附註:Includes bibliographical references (pages 169-176) and index.
Cover -- Table of Contents -- List of Figures -- List of Tables -- Foreword -- Acknowledgments -- Introduction -- 1. RADIO RECEIVER ARCHITECTURES -- 1. The Radio Spectrum -- 2. Classical Receiver Architectures -- 3. Summary -- 2. FUNDAMENTALS OF RADIO RECEPTION -- 1. Noise in Radio Receivers -- 2. Signal Distortion and Dynamic Range -- 3. Frequency Conversion and Frequency Planning -- 4. Cascaded Systems -- 5. Integrated Receivers -- 6. Review of Recent CMOS Receivers -- 7. Summary -- 3. A GLOBAL POSITIONING SYSTEM RECEIVER ARCHITECTURE -- 1. The Global Positioning System -- 2. Typical GPS Receiver Architectures -- 3. Opportunities for a Low-IF Architecture -- 4. GPS Receiver Architecture -- 5. Summary -- 4. LOW-NOISE AMPLIFICATION IN CMOS AT RADIO FREQUENCIES -- 1. Recent LNA Research -- 2. LNA Architectural Analysis -- 3. LNA Design Considerations -- 4. Summary -- 5. CMOS MIXERS -- 1. Review of Mixer Architectures -- 2. The Double-Balanced CMOS Voltage Mixer -- 3. Summary -- 6. POWER-EFFICIENT ACTIVE FILTERS -- 1. Passive and Active Filter Techniques -- 2. Dynamic Range of the Active Gm-C Filter -- 3. Power-Efficient Transconductors -- 4. Summary -- 7. AN EXPERIMENTAL CMOS GLOBAL POSITIONING SYSTEM RECEIVER -- 1. Low-Noise Amplifier -- 2. Voltage-Switching Mixer and LO Drivers -- 3. Intermediate Frequency Amplifier -- 4. Active Filter -- 5. Limiting Amplifier and Comparator -- 6. Biasing Details -- 7. Experimental Results -- 8. Summary -- 8. CONCLUSIONS -- 1. Summary -- 2. Recommendations for Future Work -- Appendices -- A ... Cross-correlation Properties of Limited Gaussian Noise Channels -- B ... Classical MOSFET Noise Analysis -- C ... Experimental CMOS Low-Noise Amplifiers -- D ... Measurement Techniques -- References.
摘要:The primary goal of The Design and Implementation of Low-Power CMOS Radio Receivers is to explore techniques for implementing wireless receivers in an inexpensive complementary metal-oxide-semiconductor (CMOS) technology. Although the techniques developed apply somewhat generally across many classes of receivers, the specific focus of this work is on the Global Positioning System (GPS). Because GPS provides a convenient vehicle for examining CMOS receivers, a brief overview of the GPS system and its implications for consumer electronics is presented. The GPS system comprises 24 satellites in low earth orbit that continuously broadcast their position and local time. Through satellite range measurements, a receiver can determine its absolute position and time to within about 100m anywhere on Earth, as long as four satellites are within view. The deployment of this satellite network was completed in 1994 and, as a result, consumer markets for GPS navigation capabilities are beginning to blossom. Examples include automotive or maritime navigation, intelligent hand-off algorithms in cellular telephony, and cellular emergency services, to name a few. Of particular interest in the context of this book are embedded GPS applications where a GPS receiver is just one component of a larger system. Widespread proliferation of embedded GPS capability will require receivers that are compact, cheap and low-power. The Design and Implementation of Low-Power CMOS Radio Receivers will be of interest to professional radio engineers, circuit designers, professors and students engaged in integrated radio research and other researchers who work in the radio field.
