Preface | |
What is design? | p. 1 |
Design and synthesis | p. 1 |
Choosing a circuit shape | p. 2 |
Method in design | p. 3 |
Working with circuit shapes | p. 5 |
Construction and manufacture | p. 6 |
Notes | p. 6 |
High frequency band-pass amplifiers | p. 8 |
Tuned amplifiers | p. 8 |
The problem of regeneration | p. 8 |
Adding circuits together | p. 10 |
An experimental circuit | p. 11 |
Performance of the experimental circuit | p. 13 |
Thinking with the help of vectors | p. 15 |
What is a usable circuit? | p. 16 |
Algebra and design | p. 16 |
Making the experimental circuit stable | p. 19 |
An experimental circuit using bipolar transistors | p. 20 |
Notes | p. 23 |
Operational amplifiers | p. 26 |
Definitions | p. 26 |
A simple experimental operational amplifier circuit | p. 27 |
Circuit details of the experimental amplifier | p. 28 |
Transfer from a differential input to a single-ended output | p. 29 |
The problem of large common mode signals | p. 33 |
Current sources and sinks in monolithic silicon | p. 34 |
The current mirror | p. 35 |
Input bias current cancellation | p. 37 |
Reflections | p. 40 |
Notes | p. 41 |
Operational amplifier systems | p. 43 |
Systems | p. 43 |
Combining operational amplifier circuits | p. 43 |
A three amplifier system | p. 45 |
Measurement and control systems | p. 46 |
Measurements | p. 49 |
Thermal design of integrated circuits | p. 50 |
Good thermal design | p. 52 |
Measurement of input impedance | p. 54 |
Conclusions | p. 57 |
Notes | p. 57 |
A photodiode amplifier | p. 59 |
Photodiodes | p. 59 |
Noise and the optimum use of a signal source | p. 61 |
Bandwidth considerations | p. 63 |
A shape for an experimental circuit | p. 64 |
Details of an experimental circuit | p. 66 |
A general discussion of power gain | p. 68 |
Notes | p. 71 |
Digital circuits | p. 72 |
Switches | p. 72 |
Logic gates | p. 72 |
The ideal digital device | p. 74 |
The evolution of solid state electronic switching circuits | p. 74 |
Transistor-transistor logic (TTL) | p. 75 |
Schottky TTL | p. 79 |
Emitter coupled logic (ECL) | p. 83 |
Very large scale integration (VLSI) | p. 84 |
Integrated injection logic | p. 87 |
An experimental circuit | p. 91 |
Conclusions | p. 93 |
Notes | p. 94 |
Sinusoidal oscillators | p. 97 |
Origins | p. 97 |
Oscillators as systems | p. 98 |
Varying the oscillator frequency | p. 100 |
Oscillators using resistance capacity (RC) networks | p. 102 |
All-pass networks in oscillators | p. 103 |
An experimental RC oscillator | p. 105 |
Crystal controlled oscillators | p. 107 |
Crystal oscillator circuits | p. 108 |
An experimental crystal oscillator | p. 109 |
Notes | p. 110 |
Translinear circuits | p. 112 |
Translinearity | p. 112 |
The operational transconductance amplifier (OTA) | p. 114 |
Linearisation of translinearity | p. 116 |
An experimental circuit | p. 117 |
Further applications of the OTA | p. 121 |
Absolute temperature measurement and voltage references | p. 121 |
The logarithmic amplifier | p. 124 |
Trigonometric functions | p. 126 |
Notes | p. 126 |
Power amplifiers | p. 128 |
Power gain | p. 128 |
The classical stabilised power supply | p. 129 |
Switched mode power supplies | p. 131 |
Changing sign | p. 132 |
An experimental circuit | p. 134 |
Audio amplifier output circuits | p. 135 |
The class AB output circuit | p. 137 |
An experimental audio amplifier | p. 139 |
High frequency power amplifiers | p. 142 |
Narrow bandwidth, high efficiency, power amplifiers | p. 143 |
Wide bandwidth, high frequency, power amplifiers | p. 145 |
The distributed amplifier | p. 147 |
Notes | p. 150 |
Theory and practice | p. 152 |
Introduction | p. 152 |
Theory | p. 152 |
Science and technology | p. 154 |
Technique | p. 155 |
Practice | p. 156 |
Notes | p. 157 |
Appendix | p. 158 |
Author index | p. 167 |
Subject index | p. 170 |
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