Effective dynamics in Hamiltonian systems with mixed phase space
Adilson E. Motter, Alessandro P. S. de Moura, Celso Grebogi, Holger Kantz
Abstract
An adequate characterization of the dynamics of Hamiltonian systems at physically relevant scales has been largely lacking. Here we investigate this fundamental problem and we show that the finite-scale Hamiltonian dynamics is governed by effective dynamical invariants, which are significantly different from the dynamical invariants that describe the asymptotic Hamiltonian dynamics. The effective invariants depend both on the scale of resolution and the region of the phase space under consideration, and they are naturally interpreted within a framework in which the nonhyperbolic dynamics of the Hamiltonian system is modeled as a chain of hyperbolic systems.
Create a lesson
Related papers
Energy Transmission and Harmonic Propagation in Unidirectionally Coupled Plasma Oscillator Networks
K. Abirami, Miguel A. Prado-Reynoso, Miguel A. F. Sanjuán
Nonlinear Signal Transmission and Harmonic Generation in Plasma Oscillator Chain with Coupling Asymmetry
K. Abirami, Miguel A. Prado-Reynoso, Miguel A. F. Sanjuán
Wake-induced dynamics of soft-impact oscillators: Analysis and electronic experimental validation
Rohit Chawla, Soumyajit Seth, Vikram Pakrashi
A Second-Order Asymptotic Expansion for Nonlinear Filtering in the Lorenz--63 System
Masahiro Kurisaki, Kota Takeda
Heterogeneity-induced chaos in globally coupled Stuart--Landau oscillators
Luekai Zhao, Nariya Uchida
Adiabatic confinement and escape in an open billiard
Matheus Rolim Sales, Leonardo Costa de Souza, Ricardo Luiz Viana et al.