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Electronics

Electronics

Neil Storey

(2017)

Additional Information

Book Details

Abstract

Electronics plays a central role in our everyday lives. It is at the heart of almost all of today’s essential technology, from mobile phones to computers and from cars to power stations. As such, all engineers, scientists and technologists need to have a fundamental understanding of this exciting subject, and for many this will just be the beginning. 

Now in its sixth edition, Electronics: A Systems Approach provides an outstanding introduction to this fast-moving and important field. Comprehensively revised and updated to cover the latest developments in the world of electronics, the text continues to use Neil Storey’s established and well-respected systems approach.  It introduces the basic concepts first before progressing to a more advanced analysis, enabling you to contextualise what a system is designed to achieve before tackling the intricacies of designing or analysing its various components with confidence. This book is accompanied by a website which contains over 100 video tutorials to help explain key concepts from the book and interactive quizzes to test your knowledge.  Log in to www.pearsoned.co.uk/storey-elec to access these valuable resources, or use the QR codes to view the videos.


Table of Contents

Section Title Page Action Price
Cover Cover
Title Page iii
Copyright Page iv
Brief Contents v
Contents vii
Preface xiii
List of Videos xvii
Acknowledgements xix
Publisher’s Acknowledgements xx
Part 1 ELECTRICAL CIRCUITS AND COMPONENTS 1
1 Basic Electrical Circuits and Components 3
1.1 Introduction 3
1.2 Système International units 4
1.3 Common prefixes 5
1.4 Electrical circuits 5
1.5 Direct current and alternating current 8
1.6 Resistors, capacitors and inductors 8
1.7 Ohm’s law 9
1.8 Kirchhoff’s laws 10
1.9 Power dissipation in resistors 11
1.10 Resistors in series 12
1.11 Resistors in parallel 12
1.12 Resistive potential dividers 13
1.13 Sinusoidal quantities 15
1.14 Circuit symbols 16
Further study 17
Key points 17
Exercises 18
2 Measurement of Voltages and Currents 20
2.1 Introduction 20
2.2 Sine waves 21
2.3 Square waves 28
2.4 Measuring voltages and currents 29
2.5 Analogue ammeters and voltmeters 30
2.6 Digital multimeters 34
2.7 Oscilloscopes 35
Further study 38
Key points 38
Exercises 39
3 Resistance and DC Circuits 42
3.1 Introduction 42
3.2 Current and charge 42
3.3 Voltage sources 43
3.4 Current sources 44
3.5 Resistance and Ohm’s law 44
3.6 Resistors in series and parallel 45
3.7 Kirchhoff’s laws 47
3.8 Thévenin’s theorem and Norton’s theorem 49
3.9 Superposition 53
3.10 Nodal analysis 56
3.11 Mesh analysis 58
3.12 Solving simultaneous circuit equations 62
3.13 Choice of techniques 62
Further study 63
Key points 63
Exercises 64
4 Capacitance and Electric Fields 69
4.1 Introduction 69
4.2 Capacitors and capacitance 69
4.3 Capacitors and alternating voltages and currents 71
4.4 The effect of a capacitor’s dimensions on its capacitance 72
4.5 Electric field strength and electric flux density 73
4.6 Capacitors in series and in parallel 75
4.7 Relationship between voltage and current in a capacitor 77
4.8 Sinusoidal voltages and currents 78
4.9 Energy stored in a charged capacitor 79
4.10 Circuit symbols 79
Further study 80
Key points 80
Exercises 81
5 Inductance and Magnetic Fields 83
5.1 Introduction 83
5.2 Electromagnetism 83
5.3 Reluctance 87
5.4 Inductance 87
5.5 Self-inductance 88
5.6 Inductors 89
5.7 Inductors in series and in parallel 91
5.8 Relationship between voltage and current in an inductor 91
5.9 Sinusoidal voltages and currents 93
5.10 Energy storage in an inductor 94
5.11 Mutual inductance 94
5.12 Transformers 96
5.13 Circuit symbols 97
5.14 The use of inductance in sensors 98
Further study 99
Key points 100
Exercises 100
6 Alternating Voltages and Currents 103
6.1 Introduction 103
6.2 Relationship between voltage and current 104
6.3 Reactance of inductors and capacitors 105
6.4 Phasor diagrams 108
6.5 Impedance 114
6.6 Complex notation 115
Further study 121
Key points 121
Exercises 122
7 Power in AC Circuits 125
7.1 Introduction 125
7.2 Power dissipation in resistive components 125
7.3 Power in capacitors 126
7.4 Power in inductors 127
7.5 Power in circuits with resistance and reactance 127
7.6 Active and reactive power 129
7.7 Power factor correction 131
7.8 Three-phase systems 132
7.9 Power measurement 133
Further study 133
Key points 134
Exercises 134
8 Frequency Characteristics of AC Circuits 136
8.1 Introduction 136
8.2 Two-port networks 136
8.3 The decibel (dB) 138
8.4 Frequency response 140
8.5 A high-pass RC network 141
8.6 A low-pass RC network 145
8.7 A low-pass RL network 148
8.8 A high-pass RL network 149
8.9 A comparison of RC and RL networks 150
8.10 Bode diagrams 151
8.11 Combining the effects of several stages 152
8.12 RLC circuits and resonance 154
8.13 Filters 159
8.14 Stray capacitance and inductance 163
Further study 164
Key points 164
Exercises 165
9 Transient Behaviour 168
9.1 Introduction 168
9.2 Charging of capacitors and energizing of inductors 168
9.3 Discharging of capacitors and de-energising of inductors 172
9.4 Generalised response of first-order systems 174
9.5 Second-order systems 179
9.6 Higher-order systems 180
Further study 180
Key points 181
Exercises 181
10 Electric Motors and Generators 184
10.1 Introduction 184
10.2 A simple AC generator 184
10.3 A simple DC generator 186
10.4 DC generators or dynamos 188
10.5 AC generators or alternators 189
10.6 DC motors 190
10.7 AC motors 191
10.8 Universal motors 193
10.9 Stepper motors 193
10.10 Electrical machines – a summary 195
Further study 196
Key points 196
Exercises 196
Part 2 \tELECTRONIC SYSTEMS 199
11 Electronic Systems 201
11.1 Introduction 201
11.2 A systems approach to engineering 202
11.3 Systems 202
11.4 System inputs and outputs 203
11.5 Physical quantities and electrical signals 204
11.6 System block diagrams 206
Further study 207
Key points 208
Exercises 208
12 Sensors 209
12.1 Introduction 209
12.2 Describing sensor performance 210
12.3 Temperature sensors 212
12.4 Light sensors 213
12.5 Force sensors 216
12.6 Displacement sensors 217
12.7 Motion sensors 222
12.8 Sound sensors 223
12.9 Sensor interfacing 224
12.10 Sensors – a summary 227
Further study 227
Key points 228
Exercises 228
13 Actuators 230
13.1 Introduction 230
13.2 H eat actuators 230
13.3 Light actuators 231
13.4 Force, displacement and motion actuators 233
13.5 Sound actuators 235
13.6 Actuator interfacing 236
13.7 Actuators – a summary 237
Further study 239
Key points 239
Exercises 239
14 Amplification 241
14.1 Introduction 241
14.2 Electronic amplifiers 243
14.3 Sources and loads 244
14.4 Equivalent circuit of an amplifier 246
14.5 Output power 250
14.6 Power gain 253
14.7 Frequency response and bandwidth 254
14.8 Differential amplifiers 255
14.9 Simple amplifiers 257
Further study 258
Key points 258
Exercises 259
15 Control and Feedback 261
15.1 Introduction 261
15.2 Open-loop and closed-loop systems 262
15.3 Automatic control systems 263
15.4 Feedback systems 265
15.5 Negative feedback 267
15.6 The effects of negative feedback 271
15.7 Negative feedback – a summary 274
Further study 274
Key points 275
Exercises 275
16 Operational Amplifiers 278
16.1 Introduction 278
16.2 An ideal operational amplifier 280
16.3 Some basic operational amplifier circuits 280
16.4 Some other useful circuits 285
16.5 Real operational amplifiers 294
16.6 Selecting component values for op-amp circuits 298
16.7 The effects of feedback on op-amp circuits 299
Further study 302
Key points 303
Exercises 304
17 Semiconductors and Diodes 309
17.1 Introduction 309
17.2 Electrical properties of solids 309
17.3 Semiconductors 310
17.4 pn junctions 312
17.5 Diodes 315
17.6 Semiconductor diodes 316
17.7 Special-purpose diodes 324
17.8 Diode circuits 328
Further study 333
Key points 333
Exercises 334
18 Field-effect Transistors 336
18.1 Introduction 336
18.2 An overview of field-effect transistors 336
18.3 Insulated-gate field-effect transistors 338
18.4 Junction-gate field-effect transistors 340
18.5 FET characteristics 342
18.6 FET amplifiers 350
18.7 Other FET applications 372
18.8 FET circuit examples 378
Further study 381
Key points 381
Exercises 382
19 Bipolar Junction Transistors 385
19.1 Introduction 385
19.2 An overview of bipolar transistors 385
19.3 Bipolar transistor operation 387
19.4 A simple amplifier 390
19.5 Bipolar transistor characteristics 391
19.6 Bipolar amplifier circuits 400
19.7 Bipolar transistor applications 437
19.8 Circuit examples 440
Further study 442
Key points 443
Exercises 444
20 Power Electronics 449
20.1 Introduction 449
20.2 Bipolar transistor power amplifiers 450
20.3 Classes of amplifier 453
20.4 Power amplifiers 456
20.5 Four-layer devices 461
20.6 Power supplies and voltage regulators 466
Further study 471
Key points 471
Exercises 472
21 Internal Circuitry of Operational Amplifiers 475
21.1 Introduction 475
21.2 Bipolar operational amplifiers 476
21.3 CMOS operational amplifiers 481
21.4 BiFET operational amplifiers 485
21.5 BiMOS operational amplifiers 485
Further study 486
Key points 486
Exercises 486
22 Noise and Electromagnetic Compatibility 488
22.1 Introduction 488
22.2 Noise sources 489
22.3 Representing noise sources within equivalent circuits 492
22.4 Noise in bipolar transistors 493
22.5 Noise in FETs 493
22.6 Signal-to-noise ratio 493
22.7 Noise figure 494
22.8 Designing for low-noise applications 495
22.9 Electromagnetic compatibility 496
22.10 Designing for EMC 501
Further study 510
Key points 510
Exercises 511
23 Positive Feedback, Oscillators and Stability 512
23.1 Introduction 512
23.2 Oscillators 512
23.3 Stability 519
Further study 524
Key points 524
Exercises 524
24 Digital Systems 527
24.1 Introduction 527
24.2 Binary quantities and variables 527
24.3 Logic gates 531
24.4 Boolean algebra 535
24.5 Combinational logic 537
24.6 Boolean algebraic manipulation 542
24.7 Algebraic simplification 545
24.8 Karnaugh maps 547
24.9 Automated methods of minimisation 554
24.10 Propagation delay and hazards 555
24.11 Number systems and binary arithmetic 557
24.12 Numeric and alphabetic codes 568
24.13 Examples of combinational logic design 574
Further study 580
Key points 581
Exercises 582
25 Sequential Logic 586
25.1 Introduction 586
25.2 Bistables 587
25.3 Monostables or one-shots 597
25.4 Astables 598
25.5 Timers 600
25.6 Memory registers 602
25.7 Shift registers 603
25.8 Counters 606
25.9 Design of sequential logic circuits 614
Further study 625
Key points 626
Exercises 627
26 Digital Devices 630
26.1 Introduction 630
26.2 Gate characteristics 632
26.3 Logic families 638
26.4 TTL 648
26.5 CMOS 659
26.6 Interfacing TTL and CMOS or logic using different supply voltages 673
26.7 Power dissipation in digital systems 675
26.8 Noise and EMC in digital systems 677
Further study 683
Key points 683
Exercises 684
27 Implementing Digital Systems 688
27.1 Introduction 688
27.2 Array logic 689
27.3 Microprocessors 709
27.4 System-on-a-chip (SOC) devices 744
27.5 Programmable logic controllers (PLCs) 744
27.6 Single-board computers and microcontrollers 745
27.7 Selecting an implementation method 749
Further study 749
Key points 750
Exercises 751
28 Data Acquisition and Conversion 753
28.1 Introduction 753
28.2 Sampling 753
28.3 Signal reconstruction 755
28.4 Data converters 755
28.5 Sample and hold gates 762
28.6 Multiplexing 763
Further study 766
Key points 766
Exercises 766
29 Communications 768
29.1 Introduction 768
29.2 The communications channel 770
29.3 Modulation 773
29.4 Demodulation 787
29.5 Multiplexing 787
29.6 Radio receivers 788
29.7 Microwave communication 790
29.8 Fibre-optic communication 792
Further study 793
Key points 794
Exercises 794
30 System Design 796
30.1 Introduction 796
30.2 Design methodology 796
30.3 Choice of technology 798
30.4 Electronic design tools 802
Further study 806
Key points 806
Exercises 807
Appendices A Symbols 808
B SI units and prefixes 811
C Op-amp circuits 813
D Complex numbers 818
E Answers to selected exercises 823
Index 826
A 826
B 827
C 828
D 829
E 831
F 831
G 832
H 832
I 833
J 833
K 833
L 834
M 834
N 835
O 835
P 836
Q 837
R 837
S 838
T 840
U 841
V 841
W 841
X 841
Z 841