Maslov-type indices and linear stability of elliptic Euler solutions of the three-body problem
arXiv:1510.06822 · doi:10.1007/s00205-017-1154-8
Abstract
In this paper, we use the central configuration coordinate decomposition to study the linearized Hamiltonian system near the elliptic Euler solutions. Then using the Maslov-type ω-index theory of symplectic paths and the theory of linear operators we compute the ω-indices and obtain certain properties of linear stability of the Euler elliptic solutions of the classical three-body problem.
42 pages, 1 figure. arXiv admin note: substantial text overlap with arXiv:1206.6162; text overlap with arXiv:1308.4745 by other authors
References in corpus (3)
- Collision index and stability of elliptic relative equilibria in planar n-body problem
- Maslov-type indices and linear stability of elliptic Euler solutions of the three-body problem
- The reduction on the linear stability of elliptic Euler-Moulton solutions of the n-body problem to those of 3-body problems
Cited by in corpus (10)
- Maslov-type indices and linear stability of elliptic Euler solutions of the three-body problem
- Linear stability of the elliptic relative equilibrium with -gon central configurations in planar -body problem
- Linear Stability of Elliptic Relative Equilibria of Restricted Four-body Problem
- Trace estimation of a family of periodic Sturm-Liouville operators with application to Robe's restricted three-body problem
- Linear stability of elliptic relative equilibria of four-body problem with two infinitesimal masses
- Linear Instability of Elliptic Rhombus Solutions to the Planar Four-body Problem
- The analytical aspect to the linear stability of elliptic equilibrium points of the Robe's restricted three-body problem
- The symplectic reduction of the linearized Hamiltonian systems at elliptic relative equilibria of four-body problem
- Hill-type formula for Hamiltonian system with Lagrangian boundary conditions
- Linear stability of the elliptic relative equilibria for the restricted N-body problem: two special cases