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Global bifurcations and multi-pulse orbits of a parametric excited system with autoparametric resonance

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Abstract

We consider an autoparametric system which consists of an oscillator coupled with a parametrically excited subsystem. The oscillator and the subsystem are in one-to-one internal resonance. The excited subsystem is in principal parametric resonance. The system contains the most general type of quadratic and cubic non-linearities. The method of second-order averaging is used to yield a set of autonomous equations of the second-order approximations to the parametric excited system with autoparametric resonance. The Shilnikov-type multi-pulse orbits and chaotic dynamics of the averaged equations are studied in detail. The global bifurcation analysis indicates that there exist the heteroclinic bifurcations and the Shilnikov-type multi-pulse homoclinic orbits in the averaged equations. The results obtained above mean the existence of amplitude-modulated chaos in the Smale horseshoe sense in the parametric excited system with autoparametric resonance. The Shilnikov-type multi-pulse chaotic motions of the parametric excited system with autoparametric resonance are also found by using numerical simulation.

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Correspondence to Hongkui Chen.

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Chen, H., Xu, Q. Global bifurcations and multi-pulse orbits of a parametric excited system with autoparametric resonance. Nonlinear Dyn 65, 187–216 (2011). https://doi.org/10.1007/s11071-010-9883-3

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