence of linear stabilities of elliptic triangle solutions of the planar charged and classical three-body problems

Abstract: In this paper, we prove that the linearized system of elliptic triangle homographic solution of planar charged three-body problem can be transformed to that of the elliptic equilateral triangle solution of the planar classical three-body problem. Consequently, the results of Martínez, Samà and Simó ([15] in J. Diff. Equa.) of 2006 and results of Hu, Long and Sun ([6] in arXiv.org) of 2012 can be applied to these solutions of the charged three-body problem to get their linear stability.

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Cited by 3 publications
(3 citation statements)
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“…37) and(3.38), in the plane e = 0, A(α, β, 0) is degenerate when for α = −(n 2 + 1) + 9β 2 + 4n and ker A(α, β, 0) = span R(t)(a n sin nt, cos nt) T , R(t)(a n sin nt, − cos nt) T ,(7.46) with a n ∈ R. By (3.38), the equation system A(α, β, 0)R(t)(a n sin nt, cos nt) T = 0 readsn 2 a n − 2n + (1 + α + 3β)a n = 0, n 2 − 2na n − (1 + α − 3β) = 0. (7.47) Then by direct computations, a n = n 2 +1+α−3β 2n and α = −(n 2 + 1) + 9β 2 + 4n.…”
mentioning
confidence: 99%
“…37) and(3.38), in the plane e = 0, A(α, β, 0) is degenerate when for α = −(n 2 + 1) + 9β 2 + 4n and ker A(α, β, 0) = span R(t)(a n sin nt, cos nt) T , R(t)(a n sin nt, − cos nt) T ,(7.46) with a n ∈ R. By (3.38), the equation system A(α, β, 0)R(t)(a n sin nt, cos nt) T = 0 readsn 2 a n − 2n + (1 + α + 3β)a n = 0, n 2 − 2na n − (1 + α − 3β) = 0. (7.47) Then by direct computations, a n = n 2 +1+α−3β 2n and α = −(n 2 + 1) + 9β 2 + 4n.…”
mentioning
confidence: 99%
“…then (1.13) can be written as ẇ = JB(t)w, (1.15) where 14) coincides with B(t) of (2.35) in [15]. Thus a lot of results which developed in [15] can be applied to this paper.…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…Inspired by the analytic method, Q. Zhou and Y. Long in [14] studied the linear stability of elliptic triangle solutions of the charged three-body problem.…”
Section: Introduction and Main Resultsmentioning
confidence: 99%