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Fuzzy modal time-scheduled control and L2-gain analysis for switched nonlinear systems
Jinling Wang1, Jun-Guo Lu2, Jiarong Li3
1School of Sciences, Jimei University, Xiamen, 361021, PR China.
This study introduces a fuzzy modal time-scheduled control strategy for switched nonlinear systems, ensuring L2-gain performance. The research develops new Lyapunov functions for enhanced stability analysis in hybrid systems.
Area of Science:
- Control Theory
- Nonlinear Systems
- Fuzzy Logic
Background:
- Switched nonlinear systems present challenges in stability and control due to their hybrid nature.
- Achieving guaranteed performance, such as L2-gain, is crucial for practical applications.
Purpose of the Study:
- To develop a fuzzy modal time-scheduled control (FMTSC) strategy for switched nonlinear systems.
- To establish criteria for H-infinity performance in systems with both stable and unstable subsystems.
- To introduce time-scheduled multiple discontinuous Lyapunov functions (TMDLFs) for switched Takagi-Sugeno (T-S) fuzzy systems.
Main Methods:
- Hybrid dwell time method combined with fuzzy modal control.
- Development of time-scheduled multiple discontinuous Lyapunov functions (TMDLFs).
- Analysis of H-infinity performance for switched systems.
Main Results:
- A novel switched fuzzy modal time-scheduled control (FMTSC) strategy is proposed.
- A criterion for H-infinity performance is established for systems with mixed stability properties.
- The effectiveness of TMDLFs is demonstrated for switched T-S fuzzy systems with L2-gain properties.
Conclusions:
- The proposed FMTSC strategy effectively addresses the control problem for switched nonlinear systems.
- The developed theoretical results are validated through comparative and practical examples.
- The study contributes to the advancement of robust control techniques for complex hybrid systems.
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