PREFACE
CHAPTER 1. BASIC CONCEPTS
1.1. Introduction
1.2. System of units
1.3. Charge and current
1.4. Voltage
1.5. Power and energy 
1.6. Circuit elements
1.7. Summary 
1.8. Problems
CHAPTER 2. BASIC LAWS
2.1. Ohm’s law
2.2. Nodes, branches, and loops
2.3. Kirchhoff’s laws
2.4. Series connection
2.5. Parallel connection
2.6. Wye – delta transformation
2.7. Summary 
2.8. Problems
CHAPTER 3. METHODS OF ANALYSIS
3.1. Branch current method
3.2. Node voltage method 
3.3. Mesh current method 
3.4. Which method should we choose? 
3.5. Summary 
3.6. Problems
CHAPTER 4. CIRCUIT THEOREMS 
4.1. Linear property
4.2. Superposition
4.3. Source transformation
4.4. Thevenin’s theorem 
4.5. Norton’s theorem
4.6. What method should we choose? 
4.7. Maximum power transfer 
4.8. Summary 
4.9. Problems 
CHAPTER 5. OPERATIONAL AMPLIFIERS 
5.1. Operational amplifiers
5.2. Ideal op amp
5.3. Inverting amplifier
5.4. Noninverting amplifier 
5.5. Summing amplifier 
5.6. Difference amplifier
5.7. Cascaded op amp circuits 
5.8. Analysis of circuits with op amps
5.9. Applications
5.10. Summary 
5.11. Problems 
CHAPTER 6. CAPACITORS AND INDUCTORS
6.1. Capacitors 
6.2. Series and parallel capacitors 
6.3. Inductors
6.4. Series and parallel inductors 
6.5. Analysis of circuits with capacitors and inductors 
6.6. Op amp circuits with capacitors
6.7. Applications
6.8. Summary 
6.9. Problems
CHAPTER 7. FIRST-ORDER CIRCUITS 
7.1. The source-free RC circuit 
7.2. The source-free RL circuit
7.3. Singularity functions 
7.4. Step response of an RC circuit 
7.5. Step response of an RL circuit 
7.6. First-order op amp circuits
7.7. Applications 
7.8. Summary 
7.9. Problems
CHAPTER 8. SECOND-ORDER CIRCUITS 
8.1. Initial values
8.2. The source-free series RLC circuit
8.3. The source-free parallel RLC circuit
8.4. Step response of a series RLC circuit
8.5. Step response of a parallel RLC circuit
8.6. General second-order circuits 
8.7. Second-order op amp circuits
8.8. Applications
8.9. Summary 
8.10. Problems 
BIBLIOGRAPHY