Linked e-resources
Details
Table of Contents
Intro; Preface; References; Acknowledgments; Abstract; Contents; About the Author; Chapter 1: Overview; 1.1 From Linear to Nonlinear Circuits; 1.2 Describing Functions; 1.3 Weakly Nonlinear Circuits; References; International References; Own Publications; Chapter 2: Linear, Time Invariant One Ports: A Derivative-Free Proof of the Global Optimum; Chapter 3: Nonlinear, Resistive Case; 3.1 Power Matching of a Solar Cell (Wyatt, Chua); 3.2 Nonlinear, Resistive Maximum Power Theorem (Wyatt) and Its Reverse; 3.3 Reverse of the Power Maximizing Problem (Ladvnszky)
3.4 Properties of Corresponding Source-Load Pairs (Ladvnszky)3.5 Direct Measurement of the Thermal Voltage of Semiconductor Diodes (Ladvnszky); 3.6 Summary; References; Chapter 4: Linear Multiports, Competitive Power Matching (Lin); 4.1 Introduction; 4.2 The Original Problem and Its Solution; 4.3 Generalization for Non-resistive Two-Ports; 4.4 Application Example: Nash Equilibrium and Related Problems; 4.5 Summary; References; Chapter 5: The Scattering Matrix (Belevitch Approach), with Application to Broadband Matching; 5.1 Introduction of the Scattering Matrix
5.2 Extension to the Whole Complex Frequency Plane (Youla)5.3 Broadband Matching, Analytic Approach (Youla, Kuh-Rohrer, Helton); 5.4 Real Frequency Approach (Carlin); 5.5 Double Matching (Chien); 5.6 Summary; References; Chapter 6: Foundation Concepts Based on Power Matching (Youla, Castriota, Carlin); 6.1 Existence of the Scattering Matrix; 6.2 Linearity, Passivity, and Causality; 6.3 Summary; References; Chapter 7: Special Cases: Describing Functions and Weakly Nonlinear Case (Ladvnszky); 7.1 Power Matching in Nonlinear, Dynamic Circuits Characterized by Describing Functions
7.1.1 Historical Overview7.1.2 Optimum Load Characteristics in Terms of Admittance Describing Functions; 7.1.3 Special Case: Linear n-ports; 7.1.4 Optimum Load of Generators in Terms of Scattering Describing Functions; 7.1.5 Summary, Remarks; 7.2 Maximum Power Transfer in Weakly Nonlinear Circuits (Ladvnszky); 7.2.1 Introduction; 7.2.2 Notations and Assumptions; 7.2.3 Maximum Power Transfer in Linear Circuits, Time, and Frequency Domains; 7.2.4 Power Matching in Weakly Nonlinear Circuits; 7.2.5 Conclusions and Remarks; References; Chapter 8: The Most General Solution (Wyatt); References
Chapter 9: ConclusionsReference; Index
3.4 Properties of Corresponding Source-Load Pairs (Ladvnszky)3.5 Direct Measurement of the Thermal Voltage of Semiconductor Diodes (Ladvnszky); 3.6 Summary; References; Chapter 4: Linear Multiports, Competitive Power Matching (Lin); 4.1 Introduction; 4.2 The Original Problem and Its Solution; 4.3 Generalization for Non-resistive Two-Ports; 4.4 Application Example: Nash Equilibrium and Related Problems; 4.5 Summary; References; Chapter 5: The Scattering Matrix (Belevitch Approach), with Application to Broadband Matching; 5.1 Introduction of the Scattering Matrix
5.2 Extension to the Whole Complex Frequency Plane (Youla)5.3 Broadband Matching, Analytic Approach (Youla, Kuh-Rohrer, Helton); 5.4 Real Frequency Approach (Carlin); 5.5 Double Matching (Chien); 5.6 Summary; References; Chapter 6: Foundation Concepts Based on Power Matching (Youla, Castriota, Carlin); 6.1 Existence of the Scattering Matrix; 6.2 Linearity, Passivity, and Causality; 6.3 Summary; References; Chapter 7: Special Cases: Describing Functions and Weakly Nonlinear Case (Ladvnszky); 7.1 Power Matching in Nonlinear, Dynamic Circuits Characterized by Describing Functions
7.1.1 Historical Overview7.1.2 Optimum Load Characteristics in Terms of Admittance Describing Functions; 7.1.3 Special Case: Linear n-ports; 7.1.4 Optimum Load of Generators in Terms of Scattering Describing Functions; 7.1.5 Summary, Remarks; 7.2 Maximum Power Transfer in Weakly Nonlinear Circuits (Ladvnszky); 7.2.1 Introduction; 7.2.2 Notations and Assumptions; 7.2.3 Maximum Power Transfer in Linear Circuits, Time, and Frequency Domains; 7.2.4 Power Matching in Weakly Nonlinear Circuits; 7.2.5 Conclusions and Remarks; References; Chapter 8: The Most General Solution (Wyatt); References
Chapter 9: ConclusionsReference; Index