Chebyshev-Taylor parameterization of stable/unstable manifolds for periodic orbits: implementation and applications.














Authors:
Maxime Murray and J.D. Mireles James


Abstract: This paper develops a computational method for studying stable/unstable manifolds attached to periodic orbits of differential equations. The method uses high order Chebyshev-Taylor series approximations in conjunction with the parameterization methoda general functional analytic framework for invariant manifolds. The parameterization method can follow folds in the embed- ding, recovers the dynamics on the manifold through a simple conjugacy, and admits a natural notion of a-posteriori error analysis. The key to the approach is the derivation of a recursive system of linear differential equations describing the Taylor coefficients of the invariant manifold. We find periodic solutions of these equations by solving a coupled collection of boundary value problems with Chebyshev spectral methods. We discuss the performance of the method for the Lorenz system, and for circular restricted three and four body problems. We also illustrate the use of the method as a tool for computing cycle-to-cycle connecting orbits.



Preprint:
  • "Chebyshev-Taylor parameterization of stable/unstable manifolds for periodic orbits: implementation and applications"
    International Journal of Bifurcation and Chaos, Vol 27, No. 14 (2017).