Chaotic phenomena in generic unfoldings of the Hamilton Hopf bifurcation with emphasis on the restricted planar circular 3-body problem beyond the Gascheau-Routh mass ratio
Inmaculada Baldom\'a, Pau Mart\'in, Donato Scarcella

TL;DR
This paper proves that generic unfoldings of Hamiltonian Hopf singularities exhibit chaotic dynamics with transverse homoclinic orbits, and applies this to the restricted planar circular three-body problem near L4, contingent on a subtle condition involving the Stokes constant.
Contribution
It establishes the existence of chaotic dynamics in Hamiltonian systems near Hopf bifurcations and applies this to the three-body problem, highlighting the role of the Stokes constant.
Findings
Presence of transverse homoclinic orbits near the bifurcation
Chaotic dynamics with arbitrarily large topological entropy
Conditional results for the three-body problem near L4
Abstract
In this work, we prove that a generic unfolding of an analytic Hamiltonian Hopf singularity (in an open set with codimension 1 boundary) possesses transverse homoclinic orbits for subcritical values of the parameter close to the bifurcation parameter. As a consequence, these systems display chaotic dynamics with arbitrarily large topological entropy. We verify that the Hamiltonian of the restricted planar circular three-body problem (RPC3BP) close to the Lagrangian point falls within this open set. The generic condition ensuring the presence of transversal homoclinic intersections is subtle and involves the so-called Stokes constant. Thus, in the case of the RPC3BP close to , our result holds conditionally on the value of this constant.
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Taxonomy
TopicsSpacecraft Dynamics and Control · Quantum chaos and dynamical systems · Control and Stability of Dynamical Systems
