1.1. Nonlinear System Modeling: Background, Motivation and Opportunities
1.2. Key Factors in Defining Adaptive Learning Methods for Nonlinear System Modeling
Part 1: Linear-in-the-Parameters Nonlinear Filters
Chapter 2: Orthogonal LIP Nonlinear Filters
2.3. Recent Identification Methods for Orthogonal Filters
Chapter 3: Spline Adaptive Filters
3.2. Foundation of Spline Interpolation
Chapter 4: Recent Advances on LIP Nonlinear Filters and Their Applications
4.2. A Concise Categorization of State-of-the-Art LIP Nonlinear Filters
4.3. Fundamental Methods for Coefficient Adaptation
4.4. Significance-Aware Filtering
4.5. Experiments and Evaluation
Part 2: Adaptive Algorithms in the Reproducing Kernel Hilbert Space
Chapter 5: Maximum Correntropy Criterion–Based Kernel Adaptive Filters
5.3. Maximum Correntropy Criterion
5.4. Kernel Adaptive Filters Under Generalized MCC
Chapter 6: Kernel Subspace Learning for Pattern Classification
6.3. Kernel Subspace Approximation
6.4. Adaptive Kernel Subspace Approximation Algorithm
7.3. Online Kernel-Based Learning: A Random Fourier Features Perspective
7.4. Online Distributed Learning With Kernels
Chapter 8: Kernel-Based Inference of Functions Over Graphs
8.2. Reconstruction of Functions Over Graphs
Part 3: Nonlinear Modeling With Multiple Learning Machines
Chapter 9: Online Nonlinear Modeling via Self-Organizing Trees
9.2. Self-Organizing Trees for Regression Problems
9.3. Self-Organizing Trees for Binary Classification Problems
Chapter 10: Adaptation and Learning Over Networks for Nonlinear System Modeling
10.2. Mathematical Formulation of the Problem
10.3. Existing Approaches to Nonlinear Distributed Filtering
10.4. A Distributed Kernel Filter for Multitask Problems
10.6. Discussion and Open Problems
Chapter 11: Combined Filtering Architectures for Complex Nonlinear Systems
11.2. Nonlinear Adaptive Filters
11.3. Different Approaches to Combine Nonlinear Adaptive Filters
11.4. Combined Nonlinear Filters With Diversity in the Parameters
11.5. Combination Schemes to Simplify the Selection of the Filter Structure
Part 4: Nonlinear Modeling by Neural Systems
12.5. Discussion and Conclusion
13.2. Identification of STSP With Nonlinear Dynamical Model
13.3. Identification of LTSP With Nonstationary Model
13.4. Identification of Synaptic Learning Rule
Chapter 14: Adaptive H∞ Tracking Control of Nonlinear Systems Using Reinforcement Learning
14.2. H∞ Optimal Tracking Control for Nonlinear Affine Systems
14.3. H∞ Optimal Tracking Control for a Class of Nonlinear Nonaffine Systems
15.3. Model Reduction Based on KLD and Singular Perturbation Technique
15.4. Adaptive Optimal Control Design With NDP
15.5. Adaptive Optimal Control Based on Policy Iteration for Partially Unknown DPSs