Introduced more than a decade ago, the first edition of D.V. Bugg's Electronics: Circuits, Amplifiers and Gates became widely popular for its comprehensive yet concise coverage of all the major introductory topics in electronics. Today, semiconductor chips and integrated circuits are used universall
Electronics : circuits, amplifiers, and gates
โ Scribed by David Vernon Bugg
- Publisher
- Taylor & Francis
- Year
- 2006
- Tongue
- English
- Leaves
- 365
- Edition
- 2
- Category
- Library
No coin nor oath required. For personal study only.
โฆ Table of Contents
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 Ohmโs Law
1.4 Diodes
1.5 Kirchoffโs Laws
1.6 Node Voltages
1.7 Earths
1.8 Superposition
1.9 Summary
1.10 Exercises
2: Thevenin and Norton
2.1 Theveninโs Theorem
2.2 How to Measure VEQ and REQ
2.3 Current Sources
2.4 Nortonโs Theorem
2.5 General Remarks on Theveninโs Theorem and Nortonโs
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 Theveninโs 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 Faradayโs 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
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-ฯ 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 Morganโs Theorems
12.5 The Full Adder
12.6 The Karnaugh Map
12.7 Donโt Care or Canโt 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: Fourierโs 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: Theveninโs Theorem
Appendix B: Exponentials
Index
๐ SIMILAR VOLUMES
Introduced more than a decade ago, the first edition of D.V. Bugg's Electronics: Circuits, Amplifiers and Gates became widely popular for its comprehensive yet concise coverage of all the major introductory topics in electronics. Today, semiconductor chips and integrated circuits are used universall