Analog Integrated Circuits for Communication

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Edition: 2nd
Format: Hardcover
Pub. Date: 2008-01-30
Publisher(s): Springer Verlag
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Summary

Analog Integrated Circuits for Communication: Principles, Simulation and Design, Second Edition covers the analysis and design of nonlinear analog integrated circuits that form the basis of present-day communication systems. Both bipolar and MOS transistor circuits are analyzed and several numerical examples are used to illustrate the analysis and design techniques developed in this book. Especially unique to this work is the tight coupling between the first-order circuit analysis and circuit simulation results. Extensive use has been made of the public domain circuit simulator Spice, to verify the results of first-order analyses, and for detailed simulations with complex device models.Highlights of the new edition include:A new introductory chapter that provides a brief review of communication systems, transistor models, and distortion generation and simulation.Addition of new material on MOSFET mixers, compression and intercept points, matching networks.Revisions of text and explanations where necessary to reflect the new organization of the bookSpice input files for all the circuit examples that are available to the reader from a website.Problem sets at the end of each chapter to reinforce and apply the subject matter.An instructors solutions manual is available on the book's webpage at springer.com.Analog Integrated Circuits for Communication: Principles, Simulation and Design, Second Edition is for readers who have completed an introductory course in analog circuits and are familiar with basic analysis techniques as well as with the operating principles of semiconductor devices. This book also serves as a useful reference for practicing engineers.

Table of Contents

Reviewp. 1
Introductionp. 1
Amplitude and Frequency Modulationsp. 1
The Super-Heterodyne Receiverp. 3
Transistor Modelsp. 4
Bipolar Junction Transistor (BJT) Modelp. 5
MOSFET Modelp. 6
Distortion Generation and Characterizationp. 8
Noisep. 12
Problemsp. 13
Large-Signal Performance of the Basic Gain Stages in Analog ICsp. 15
The Emitter-Coupled Pairp. 15
Large-Signal DC Transfer Characteristic of the ECPp. 17
Large-Signal Circuit Analysis of the ECPp. 24
Series Expansions to Obtain Distortion Componentsp. 27
The Source-Coupled Pairp. 30
A Series Expansion to Obtain Distortion Components for the SCPp. 37
Problemsp. 39
Amplifier Power Series and Distortionp. 43
General Power Series Descriptionp. 43
Common-Emitter Stage Examplep. 45
The Ideal CE Stage with a Large Sinusoidal Input Voltagep. 49
Power Series and Fourier Series Characterizationsp. 54
The Common-Source MOS Amplifier Stagep. 59
Intermodulation Distortionp. 62
Compression and Intercept Pointsp. 68
Problemsp. 69
Distortion Generation with Source Resistance and Nonlinear Betap. 73
Linearization of a Bipolar Stage Due to Source Resistancep. 73
Distortion Reduction with Source Resistancep. 75
The ECP with Source Resistancep. 84
Nonlinear Beta and Distortionp. 88
Example of Distortion due to Beta(I[subscript c])p. 96
Problemsp. 97
Distortion in Feedback Amplifiersp. 101
Effects of Negative Feedbackp. 101
Feedback for a General Amplifierp. 105
A CE Stage with Shunt Feedbackp. 113
The CE Stage With Emitter Feedbackp. 116
Alternative Loop-Gain Calculationsp. 122
Emitter Feedback in the ECPp. 125
Internal Feedback in the ECP and the SCPp. 128
Problemsp. 136
Basic IC Output Stagesp. 139
Requirements for an Output Stagep. 139
The Emitter Followerp. 139
Distortion Calculation using Differential Errorp. 145
Power-Conversion Efficiencyp. 152
The Source Followerp. 156
Push-Pull Emitter Followersp. 159
The Push-Pull Source Followerp. 169
Push-Pull, Single-Polarity Output Stagesp. 170
Problemsp. 174
Transformersp. 181
Introductionp. 181
Elementary Coupled Coilsp. 181
Circuit Model for a Transformerp. 189
Inductive Two-Port Parametersp. 189
A Transformer-Coupled, Class-A BJT Output Stagep. 194
Maximum Power Transferp. 204
Class-A Push-Pull Operationp. 205
Class-AB Operationp. 213
Problemsp. 214
Tuned Circuits in Bandpass Amplifiersp. 221
Introductionp. 221
The Single-Tuned Circuitp. 222
Lowpass Equivalentsp. 225
Transformer-Coupled Single-Tuned Circuitsp. 228
Single-Tuned, Bandpass Circuits with Loosely Coupled Transformersp. 229
Double-Tuned Stagesp. 235
Parallel-to-Series/Series-to-Parallel Transformationsp. 239
Tuned Circuits as Impedance Transformersp. 242
Problemsp. 244
Simple Bandpass Amplifiersp. 247
Simple Active RC Bandpass Amplifiersp. 247
An ECP Bandpass Amplifierp. 251
Synchronous Tuning, Cascading, and Bandwidth Shrinkagep. 258
Effects of Internal Feedbackp. 262
Multistage Bandpass Design Examplep. 266
Cross Modulationp. 273
Problemsp. 277
Basic Electronic Oscillatorsp. 281
Instabilities, Oscillations and Oscillatorsp. 281
The Ideal Electronic Oscillatorp. 282
A Tunnel-Diode Oscillatorp. 284
The van der Pol Approximationp. 287
Tunnel-Diode Oscillator Examplep. 291
Wien-Type Oscillatorsp. 295
Transformer-Coupled ECP Oscillatorsp. 305
Transformerless ECP Oscillatorsp. 315
Problemsp. 326
Electronic Oscillators with Bias-Shift Limitingp. 331
Bias Shift during Oscillator Buildup in an ECP Oscillatorp. 331
The Basic Oscillator Equationp. 337
Single-Device, Transformer-Coupled Oscillatorsp. 339
Bias Shift and Harmonic Balancep. 343
Transformer-Coupled MOS Oscillatorsp. 352
Squeggingp. 355
Phase-Shift Oscillatorsp. 359
The Colpitts Oscillatorp. 362
Crystal-Controlled Oscillatorsp. 368
Problemsp. 371
Relaxation and Voltage-Controlled Oscillatorsp. 377
Relaxation-Mode Oscillationsp. 377
Oscillator Graphical Analysisp. 381
Regenerative Switching in a Relaxation Oscillatorp. 386
Recovery Analysis in a BJT Relaxation Feedback Oscillatorp. 390
Other Astable Oscillatorsp. 394
A CMOS Relaxation Oscillatorp. 397
Voltage- and Current-Controlled Oscillatorsp. 400
An Astable Schmitt Circuitp. 403
Equivalence of the Schmitt and Loop-Coupled Bistable Circuitsp. 406
A BJT VCOp. 406
Problemsp. 413
Analog Multipliers, Mixers, Modulatorsp. 417
The Emitter-Coupled Pair as a Simple Analog Multiplierp. 417
A Subtraction Improvementp. 421
Predistortion and Linearity Improvement in the ECPp. 425
The Gilbert Cellp. 429
MOS Analog Multipliersp. 431
Mixing, Modulation and Frequency Translationp. 434
The Fully Balanced (Quad) Mixerp. 436
Single-Device Mixersp. 439
BJT Mixersp. 440
MOSFET Mixersp. 445
Modulatorsp. 448
Problemsp. 450
Demodulators and Detectorsp. 457
AM Demodulation using Analog Multipliersp. 457
Synchronous AM Detectionp. 461
Peak Detectorsp. 462
Automatic Gain Controlp. 471
FM Demodulation, Off-Peak Detectionp. 473
Discriminatorsp. 477
FM Demodulators using Multipliersp. 480
Problemsp. 482
Phase-Locked Loopsp. 485
Basic Configurations and Applicationsp. 485
A Simple Circuit Model of a PLLp. 488
Voltage-Controlled Oscillator (VCO)p. 490
Filterp. 491
Phase Comparator (PC)p. 491
PLL Operationp. 493
The Small-Signal Analysis of the PLLp. 495
Dynamics of the PLL in the Locked Conditionp. 499
One-Pole Filterp. 501
One-Zero, One-Pole Filterp. 504
The Lock and Capture Rangesp. 506
Lock Rangep. 507
Capture Rangep. 508
Capture Examplesp. 510
PLLs with Overdriven PCs and Relaxation Oscillatorsp. 512
PLL Design Examplep. 515
PLL Parameters for a Typical IC Realizationp. 516
A PLL Example with a FM inputp. 518
Problemsp. 519
Referencesp. 525
Indexp. 529
Table of Contents provided by Ingram. All Rights Reserved.

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