RF AND MICROWAVE CIRCUIT DESIGN FOR WIRELESS COMMUNICATIONS. Lawrence E. Larson editor. Artech House Boston London

Similar documents
Phase-Locked Loops. Roland E. Best. Me Graw Hill. Sixth Edition. Design, Simulation, and Applications

Radio Technology and Architectures. 1 ENGN4521/ENGN6521: Embedded Wireless L#1

Phase-Locked Loop Engineering Handbook for Integrated Circuits

Integrated Circuit Design for High-Speed Frequency Synthesis

Preface... Chapter 1. Nonlinear Two-terminal Devices... 1

Figure 12-1 (p. 578) Block diagram of a sinusoidal oscillator using an amplifier with a frequencydependent

Practical RF Circuit Design for Modern Wireless Systems

ETEK TECHNOLOGY CO., LTD. To Be One of Best Manufacturers at Electronics and Communication Trainers Around the World.

INTRODUCTION TO TRANSCEIVER DESIGN ECE3103 ADVANCED TELECOMMUNICATION SYSTEMS

Session 3. CMOS RF IC Design Principles

RADIO-FREQUENCY AND MICROWAVE COMMUNICATION CIRCUITS

Designing Bipolar Transistor Radio Frequency Integrated Circuits

3/26/18. Lecture 3 EITN STRUCTURE OF A WIRELESS COMMUNICATION LINK

Introduction Introduction to radio frequencies p. 3 What are the 'radio frequencies'? p. 3 Why are radio frequencies different? p.

Analysis and Design of Autonomous Microwave Circuits

AM, PM and FM mo m dula l ti t o i n

CMOS RFIC ARCHITECTURES FOR IEEE NETWORKS

Mobile Communication An overview Lesson 03 Introduction to Modulation Methods

D ata transmission at 320 kb/s in the bandwidth

RF Basics 15/11/2013

Visit: rf.cdiweb.com Toll-Free:

Chapter 6. FM Circuits

The New England Radio Discussion Society electronics course (Phase 4, cont d) Introduction to receivers

433MHz front-end with the SA601 or SA620

Preface... Chapter 2. Amplifiers... 25

VALLIAMMAI ENGINEERING COLLEGE

MAHARASHTRA STATE BOARD OF TECHNICAL EDUCATION (Autonomous) (ISO/IEC Certified)

Receiver Design. Prof. Tzong-Lin Wu EMC Laboratory Department of Electrical Engineering National Taiwan University 2011/2/21

ANALOG INTEGRATED CIRCUITS FOR COMMUNICATION Principles, Simulation and Design

Bluetooth Receiver. Ryan Rogel, Kevin Owen I. INTRODUCTION

Microelectronic Circuits

RF Power Amplifiers for Wireless Communications

Smart Energy Solutions for the Wireless Home

EXPERIMENT WISE VIVA QUESTIONS

Design of Analog CMOS Integrated Circuits

Understanding Digital Communication Principles.

OptiSystem applications: Digital modulation analysis (PSK)

WIRELESS TRANSCEIVER DESIGN

Preface Introduction p. 1 History and Fundamentals p. 1 Devices for Mixers p. 6 Balanced and Single-Device Mixers p. 7 Mixer Design p.

RF and Baseband Techniques for Software Defined Radio

Department of Electronic and Information Engineering. Communication Laboratory

RF Integrated Circuits

Electronic Warfare Receivers. and Receiving Systems. Richard A. Poisel ARTECH HOUSE BOSTON LONDON. artechhouse.com

Modulation, Transmitters and Receivers

Introductory Electronics for Scientists and Engineers

Advanced Digital Communication Trainer

SYLLABUS. osmania university UNIT - I UNIT - II UNIT - III CHAPTER - 4 : OPERATIONAL AMPLIFIER

-SQA-SCOTTISH QUALIFICATIONS AUTHORITY HIGHER NATIONAL UNIT SPECIFICATION GENERAL INFORMATION

Wavedancer A new ultra low power ISM band transceiver RFIC

SYLLABUS. osmania university CHAPTER - 1 : OPERATIONAL AMPLIFIER CHAPTER - 2 : OP-AMP APPLICATIONS ARATORS AND CONVERTERS

RFIC Design ELEN 351 Lecture 2: RFIC Architectures

This place covers: Demodulation or transference of signals modulated on a sinusoidal carrier or on electromagnetic waves.

MIXED SIGNAL VLSI WIRELESS DESIGN. Circuits and Systems

Hours / 100 Marks Seat No.

PRODUCT APPLICATION NOTES

small signal linear gain G s is: More realistically, oscillation occurs at frequencies where the G 2 Oscillation frequency is controlled by

RF AND MICROWAVE TRANSMITTER DESIGN

SRM UNIVERSITY FACULTY OF ENGINEERING AND TECHNOLOGY DEPARTMENT OF TCE COURSE PLAN. Tech Park 13 th floor

A n I/Q modulator is frequently used in

Modern Communications Receiver Design and Technology

COMM 704: Communication Systems

NEW WIRELESS applications are emerging where

20 MHz-3 GHz Programmable Chirp Spread Spectrum Generator for a Wideband Radio Jamming Application

Summer 2015 Examination

Electronics Interview Questions

FREQUENCY AGILE FM MODULATOR INSTRUCTION BOOK IB

Technical Article A DIRECT QUADRATURE MODULATOR IC FOR 0.9 TO 2.5 GHZ WIRELESS SYSTEMS

Analog RF Electronics Education at SDSMT: A Hands-On Method for Teaching Electrical Engineers

Fully integrated CMOS transmitter design considerations

Today s communication

Low Cost Transmitter For A Repeater

i. At the start-up of oscillation there is an excess negative resistance (-R)

Ohm Technologiees.

analog-to-digital converter/digital-to-analog converter advanced infrared wireless (IBM) application-specific integrated circuits

Hybrid Frequency Synthesizer Combines Octave Tuning Range and Millihertz Steps

Third-Method Narrowband Direct Upconverter for the LF / MF Bands

Table Of Contents. Biphase Modulators & Upconverters. QPSK & QAM Modulators. SSB Upconverters. Mixer Terminology. Questions & Answers

Multiple Reference Clock Generator

SA602A Double-balanced mixer and oscillator

Receiver Architecture

Speed your Radio Frequency (RF) Development with a Building-Block Approach

SNS COLLEGE OF ENGINEERING COIMBATORE DEPARTMENT OF INFORMATION TECHNOLOGY QUESTION BANK

Ten-Tec Orion Synthesizer - Design Summary. Abstract

DIGITAL ELECTRONICS ANALOG ELECTRONICS

Wireless Communication Fading Modulation

Phase Noise and Tuning Speed Optimization of a MHz Hybrid DDS-PLL Synthesizer with milli Hertz Resolution

CHETTINAD COLLEGE OF ENGINEERING & TECHNOLOGY NH-67, TRICHY MAIN ROAD, PULIYUR, C.F , KARUR DT.

77 GHz VCO for Car Radar Systems T625_VCO2_W Preliminary Data Sheet

DHANALAKSHMI COLLEGE OF ENGINEERING DEPARTMENT OF ELECTRICAL AND ELECTRONICS ENGINEERING EC6202 ELECTRONIC DEVICES AND CIRCUITS

PRODUCT CATALOG TRAINER KITS FOR ENGINEERING DEGREE COURSES MICROTECH INDUSTRIES

PRACTICE. Amateur Radio Operator Certificate Examination. Advanced Qualification

CML Low Power Wireless Modem Solutions. Presented By :- Tom Mailey and David Falp

Lecture 12. Carrier Phase Synchronization. EE4900/EE6720 Digital Communications

Design and Implementation of PLL for Frequency Demodulation

Lesson Plan. Electronics 1-Total 51 Hours

PTX-0350 RF UPCONVERTER, MHz

LINEAR IC APPLICATIONS

Mobile & Wireless Networking. Lecture 2: Wireless Transmission (2/2)

Transmitter and Oscillator Systems

EC202- ELECTRONIC CIRCUITS II Unit- I -FEEEDBACK AMPLIFIER

Transcription:

RF AND MICROWAVE CIRCUIT DESIGN FOR WIRELESS COMMUNICATIONS Lawrence E. Larson editor Artech House Boston London

CONTENTS Preface xi Chapter 1 An Overview 1 1.1 Introduction 1 1.2 Markets and Frequencies for Wireless Communications 2 1.3 Circuit Technology Options for Wireless RF/Microwave Circuit Implementation 8 1.3.1 Semiconductor Devices 8 1.3.2 Passive Devices 10 1.4 Recent Examples of RF and Microwave Wireless Communications Circuits 10 1.5 Organization of the Book 13 References 15 Chapter 2 Introduction to Wireless Communications Applications and Circuit Design 17 2.1 Introduction 17 2.2 Current and Nascent Consumer Wireless Communications Standards and Applications 18 2.3 Radio Transceiver Technology Requirements 22

vi MICROWAVE & RF CIRCUIT DESIGN FOR WIRELESS COMMUNICATIONS 2.4 2.5 2.6 2.7 2.8 References Chapter 3 3.1 3.2 3.3 3.4 3.5 3.6 3.7 3.8 3.9 3.10 RF Component Requirements for Transceivers 2.4.1 Duplexer Requirements 2.4.2 Amplifier Requirements 2.4.3 Mixer Requirements 2.4.4 Filter Requirements 2.4.5 Frequency Synthesizer Requirements Systematic Analysis of Transceiver Design Digital Communications Requirements Electromagnetic Compatibility in Wireless Devices Conclusions Low-Power Radio Frequency ICs for Portable Communications Introduction Key Signal-Processing Issues in Wireless Transceivers ICs in Broadcast Radio Receivers ICs in Wireless Paging Receivers ICs in Cellular Telephone Transceivers Digital Cellular and Cordless Telephones Direct-Conversion Transceivers 3.7.1 Direct-Conversion Single-Sideband Synthesizers 3.7.2 Direct-Conversion Receivers for GSM Digital Cellular Telephones 3.7.3 Local Oscillators with Quadrature Outputs ICs for Spread-Spectrum Wireless Transceivers ICs to Enable Future Transceivers Conclusions Acknowledgment References Chapter 4 Digital Modulation And Demodulation 4.1 4.2 Why Digital Modulation? Phase Modulation 4.2.1 Binary Phase-Shift Keying (BPSK) 4.2.2 Quadriphase (Or Quadrature) Phase-Shift Keying (QPSK) 4.2.3 Offset Or Staggered Phase-Shift Keying (OQPSK) 4.2.4 8-PSK and 16-PSK 4.2.5 Nyquist Filtering as Applied to PSK Modulations 4.3 Frequency Modulation 4.3.1 Minimum Shift Keying (MSK) 4.3.2 Frequency Shift Keying (FSK) 27 28 28 29 29 30 30 33 38 40 40 43 43 45 51 57 60 67 73 73 75 76 78 81 87 88 89 99 99 101 101 115 134 140 145 155 156 166

Contents vü 4.4 Related Modulations 173 4.4.1 Gaussian-Filtered MSK (GMSK) 175 4.4.2 тг/4-shifted Differentially Encoded PSK (w/4-dqpsk) 193 4.4.3 Feher's QPSK (FQPSK) 204 4.5 Examples of Integrated Circuit Digital Communications Circuits 208 4.5.1 Design of Modulators and Demodulators for Wireless Communications Systems 214 4.6 Summary 219 References 222 Chapter 5 Mixers for Wireless Applications 225 5.1 Introduction 225 5.2 Properties of Mixers 226 5.2.1 Frequency Mixing 226 5.2.2 Practical Characteristics of Mixers 227 53 Semiconductor Devices for Mixers 231 5.3.1 Schottky-Barrier Diodes 232 5.3.2 Field-Effect Transistors 235 5.4 Frequency Mixing 242 5.5 Diode Mixers 244 5.5.1 Diode Mixer Characteristics 244 5.5.2 Single-Diode Mixers 245 5.5.3 Baluns and Hybrids for Wireless Mixers 248 5.5.4 Singly Balanced Diode Mixers 255 5.5.5 Doubly Balanced Diode Mixers 258 5.5.6 Image-Rejection Mixers 262 5.6 Active FET Mixers 263 5.6.1 Single-Device Active FET Mixers 263 5.6.2 Single-Device Mixer Circuits 266 5.6.3 Dual-Gate FET Mixer 268 5.6.4 Singly Balanced FET Mixers 269 5.6.5 Doubly Balanced FET Mixers 272 5.7 Passive FET Mixers 273 5.7.1 Single-Device FET Resistive Mixers 274 5.7.2 Balanced FET Resistive Mixers 276 5.7.3 FET Resistive Ring Mixer 277 5.7.4 Modeling FETs for Resistive Mixer Analysis 279 5.7.5 Mixer Comparison Table 280 5.8 Harmonic-Balance Simulation of Mixers 280 References 283

viii MICROWAVE & RF CIRCUIT DESIGN FOR WIRELESS COMMUNICATIONS Chapter 6 RF and Microwave Frequency Synthesizer Design 285 6.1 Introduction 285 6.2 Frequency Synthesizer Fundamentals 287 6.2.1 Frequency Synthesizer Figures of Merit 289 6.3 Voltage Controlled Oscillators 292 6.3.1 Introduction 292 6.3.2 General Oscillator Design 292 6.3.3 Colpitts and Hartley Oscillators 295 6.3.4 Clapp Oscillator 299 6.3.5 Crystal Oscillators 300 6.3.6 Oscillator Configurations for Microwave Frequencies 302 6.3.7 Dielectric Resonator Oscillators (DROs) 304 6.3.8 Practical Considerations for Oscillator Design 308 6.3.9 Voltage Control of Oscillators 309 6.3.10 Noise in Oscillators 310 6.3.11 Ring Oscillator VCO Designs 313 6.3.12 Multivibrator VCO Designs 317 6.4 Phase Lock-Loop Design 320 6.4.1 PLL Design Fundamentals 320 6.4.2 PLL Applications 326 6.4.3 Implementation of PLLs 329 6.5 Direct Digital Synthesis (DDS) 338 6.5.1 DDS Architectures and Design Considerations 340 References 343 Chapter 7 Amplifiers for Wireless Communications 345 7.1 Introduction 345 7.2 Wideband Amplifier Techniques 346 7.2.1 Gain-Bandwidth Product 346 7.2.2 Gain-Bandwidth of Practical Circuits 353 7.2.3 Wideband Matched-Impedance Amplifiers 359 7.3 Low-Noise Amplifiers 365 7.3.1 Guidelines for Low-Noise Amplifier Design 365 7.3.2 Practical Design of a Low-Noise Amplifier 367 7.4 Variable-Gain Amplifiers 369 7.4.1 Dynamic Range 370 7.4.2 Emitter-Driven and Base-Driven Gain-Control 371 7.4.3 Basic Circuit Configurations 374 7.4.4 Variable-Gain Circuit Configurations 378 7.5 Power Amplifiers 382 7.5.1 Class A Power Amplifier Design 384 7.5.2 Higher Efficiency Power Amplifiers 388

Contents ix 7.5.3 Maximum Power Gain and Stability 391 7.5.4 Practical Design Issues 392 References 394 Glossary 397 About the Editor 401 Index 403