Hamilton-Jacobi method for a simple resonance
Mischa Rudnev
Abstract
It is well known that a generic small perturbation of a Liouville-integrable Hamiltonian system causes breakup of resonant and near-resonant invariant tori. A general approach to the simple resonance case in the convex real-analytic setting is developed, based on a new technique for solving the Hamilton-Jacobi equation. It is shown that a generic perturbation creates in the core of a resonance a partially hyperbolic lower-dimensional invariant torus, whose Lagrangian stable and unstable manifolds, described as global solutions of the Hamilton-Jacobi equation, split away from this torus at exponentially small angles. Optimal upper bounds with best constants are obtained for exponentially small splitting in the general case.
Create a lesson
Related papers
Causal Fingerprints Reveal Hidden Mechanisms in Partially-Observed Dynamical Systems
Zhang Jiang, Marios Andreou, Nan Chen
Counterexamples to the ordinary Fried conjecture near hyperbolic metrics
Simon Becker, Benjamin Lawton
Classes of integrable metrics on Banach spaces
A. Konyaev, P. Topalov
An undecidable problem in dynamics
Jason Bell
On the structure of polynomial multicorrelation sequences arising from nilpotent actions
Jovan Andreevski, Felipe Hernández
Strong invariance principles in deterministic systems
Zemer Kosloff, Dalibor Volny