Chapter 1 Basic Circuit Laws and Simple Resistive Circuits 1.1 Introduction 1.2 Ohm's Law 1.3 Kirchhoff's Law 1.4 Resistance and Source Combination 1.5 Network Reduction by A-Y Transformation 1.6 Source Transformation 1.7 Voltage and Current Division
Chapter 2 General Analysis of Resistive Circuit 2.1 Nodal Analysis 2.2 Mesh Analysis 2.3 Nodal and Mesh Analysis by Inspection 2.4 Linearity and Superposition 2.5 Thevenin' s and Norton' s Equivalent Circuit 2.6 Maximum Power Transfer in the DC Case 2.7 Input Resistance and Equivalence Resistance
Chapter 4 Capacitors and Inductors 4.1 The Capacitor 4.2 Series and Parallel Capacitor 4.3 The Inductor 4.4 Series and Parallel Inductors 4.5 Simple OP-AMP Circuits with Capacitors
Chapter 5 First-Order Circuit 5.1 Initial Condition and Switching Rule 5.2 The Source-Free RC Circuit 5.3 The Source-Free RL Circuit 5.4 The Unit-Step Forcing Function 5.5 Step Response of An RC Circuit and Three-Element Method 5.6 Zero-Input Response and Zero-State Response
Chapter 6 Second-Order Circuits 6.1 The Source-Free Parallel Circuit 6.2 The Source-Free Series RLC Circuit 6.3 The Complete Response of The RLC Circuit
Chapter 7 Sinnsoids and Phasors 7.1 Characteristics of Sinusoids 7.2 Effective Values of Current and Voltage 7.3 The Phasor 7.4 Phasor Relationships For R, L and C 7.5 Impedance 7.6 Admittance
Chapter 8 Sinusoidal Steady State Analysis 8.1 Nodal Analysis and Mesh Analysis 8.2 Superposition and Thevenin' s Theorem 8.3 Phasor Diagrams 8.4 Instantaneous Power 8.5 Average Power 8.6 Apparent Power and Power Factor 8.7 Complex Power 8.8 Maximum Power Transfer in the AC Case
Chapter 9 Resonant Circuit 9.1 Parallel Resonance 9.2 Series Resonance 9.3 Other Resonant Forms
Chapter 10 Magnetically Coupled Circuit 10.1 Mutual Inductance 10.2 The Linear Transformer 10.3 The Ideal Transformer
Chapter 11 Three-Phase Circuits 11.1 Balanced Three-Phase Voltages 11.2 Three-Phase Y-Y Connection 11.3 Balanced Y-A Connection 11.4 The Power Calculation and Measurement in Three-Phase System 11.5 Brief Introduction to Unbalanced Three-Phase Circuit
Chapter 12 Two-Port Networks 12.1 Admittance Parameters 12.2 Some Equivalent Networks to Two-Port 12.3 Impedance Parameters 12.4 Hybrid Parameters 12.5 Transmission Parameters 12.6 Interconnection of Two-Port * 12.7 Gyrator * 12.8 NIC (Negative-Impedance Converter)
Chapter 13 Technique of Harmonic Analysis for Nonsinusoidal Periodic Current Circuit 13.1 Fourier Series 13.2 Effective Values and Average Power 13.3 The Technique of Harmonic Analysis
Chapter 14 Laplace Transform Techniques 14.1 Definition of the Laplace Transform 14.2 The Unit-Impulse Function 14.3 Laplace Transforms of Some Simple Time Functions 14.4 Several Basic Theorems for the Laplace Transform 14.5 The Partial-fraction-expansion Method 14.6 Find the Complete Response 14.7 The Transfer Function (or Network Function) H(s) 14.8 The Complex-Frequency Plane
Chapter 15 Network Graph Theory 15.1 Notations and Definitions 15.2 Incidence Matrix and KCL 15.3 Loop Matrix and KVL 15.4 Interrelationship Between Matrices of a Graph 15.5 Tellegen' s Theorem
Chapter 16 Matrix Equation for Network 16.1 Direct Analysis Methods 16.2 Nodal Analysis 16.3 State Variables and Normal-form Equations 16.4 Writing a Set of Normal-form Equations
Chapter 17 Simple Nonlinear Circuits 17.1 Nonlinear Elements 17.2 Simple Nonlinear Resistor Circuits 17.3 Small Signal Analysis 17.4 Combination of i-v Characteristics 17.5 Newton-Raphson Algorithm 17.6 State-space Analysis: The Phase Plane 17.7 Characteristics of the Phase Portrait
Chapter 18 Switched-Capacitor Circuits 18.1 The MOS Switch 18.2 Analog Operations
Chapter 19 Distributed Circuits 19.1 Uniform Transmission Lines 19.2 Steady State AC Operation of a Uniform Transmission Line 19.3 Uniform Transmission Line Without Losses 19.4 Transmission Lines With Losses——Two Special Cases 19.5 Distributed Circuits of Finite Length 19.6 The Lossless Transmission Line of Finite Length Appendix Vocabulary References
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