116,99 €
This book focuses on components such as filters, transformers, amplifiers, mixers, and oscillators. Even the phase lock loop chapter (the last in the book) is oriented toward practical circuit design, in contrast to the more systems orientation of most communication texts.
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Seitenzahl: 465
Veröffentlichungsjahr: 2011
Table of Contents
Cover
Table of Contents
Title page
Copyright page
Dedication
Preface to the Second Edition
Preface to the First Edition
CHAPTER ONE Information Transfer Technology
1.1 INTRODUCTION
1.2 INFORMATION AND CAPACITY
1.3 DEPENDENT STATES
1.4 BASIC TRANSMITTER–RECEIVER CONFIGURATION
1.5 ACTIVE DEVICE TECHNOLOGY
CHAPTER TWO Resistors, Capacitors, and Inductors
2.1 INTRODUCTION
2.2 RESISTORS
2.3 CAPACITORS
2.4 INDUCTORS
2.5 CONCLUSIONS
CHAPTER THREE Impedance Matching
3.1 INTRODUCTION
3.2 THE Q FACTOR
3.3 RESONANCE AND BANDWIDTH
3.4 UNLOADED Q
3.5 L CIRCUIT IMPEDANCE MATCHING
3.6 π TRANSFORMATION CIRCUIT
3.7 T TRANSFORMATION CIRCUIT
3.8 TAPPED CAPACITOR TRANSFORMER
3.9 PARALLEL DOUBLE-TUNED TRANSFORMER
3.10 CONCLUSIONS
CHAPTER FOUR Multiport Circuit Parameters and Transmission Lines
4.1 VOLTAGE–CURRENT TWO-PORT PARAMETERS
4.2 ABCD PARAMETERS
4.3 IMAGE IMPEDANCE
4.4 TELEGRAPHER’S EQUATIONS
4.5 TRANSMISSION LINE EQUATION
4.6 SMITH CHART
4.7 TRANSMISSION LINE STUB TRANSFORMER
4.8 COMMONLY USED TRANSMISSION LINES
4.9 SCATTERING PARAMETERS
4.10 INDEFINITE ADMITTANCE MATRIX
4.11 INDEFINITE SCATTERING MATRIX
4.12 CONCLUSIONS
CHAPTER FIVE Filter Design and Approximation
5.1 INTRODUCTION
5.2 IDEAL AND APPROXIMATE FILTER TYPES
5.3 TRANSFER FUNCTION AND BASIC FILTER CONCEPTS
5.4 LADDER NETWORK FILTERS
5.5 ELLIPTIC FILTER
5.6 MATCHING BETWEEN UNEQUAL RESISTANCE LEVELS
5.7 CONCLUSIONS
CHAPTER SIX Transmission Line Transformers
6.1 INTRODUCTION
6.2 IDEAL TRANSMISSION LINE TRANSFORMERS
6.3 TRANSMISSION LINE TRANSFORMER SYNTHESIS
6.4 ELECTRICALLY LONG TRANSMISSION LINE TRANSFORMERS
6.5 BALUNS
6.6 DIVIDERS AND COMBINERS
6.7 THE 90 ° COUPLER
CHAPTER SEVEN Noise in RF Amplifiers
7.1 SOURCES OF NOISE
7.2 THERMAL NOISE
7.3 SHOT NOISE
7.4 NOISE CIRCUIT ANALYSIS
7.5 AMPLIFIER NOISE CHARACTERIZATION
7.6 NOISE MEASUREMENT
7.7 NOISY TWO-PORT CIRCUITS
7.8 TWO-PORT NOISE FACTOR DERIVATION
7.9 FUKUI NOISE MODEL FOR TRANSISTORS
CHAPTER EIGHT Class A Amplifiers
8.1 INTRODUCTION
8.2 DEFINITION OF GAIN
8.3 TRANSDUCER POWER GAIN OF A TWO-PORT NETWORK
8.4 TRANSDUCER POWER GAIN USING S PARAMETERS
8.5 SIMULTANEOUS MATCH FOR MAXIMUM POWER GAIN
8.6 STABILITY
8.7 CLASS A POWER AMPLIFIERS
8.8 POWER COMBINING OF POWER AMPLIFIERS
8.9 PROPERTIES OF CASCADED AMPLIFIERS
8.10 AMPLIFIER DESIGN FOR OPTIMUM GAIN AND NOISE
8.11 CONCLUSION
CHAPTER NINE RF Power Amplifiers
9.1 TRANSISTOR CONFIGURATIONS
9.2 CLASS B AMPLIFIER
9.3 CLASS C AMPLIFIER
9.4 CLASS C INPUT BIAS VOLTAGE
9.5 CLASS D POWER AMPLIFIER
9.6 CLASS E POWER AMPLIFIER
9.7 CLASS F POWER AMPLIFIER
9.8 FEED-FORWARD AMPLIFIERS
9.9 CONCLUSIONS
CHAPTER TEN Oscillators and Harmonic Generators
10.1 OSCILLATOR FUNDAMENTALS
10.2 FEEDBACK THEORY
10.3 TWO-PORT OSCILLATORS WITH EXTERNAL FEEDBACK
10.4 PRACTICAL OSCILLATOR EXAMPLE
10.5 MINIMUM REQUIREMENTS OF THE REFLECTION COEFFICIENT
10.6 COMMON GATE (BASE) OSCILLATORS
10.7 STABILITY OF AN OSCILLATOR
10.8 INJECTION-LOCKED OSCILLATORS
10.9 OSCILLATOR PHASE NOISE
10.10 HARMONIC GENERATORS
CHAPTER ELEVEN RF Mixers
11.1 NONLINEAR DEVICE CHARACTERISTICS
11.2 FIGURES OF MERIT FOR MIXERS
11.3 SINGLE-ENDED MIXERS
11.4 SINGLE-BALANCED MIXERS
11.5 DOUBLE-BALANCED MIXERS
11.6 DOUBLE-BALANCED TRANSISTOR MIXERS
11.7 SPURIOUS RESPONSE
11.8 SINGLE-SIDEBAND NOISE FACTOR AND NOISE TEMPERATURE
11.9 SPECIAL MIXER APPLICATIONS
11.10 CONCLUSIONS
CHAPTER TWELVE Phase-Lock Loops
12.1 INTRODUCTION
12.2 PLL DESIGN BACKGROUND
12.3 PLL APPLICATIONS
12.4 PLL BASICS
12.5 LOOP DESIGN PRINCIPLES
12.6 LINEAR ANALYSIS OF THE PLL*
12.7 LOCKING A PHASE-LOCK LOOP
12.8 LOOP TYPES
12.9 NEGATIVE FEEDBACK IN A PLL
12.10 PLL DESIGN EQUATIONS
12.11 PHASE DETECTOR TYPES
12.12 DESIGN EXAMPLES
12.13 CONCLUSIONS
APPENDIX A Example of a Solenoid Design
APPENDIX B Analytical Spiral Inductor Model
APPENDIX C Double-Tuned Matching Circuit Example
APPENDIX D Two-Port Parameter Conversion
APPENDIX E Termination of a Transistor Port with a Load
APPENDIX F Transistor and Amplifier Formulas
BIPOLAR TRANSISTOR PARAMETERS (BJT)
JUNCTION FIELD-EFFECT TRANSISTOR PARAMETERS (JFET)
METAL–OXIDE SEMICONDUCTOR FIELD-EFFECT TRANSISTOR (MOSFET) PARAMETERS
SMALL-SIGNAL SINGLE-TRANSISTOR AMPLIFIER CONFIGURATIONS
APPENDIX G Transformed Frequency-Domain Measurements Using SPICE
G.1 INTRODUCTION
G.2 FREQUENCY-DOMAIN S PARAMETERS
G.3 TIME-DOMAIN REFLECTOMETRY ANALYSIS
G.4 TIME-DOMAIN IDENTIFICATION OF CIRCUIT ELEMENTS
G.5 MULTIPLE DISCONTINUITIES
G.6 SAMPLE SPICE LIST
G.7 IMPULSE RESPONSE SPICE NET LIST MODIFICATION
Acknowledgment
APPENDIX H Single-Tone Intermodulation Distortion Suppression for Double-Balanced Mixers
Index
Copyright © 2011 by John Wiley & Sons, Inc. All rights reserved
Published by John Wiley & Sons, Inc., Hoboken, New Jersey
Published simultaneously in Canada
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Library of Congress Cataloging-in-Publication Data is available:
ISBN 978-0-470-57507-9; ISBN 978-1-118-09947-6(ePub)
In memory of Margaret
and to our children
Brent, Nathan, and Janelle
Preface to the Second Edition
Since the first edition of this book was published almost 10 years ago, radio frequency design techniques and applications have continued to rapidly expand. Readers of this second edition will find many changes from the first edition such as expansion of power amplifiers, oscillator phase noise, and impedance matching and deletion of other material. Some chapters and sections have been rearranged to provide a more logical flow. In particular, the chapter on noise now precedes the chapter on class A amplifiers. However, when this book is used in our course on radio frequency circuits, students are asked to do a design project using the software, Advanced Design System, from Agilent. It has been found helpful for students to start their project after understanding basic amplifier design and then treat the noise problem in their design subsequently. Throughout the book, design examples are given based on the text. Source code for the programs illustrated in the text are available at the website given in Chapter 1. These programs should be helpful to the working engineer in need of a quick solution and to the student wishing to understand some of the details in a computation.
I wish to acknowledge the many contributions made by Krishna K. Agarwal in the first edition of this book and the contributions to the class E power amplifier section by William Cantrell in this edition. I also wish to acknowledge the valuable suggestions given by the reviewers.
W. ALAN DAVIS
Arlington, Texas
May 2010
Preface to the First Edition
The cellular telephone has become a symbol for the rapid change in the communications business. Within this plastic container reside the talents of engineers working in the areas of efficient power supplies, digital circuit design, analog circuit design, semiconductor device design, antennas, linear systems, digital signal processing, packaging, and materials science. All these talents are carefully coordinated at a cost that allows a wide cross section of the world’s population to have available instant communication. The particular aspect of all these that is of primary focus in this text is in the area of analog circuit design with primary emphasis on radio frequency electronics. Topics normally considered in electronics courses or in microwave and antenna courses are not covered here. For example, there is no mention of distributed branch line couplers, since at 1 GHz their size would be prohibitive. On the other hand, topics such as transmission line transformers are covered because they fit so well into this frequency range.
This book is meant for those readers who have at least advanced standing in electrical engineering. The material in this text has been taught as a senior and graduate-level course in radio frequency circuit design at the University of Texas at Arlington. This class has continued to be popular for at least the last 20 years under the guidance of at least four different instructors, two of whom are the present authors. Because of the activity in the communications area, there has been ever greater interest in this subject. It is the intent of the authors, therefore, to update the current text offerings while at the same time avoiding simply reworking a microwave text.
The authors gratefully acknowledge the contribution of Michael Black, Raytheon Systems Company, to the phase lock loop discussion in Chapter 12.
W. ALAN DAVIS
KRISHNA K. AGARWAL
