09剑桥新书Fundamentals of High-Frequency CMOS Analog Integrated Circuits

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Fundamentals of High-Frequency CMOS Analog Integrated Circuits

With a design-centric approach, this textbook bridges the gap between fundamental analog

electronic circuits textbooks and more advanced RF IC design texts. The structure and operation of the building blocks of high-frequency ICs are introduced in a systematic manner, with an emphasis on transistor-level operation, the influence of device characteristics and parasitic effects, and input–output behavior in the time and frequency domains.

Key features include:

_ solved design examples to guide the reader through the decision process that

accompanies each design task, with an emphasis on key trade-offs;

_ coverage of the major issues that must be taken into account when combining

analog and digital circuit building blocks;

_ key criteria and parameters that are used to describe system-level performance;

_ simple circuit models to enable a robust understanding of high-frequency design

fundamentals;

_ SPICE simulations that are used to check results and fine-tune the design.

This textbook is ideal for senior undergraduate and graduate courses in RF CMOS

circuits, RF circuit design, and high-frequency analog circuit design. Analog

integrated circuit designers and RF circuit designers in industry who need help

making design choices will also find this a practical and valuable reference.
目录
1 Components of analog CMOS ICs 1
1.1 MOS transistors 1
1.1.1 Current–voltage relations of MOS transistors 3
1.1.1.1 The basic current–voltage relations without
velocity saturation 4
1.1.1.2 Current–voltage relations under velocity saturation 11
1.1.1.3 The sub-threshold regime 15
1.1.2 Determination of model parameters and related secondary effects 19
1.1.2.1 Mobility 20
1.1.2.2 Gate capacitance 20
1.1.2.3 Threshold voltage 21
1.1.2.4 Channel length modulation factor 23
1.1.2.5 Gate length (L) and gate width (W) 24
1.1.3 Parasitics of MOS transistors 25
1.1.3.1 Parasitic capacitances 26
1.1.3.2 The high-frequency figure of merit 30
1.1.3.3 The parasitic resistances 31
1.2 Passive on-chip components 36
1.2.1 On-chip resistors 36
1.2.2 On-chip capacitors 38
1.2.2.1 Passive on-chip capacitors 38
1.2.2.2 Varactors 40
1.2.3 On-chip inductors 43
2 Basic MOS amplifiers: DC and low-frequency behavior 49
2.1 Common source (grounded source) amplifier 49
2.1.1 Biasing 53
2.1.2 The small-signal equivalent circuit 54
2.2 Active transistor loaded MOS amplifier
(CMOS inverter as analog amplifier) 63
2.3 Common-gate (grounded-gate) amplifier 68
2.4 Common-drain amplifier (source follower) 70
2.5 The “long tailed pair” 75
2.5.1 The large signal behavior of the long tailed pair 84
2.5.2 Common-mode feedback 88
3 High-frequency behavior of basic amplifiers 95
3.1 High-frequency behavior of a common-source amplifier 97
3.1.1 The R-C load case 99
3.2 The source follower amplifier at radio frequencies 103
3.3 The common-gate amplifier at high frequencies 110
3.4 The “cascode” amplifier 114
3.5 The CMOS inverter as a transimpedance amplifier 118
3.6 MOS transistor with source degeneration at high frequencies 126
3.7 High-frequency behavior of differential amplifiers 129
3.7.1 The R-C loaded long tailed pair 129
3.7.2 The fully differential, current-mirror loaded amplifier 132
3.7.3 Frequency response of a single-ended output long tailed pair 136
3.7.4 On the input and output admittances of the long tailed pair 141
3.8 Gain enhancement techniques for high-frequency amplifiers 143
3.8.1 “Additive” approach: distributed amplifiers 144
3.8.2 Cascading strategies for basic gain stages 146
3.8.3 An example: the “Cherry–Hooper” amplifier 148
4 Frequency-selective RF circuits 155
4.1 Resonance circuits 156
4.1.1 The parallel resonance circuit 156
4.1.1.1 The quality factor of a resonance circuit 160
4.1.1.2 The quality factor from a different point of view 163
4.1.1.3 The “Q enhancement” 164
4.1.1.4 Bandwidth of a parallel resonance circuit 168
4.1.1.5 Currents of L and C branches of a parallel
resonance circuit 169
4.1.2 The series resonance circuit 170
4.1.2.1 Component voltages in a series resonance circuit 172
4.2 Tuned amplifiers 172
4.2.1 The common-source tuned amplifier 173
4.2.2 The tuned cascode amplifier 179
4.3 Cascaded tuned stages and the staggered tuning 181
4.4 Amplifiers loaded with coupled resonance circuits 189
4.4.1 Magnetic coupling 189
4.4.2 Capacitive coupling 194
4.5 The gyrator: a valuable tool to realize high-value on-chip inductances 194
4.5.1 Parasitics of a non-ideal gyrator 197
4.5.2 Dynamic range of a gyrator-based inductor 201
4.6 The low-noise amplifier (LNA) 202
4.6.1 Input impedance matching 203
4.6.2 Basic circuits suitable for LNAs 207
4.6.3 Noise in amplifiers 210
4.6.3.1 Thermal noise of a resistor 212
4.6.3.2 Thermal noise of a MOS transistor 213
4.6.4 Noise in LNAs 224
4.6.5 The differential LNA 234
5 L-C oscillators 237
5.1 The negative resistance approach to L-C oscillators 237
5.2 The feedback approach to L-C oscillators 245
5.3 Frequency stability of L-C oscillators 249
5.3.1 Crystal oscillators 251
5.3.2 The phase-lock technique 253
5.3.3 Phase noise in oscillators 255
6 Analog–digital interface and system-level design considerations 259
6.1 General observations 259
6.2 Discrete-time sampling 263
6.3 Influence of sampling clock jitter 265
6.4 Quantization noise 267
6.5 Converter specifications 268
6.5.1 Static specifications 269
6.5.2 Frequency-domain dynamic specifications 273
6.6 Additional observations on noise in high-frequency ICs 275
Appendix A Mobility degradation due to the transversal field 277
Appendix B Characteristic curves and parameters of AMS 0.35 micron
NMOS and PMOS transistors 279
Appendix C BSIM3-v3 parameters of AMS 0.35 micron NMOS
and PMOS transistors 281
Appendix D Current sources and current mirrors 287
D.1 DC current sources 287
D.2 Frequency characteristics of basic current mirrors 289
D.2.1 Frequency characteristics for normal saturation 291
D.2.2 Frequency characteristics under velocity saturation 292

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