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Radio Frequency Circuit Design, 2nd Edition

Name: Radio Frequency Circuit Design, 2nd Edition
Author: W. Alan Davis
ISBN: 9780470575079

by W. Alan Davis

December 2010

Intermediate to advanced

424 pages

11h

English

Wiley-IEEE Press

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Cover
Title page
Copyright page
Dedication
Preface to the Second Edition
Preface to the First Edition
CHAPTER ONE Information Transfer Technology
1.1 INTRODUCTION1.2 INFORMATION AND CAPACITY1.3 DEPENDENT STATES1.4 BASIC TRANSMITTER–RECEIVER CONFIGURATION1.5 ACTIVE DEVICE TECHNOLOGY
CHAPTER TWO Resistors, Capacitors, and Inductors
2.1 INTRODUCTION2.2 RESISTORS2.3 CAPACITORS2.4 INDUCTORS2.5 CONCLUSIONS
CHAPTER THREE Impedance Matching
3.1 INTRODUCTION3.2 THE Q FACTOR3.3 RESONANCE AND BANDWIDTH3.4 UNLOADED Q3.5 L CIRCUIT IMPEDANCE MATCHING3.6 π TRANSFORMATION CIRCUIT3.7 T TRANSFORMATION CIRCUIT3.8 TAPPED CAPACITOR TRANSFORMER3.9 PARALLEL DOUBLE-TUNED TRANSFORMER3.10 CONCLUSIONS
CHAPTER FOUR Multiport Circuit Parameters and Transmission Lines
4.1 VOLTAGE–CURRENT TWO-PORT PARAMETERS4.2 ABCD PARAMETERS4.3 IMAGE IMPEDANCE4.4 TELEGRAPHER’S EQUATIONS4.5 TRANSMISSION LINE EQUATION4.6 SMITH CHART4.7 TRANSMISSION LINE STUB TRANSFORMER4.8 COMMONLY USED TRANSMISSION LINES4.9 SCATTERING PARAMETERS4.10 INDEFINITE ADMITTANCE MATRIX4.11 INDEFINITE SCATTERING MATRIX4.12 CONCLUSIONS

CHAPTER FIVE Filter Design and Approximation
5.1 INTRODUCTION5.2 IDEAL AND APPROXIMATE FILTER TYPES5.3 TRANSFER FUNCTION AND BASIC FILTER CONCEPTS5.4 LADDER NETWORK FILTERS5.5 ELLIPTIC FILTER5.6 MATCHING BETWEEN UNEQUAL RESISTANCE LEVELS5.7 CONCLUSIONS
CHAPTER SIX Transmission Line Transformers
6.1 INTRODUCTION6.2 IDEAL TRANSMISSION LINE TRANSFORMERS6.3 TRANSMISSION LINE TRANSFORMER SYNTHESIS6.4 ELECTRICALLY LONG TRANSMISSION LINE TRANSFORMERS6.5 BALUNS6.6 DIVIDERS AND COMBINERS6.7 THE 90 ° COUPLER
CHAPTER SEVEN Noise in RF Amplifiers
7.1 SOURCES OF NOISE7.2 THERMAL NOISE7.3 SHOT NOISE7.4 NOISE CIRCUIT ANALYSIS7.5 AMPLIFIER NOISE CHARACTERIZATION7.6 NOISE MEASUREMENT7.7 NOISY TWO-PORT CIRCUITS7.8 TWO-PORT NOISE FACTOR DERIVATION7.9 FUKUI NOISE MODEL FOR TRANSISTORS
CHAPTER EIGHT Class A Amplifiers
8.1 INTRODUCTION8.2 DEFINITION OF GAIN [2]8.3 TRANSDUCER POWER GAIN OF A TWO-PORT NETWORK8.4 TRANSDUCER POWER GAIN USING S PARAMETERS8.5 SIMULTANEOUS MATCH FOR MAXIMUM POWER GAIN8.6 STABILITY8.7 CLASS A POWER AMPLIFIERS8.8 POWER COMBINING OF POWER AMPLIFIERS8.9 PROPERTIES OF CASCADED AMPLIFIERS8.10 AMPLIFIER DESIGN FOR OPTIMUM GAIN AND NOISE8.11 CONCLUSION
CHAPTER NINE RF Power Amplifiers
9.1 TRANSISTOR CONFIGURATIONS9.2 CLASS B AMPLIFIER9.3 CLASS C AMPLIFIER9.4 CLASS C INPUT BIAS VOLTAGE9.5 CLASS D POWER AMPLIFIER9.6 CLASS E POWER AMPLIFIER9.7 CLASS F POWER AMPLIFIER9.8 FEED-FORWARD AMPLIFIERS9.9 CONCLUSIONS
CHAPTER TEN Oscillators and Harmonic Generators
10.1 OSCILLATOR FUNDAMENTALS10.2 FEEDBACK THEORY10.3 TWO-PORT OSCILLATORS WITH EXTERNAL FEEDBACK10.4 PRACTICAL OSCILLATOR EXAMPLE10.5 MINIMUM REQUIREMENTS OF THE REFLECTION COEFFICIENT10.6 COMMON GATE (BASE) OSCILLATORS10.7 STABILITY OF AN OSCILLATOR10.8 INJECTION-LOCKED OSCILLATORS10.9 OSCILLATOR PHASE NOISE10.10 HARMONIC GENERATORS
CHAPTER ELEVEN RF Mixers
11.1 NONLINEAR DEVICE CHARACTERISTICS11.2 FIGURES OF MERIT FOR MIXERS11.3 SINGLE-ENDED MIXERS11.4 SINGLE-BALANCED MIXERS11.5 DOUBLE-BALANCED MIXERS11.6 DOUBLE-BALANCED TRANSISTOR MIXERS11.7 SPURIOUS RESPONSE11.8 SINGLE-SIDEBAND NOISE FACTOR AND NOISE TEMPERATURE11.9 SPECIAL MIXER APPLICATIONS11.10 CONCLUSIONS
CHAPTER TWELVE Phase-Lock Loops
12.1 INTRODUCTION12.2 PLL DESIGN BACKGROUND12.3 PLL APPLICATIONS12.4 PLL BASICS12.5 LOOP DESIGN PRINCIPLES12.6 LINEAR ANALYSIS OF THE PLL [5]*12.7 LOCKING A PHASE-LOCK LOOP12.8 LOOP TYPES12.9 NEGATIVE FEEDBACK IN A PLL12.10 PLL DESIGN EQUATIONS12.11 PHASE DETECTOR TYPES12.12 DESIGN EXAMPLES12.13 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) PARAMETERSSMALL-SIGNAL SINGLE-TRANSISTOR AMPLIFIER CONFIGURATIONS
APPENDIX G Transformed Frequency-Domain Measurements Using SPICE
G.1 INTRODUCTIONG.2 FREQUENCY-DOMAIN S PARAMETERSG.3 TIME-DOMAIN REFLECTOMETRY ANALYSISG.4 TIME-DOMAIN IDENTIFICATION OF CIRCUIT ELEMENTSG.5 MULTIPLE DISCONTINUITIESG.6 SAMPLE SPICE LISTG.7 IMPULSE RESPONSE SPICE NET LIST MODIFICATIONAcknowledgment
APPENDIX H Single-Tone Intermodulation Distortion Suppression for Double-Balanced Mixers
Index

Content preview from Radio Frequency Circuit Design, 2nd Edition

APPENDIX A Example of a Solenoid Design

The design of a solenoid inductor was described in Chapter 2. An example for a 100-nH solenoid design where the Q is evaluated at 200 MHz is shown below using the program SOLENOID where the bold type indicates user inputs. After initial values for the solenoid are given, the form length and number of integral turns are modified, but the form diameter remains unchanged. The interwire capacitance, C, the self-resonant frequency, F_res, and the Q are calculated.

Frequency in Hz for Q calculation = 200.E6Geometry -> Inductance, type <G>Inductance -> n, the number of turns, type <L>LDesired inductance, L (H), initial form Length,Form Diameter - inches, Initial value for no. turns100.E-9, 0.5, 0.1, 20Number of turns = 13.00000AWG = 21.0 Wire Diameter = .284625E-01Final Length = .576708E+00 inchesPitch = .44362E-01 Wire Diameter = .28462E-01 in.Turn Diameter = .12846E+00 in. Form Diameter = .10000E+00 in.L = .10002E+00 µHC = .203350E+00 pF Fres = .111600E+04 MHzQ = .649760E+02 at F = .200000E+03 MHz

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Radio Frequency Circuit Design, 2nd Edition

by W. Alan Davis

Become an O’Reilly member and get unlimited access to this title plus top books and audiobooks from O’Reilly and nearly 200 top publishers, thousands of courses curated by job role, 150+ live events each month,
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