Stable adaptive control and estimation for nonlinear systems : neural and fuzzy approximator techniques /
A powerful, yet easy-to-use design methodology for the control of nonlinear dynamic systems. A key issue in the design of control systems is proving that the resulting closed-loop system is stable, especially in cases of high consequence applications, where process variations or failure could result...
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| Format: | eBook |
| Language: | English |
| Published: |
New York :
Wiley,
©2002.
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| Series: | Adaptive and learning systems for signal processing, communications, and control.
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| Subjects: | |
| Online Access: | Connect to the full text of this electronic book |
Table of Contents:
- Stability and Robustness
- Adaptive Control: Techniques and Properties
- Indirect Adaptive Control Schemes
- Direct Adaptive Control Schemes
- The Role of Neural Networks and Fuzzy Systems
- Approximator Structures and Properties
- Benefits for Use in Adaptive Systems
- Mathematical Foundations
- Vectors, Matrices, and Signals: Norms and Properties
- Vectors
- Matrices
- Signals
- Functions: Continuity and Convergence
- Continuity and Differentiation
- Convergence
- Characterizations of Stability and Boundedness
- Stability Definitions
- Boundedness Definitions
- Lyapunov's Direct Method
- Preliminaries: Function Properties
- Conditions for Stability
- Conditions for Boundedness
- Input-to-State Stability
- Input-to-State Stability Definitions
- Conditions for Input-to-State Stability
- Special Classes of Systems
- Autonomous Systems
- Linear Time-Invariant Systems
- Neural Networks and Fuzzy Systems
- Neural Networks
- Neuron Input Mappings
- Neuron Activation Functions
- The Mulitlayer Perceptron
- Radial Basis Neural Network
- Tapped Delay Neural Network
- Fuzzy Systems
- Rule-Base and Fuzzification
- Inference and Defuzzification
- Takagi-Sugeno Fuzzy Systems
- Optimization for Training Approximators
- Problem Formulation
- Linear Least Squares
- Batch Least Squares
- Recursive Least Squares
- Nonlinear Least Squares
- Gradient Optimization: Single Training Data Pair
- Gradient Optimization: Multiple Training Data Pairs
- Discrete Time Gradient Updates.