Efnisyfirlit

• Cover
• Half Title
• Title Page
• Copyright Page
• Preface
• Table of Contents
• 1 Voltage, Current and Resistance
• 1.1 Basic Notions
• 1.2 Waveforms
• 1.3 Ohm’s Law
• 1.4 Diodes
• 1.5 Kirchoff’s Laws
• 1.6 Node Voltages
• 1.7 EARTHS
• 1.8 Superposition
• 1.9 Summary
• 1.10 Exercises
• 2 Thevenin and Norton
• 2.1 Thevenin’s Theorem
• 2.2 How to Measure VEQ and REQ
• 2.3 Current Sources
• 2.4 Norton’s Theorem
• 2.5 General Remarks on Thevenin’s Theorem and Norton’s
• 2.6 Matching
• 2.7 Amplifiers
• 2.8 Systems
• 2.9 Summary
• 2.10 Exercises
• 3 Capacitance
• 3.1 Charge and Capacitance
• 3.2 Energy Stored in a Capacitor
• 3.3 The Effect of a Dielectric
• 3.4 Capacitors in Parallel
• 3.5 Capacitors in Series
• 3.6 The CR Transient
• 3.7 AC Coupling and Baseline Shift
• 3.8 Stray Capacitance
• 3.9 Integration and Differentiation
• 3.10 Thevenin’s Theorem Again
• 3.11 Summary
• 3.12 Exercises
• 4 Alternating Current (AC); Bandwidth
• 4.1 Introduction
• 4.2 Power in a Resistor: RMS Quantities
• 4.3 Phase Relations
• 4.4 Response of a Capacitor to AC
• 4.5 Simple Filter Circuits
• 4.6 Power Factor
• 4.7 Amplifiers
• 4.8 Bandwidth
• 4.9 Noise and Bandwidth
• 4.10 Summary
• 4.11 Exercises
• 5 Inductance
• 5.1 Faraday’s law
• 5.2 Self-inductance
• 5.3 LR Transient
• 5.4 Energy Stored in an Inductor
• 5.5 Stray Inductance
• 5.6 Response of an Inductor to Alternating Current
• 5.7 Phasors
• 5.8 Summary
• 5.9 Exercises
• 6 Complex Numbers: Impedance
• 6.1 Complex Numbers
• 6.2 AC Voltages and Currents
• 6.3 Inductance
• 6.4 Summary on Impedance
• 6.5 Impedances in Series
• 6.6 Impedances in Parallel
• 6.7 Power
• 6.8 Bridges
• 6.9 Exercises
• 7 Operational Amplifiers and Negative Feedback
• 7.1 Introduction
• 7.2 Series Voltage Feedback
• 7.3* Approximations in Voltage Feedback
• 7.4 Shunt Feedback
• 7.5 The Analogue Adder
• 7.6 The Differential Amplifier
• 7.7 Gain-Bandwidth Product
• 7.8 Offset Voltage and Bias Current
• 7.9 Complex Feedback Loops
• 7.10 Impedance Transformation
• 7.11 Input and Output Impedances with Feedback
• 7.12 Stabilized Current Supplies
• 7.13*  Input Impedance with Shunt Feedback
• 7.14 Oscillation.
• 7.15 Exercises
• 8 Integration and Differentiation
• 8.1 Integration
• 8.2 The Miller Effect
• 8.3 Compensation
• 8.4 Differentiation
• 8.5 The Charge Sensitive Amplifier
• 8.6 Exercises
• 9 The Diode and the Bipolar Transistor
• 9.1 Conductors
• 9.2 Semiconductors and Doping
• 9.3 The pn Junction Diode
• 9.4 The Diode as a Switch
• 9.5 The npn Bipolar Transistor
• 9.6 Simple Transistor Circuits
• 9.7 Voltage Amplification
• 9.8 Biasing
• 9.9 Exercises
• 10 The Field-Effect Transistor (FET)
• 10.1 Gate Action
• 10.2 Simple FET Amplifiers
• 10.3 MOSFETs
• 10.4 Fabrication of Transistors and Integrated Circuits
• 10.5 CMOS
• 11 Equivalent Circuits for Diodes and Transistors
• 11.1 Introduction: the Diode
• 11.2 An Equivalent Circuit for the Bipolar Transistor
• 11.3 The Hybrid-π Equivalent Circuit
• 11.4 The FET
• 11.5 The Common Emitter Amplifier
• 11.6 Performance of the Common Emitter Amplifier
• 11.7 Emitter Follower
• 11.8 FETs
• 11.9 Exercises
• 12 Gates
• 12.1 Introduction
• 12.2 Logical Combinations of A and B
• 12.3 Boolean Algebra
• 12.4 De Morgan’s Theorems
• 12.5 The Full Adder
• 12.6 The Karnaugh Map
• 12.7 Don’t Care or Can’t Happen Cobnditions
• 12.8 Products of Karnaugh Maps
• 12.9 Products of Sums
• 12.10 Use of NOR and NAND Gates
• 12.11 Decoders and Encoders
• 12.12 Multiplexing
• 12.13 Exercises
• 13 Sequential Logic
• 13.1 The RS Flip-Flop
• 13.2 Clocks
• 13.3 The JK Flip-Flop
• 13.4 A Scale-of-4 Counter
• 13.5 State Diagrams
• 13.6 Trapping Sequences: Pattern Recognition
• 13.7 The Monostable
• 13.8 The Pulse Generator
• 13.9 Exercises
• 14 Resonance and Ringing
• 14.1 Introduction
• 14.2 Resonance in a Series LCR Circuit
• 14.3 Transient in a CL Circuit
• 14.4 Transient in the Series LCR Circuit
• 14.5 Parallel LCR
• 14.6* Poles and Zeros
• 14.7 Exercises
• 15 Fourier’s Theorem
• 15.1 Introduction
• 15.2 A Square Wave applied to a CR Filter
• 15.3 How to Find Fourier Coefficients
• 15.4 The Heterodyne Principle
• 15.5 Broadcasting
• 15.6 Frequency Modulation (FM)
• 15.7 Frequency Multiplexing
• 15.8 Time Division Multiplexing
• 15.9 Fourier Series Using Complex Exponentials
• 15.10 Fourier Transforms
• 15.11 Response to an Impulse
• 15.12 Fourier Analysis of a Damped Oscillator
• 15.13 The Perfect Filter
• 15.14 Exercises
• 16 Transformers and Three-Phase Supplies
• 16.1 Introduction
• 16.2 Energy Stored in a Transformer
• 16.3 Circuit Equations and Equivalent Circuits
• 16.4 Three-Phase Systems
• 16.5 Balanced Loads
• 16.6 Exercises
• Appendix A Thevenin’s Theorem
• Appendix B Exponentials
• Index