Controlling unpredictability in the randomly driven Hénon-Heiles system
arXiv:2301.04473 · doi:10.1016/j.cnsns.2013.05.009
Abstract
Noisy scattering dynamics in the randomly driven Hénon-Heiles system is investigated in the range of initial energies where the motion is unbounded. In this paper we study, with the help of the exit basins and the escape time distributions, how an external perturbation, be it dissipation or periodic forcing with a random phase, can enhance or mitigate the unpredictability of a system that exhibit chaotic scattering. In fact, if basin boundaries have the Wada property, predictability becomes very complicated, since the basin boundaries start to intermingle, what means that there are points of different basins close to each other. The main responsible of this unpredictability is the external forcing with random phase, while the dissipation can recompose the basin boundaries and turn the system more predictable. Therefore, we do the necessary simulations to find out the values of dissipation and external forcing for which the exit basins present the Wada property. Through these numerical simulations, we show that the presence of the Wada basins have a specific relation with the damping, the forcing amplitude and the energy value. Our approach consists on investigating the dynamics of the system in order to gain knowledge able to control the unpredictability due to the Wada basins.
References in corpus (1)
Cited by in corpus (5)
- Classifying orbits in the classical Henon-Heiles Hamiltonian system
- Delay-induced resonance suppresses damping-induced unpredictability
- Dynamical analysis of bounded and unbounded orbits in a generalized Hénon-Heiles system
- An overview of the escape dynamics in the Henon-Heiles Hamiltonian system
- Chaotic resetting: A resetting strategy for deterministic chaotic systems