Abstract

In this work we study the design and analysis for nonlinear discrete time active control system with boring charter. It is shown that most analysis result for continuous time nonlinear system can be extended to the discrete time case. In previous studies, a method of nonlinear Model Following Control System (MFCS) was proposed by Okubo (1985). In this study, the method of nonlinear MFCS will be extended to nonlinear discrete time system with boring charter. Nonlinear systems which are dealt in this study have the property of norm constraints ║ƒ (v (k))║≤α + β║v (k)║<sup>γ</sup> , where α≥0, β≥0, 0≤γ≤1. When 0≤γ<1. It is easy to extend the method to discrete time systems. But in the case γ = 1 discrete time systems, the proof becomes difficult. In this case, a new criterion is proposed to ensure that internal states are stable. We expect that this method will provide a useful tool in areas related to stability analysis and design for nonlinear discrete time systems as well.

Highlights

  • Nonlinear control systems are those control systems where nonlinearity plays a significant role, either in the controlled process or in the controller itself

  • It is easy to extend the method to discrete time systems

  • A new criterion is proposed to ensure that internal states are stable

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Summary

Introduction

Nonlinear control systems are those control systems where nonlinearity plays a significant role, either in the controlled process or in the controller itself. Finite-time stability of nonlinear discretetime systems is studied. A method of nonlinear Model Following Control System (MFCS) was proposed by Okubo (1985), Wang and Okubo (2008) and Akiyama (1998). We expect that this method will provide a useful tool in areas related to stability analysis and design for nonlinear discrete time systems as well.

Results
Conclusion

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