The dynamic behaviors of a damped satellite with partially-filled liquid which is subjected to external disturbance are studied in this paper. The Lyapunov direct method is used to obtain conditions of stability of the equilibrium point of the system. A co-dimension one bifurcation analysis for the
NON-LINEAR DYNAMICS AND CONTROL OF CHAOS FOR A TACHOMETER
β Scribed by Z.-M. GE; J.-S. SHIUE
- Publisher
- Elsevier Science
- Year
- 2002
- Tongue
- English
- Weight
- 338 KB
- Volume
- 253
- Category
- Article
- ISSN
- 0022-460X
No coin nor oath required. For personal study only.
β¦ Synopsis
The dynamic behaviors of a rotational tachometer with vibrating support are studied in the paper. Both analytical and computational results are used to obtain the characteristics of the system. The Lyapunov direct method is applied to obtain the conditions of stability of the equilibrium position of the system. The center manifold theorem determines the conditions of stability for the system in a critical case. By applying various numerical analyses such as phase plane, PoincareH map and power spectrum analysis, a variety of periodic solutions and phenomena of the chaotic motion are observed. The e!ects of the changes of parameters in the system can be found in the bifurcation diagrams and parametric diagrams. By using Lyapunov exponents and Lyapunov dimensions, the periodic and chaotic behaviors are veri"ed. Finally, various methods, such as the addition of a constant torque, the addition of a periodic torque, delayed feedback control, adaptive control, Bang}Bang control, optimal control and the addition of a periodic impulse are used to control chaos e!ectively.
π SIMILAR VOLUMES
The dynamic behavior of a physical pendulum system of which the support is subjected to both rotation and vertical vibration are studied in this paper. Both analytical and computational results are employed to obtain the characteristics of the system. By using Lyapunov's direct method the conditions
In this work we show that the now standard lumped non-linear enhancement of root-locus design still persists for a non-linear distributed parameter boundary control system governed by a scalar viscous Burgers' equation. Namely, we construct a proportional error boundary feedback control law and show
This paper deals with the development of computational schemes for the dynamic analysis of non-linear elastic systems. The focus of the investigation is on the derivation of unconditionally stable time-integration schemes presenting high-frequency numerical dissipation for these types of problem. At
The aim of this paper is to introduce the theory and techniques of non-linear discrete-time dynamics to the non-specialist and to describe some of the ways in which this material has been applied to the study of sigma-delta modulators. It is aimed at readers who are familiar with sigma-delta systems