WIRELESS TRANSCEIVER DESIGN - MASTERING THE DESIGN OF MODERN WIRELESS EQUIPMENT AND SYSTEMS

The insatiable demand for high-speed real-time computer connectivity anywhere, any time, fuelled by the wide-spreading acceptance of Internet Protocol, has accelerated the birth of a large number of wireless data networks. Wireless Transceiver Design provides a comprehensive, practical, self-contained and friendly guide to theoretical and practical modern wireless modem & transceiver design for experienced radio and communication engineers and students.
This book will enable readers to fully understand the specifications that characterize the performance of modern wireless modems and transceivers as a whole system, learn how to measure each one of them, and discover how they depend on (one or more) components and subsystems in the various architectures of widespread use. It discusses the important figures related to off-the-shelf radio-frequency and baseband super-components and explains how to measure them to fully evaluate applicability and limitations.
Key Features:
Readers will learn to master the design, analysis and measurement of important and hard-to-achieve parameters, such as phase noise of oscillators, peak-to-average and linearity of radio-frequency power amplifiers, amplitude and phase balance of quadrature channels and radiated spurious emission
Written so that each chapter is self contained and suitable to be consulted on an ad-hoc basis as a reference
The lesser covered topic of 'parasitic phenomena', the cause of many major after-market disasters, is addressed
The material is treated with in-depth mathematical approach, whilst avoiding unnecessarily obscure discussions
Suitable as the basis for advanced under-graduate and post-graduate engineering courses, as well as a comprehensive reference, this book will be of interest to those involved in R&D in the fields of engineering and computer sciences, radio engineers working on cellular products and system engineers in the wireless arena, as well as professors and lecturers in the field of communications, undergraduate and post-graduate students in engineering, computer sciences and system engineering.

Ariel Luzzatto has 30 years of experience, most of them designing commercial and industrial communication and RF products with Motorola Israel, and is a former lecturer of communication circuits and systems with Tel Aviv University. He holds a Ph.D. and a M.Sc. in applied mathematics, and a B.Sc. in electronic engineering from Tel Aviv University.
Gadi Shirazi has 25 years of experience, most of them designing advanced communication and RF products with Motorola Israel, and is a former lecturer of communication circuits and systems with Tel Aviv University. He holds a M.Sc. and a B.Sc. in electronic engineering from Tel Aviv university, and 24 patents in the field of communications.

Preface.
About the Authors.
Abbreviations.
1 Modern Transceiver Architectures.
1.1 Overview.
1.2 Receiver Architectures.
1.3 Transmitter Architectures.
1.4 Transceiver Architectures.
2 Receiving Systems.
2.1 Sensitivity.
2.2 Co-Channel Rejection.
2.3 Selectivity.
2.4 Intermodulation Rejection.
2.5 Half-IF Rejection.
2.6 Image Rejection.
2.7 Second-Order Distortion Rejection.
2.8 Blocking.
2.9 Dynamic Range.
2.10 Duplex Desense.
2.11 Duplex-Image Rejection.
2.12 Half-Duplex Spur.
2.13 Phantom-Duplex Spurs.
2.14 Conducted and Radiated Spurs.
3 Transmitting Systems.
3.1 Peak-to-Average Power Ratio (PAPR).
3.2 Effects of Nonlinearity in RF Power Amplifiers.
3.3 Characterization of PA Nonlinearity.
3.4 PA Efficiency.
3.5 Transmitter Transients.
3.6 Conducted and Radiated Emission.
3.7 Enhancement Techniques.
4 Synthesizers.
4.1 Synthesizer Architectures.
4.2 Fractional-N Outlook.
4.3 Fractional-N Theory.
4.4 Multi Stage Noise Shaping (MASH) Architecture.
4.5 MASH Noise Analysis.
4.6 Analog Sigma-Delta A/D Converter.
4.7 Review of PLL Fundamentals.
4.8 Extension of PLL Fundamentals to Fractional-N.
4.9 Measurement of Synthesizers.
5 Oscillators.
5.1 Low-Power Self-Limiting Oscillators.
5.2 Feedback Network Design.
5.3 Noisy Oscillator – Leeson’s Equation.
5.4 Bipolar Oscillators.
5.5 Crystal Oscillators.
5.6 Measurement of Crystal Parameters.
5.7 Measurement of Oscillators.
5.8 Lumped Equivalent of Distributed Resonators.
5.9 Harmonic Oscillators.
5.10 A Unified Approach to Oscillator Design.
6 Parasitic and Nonlinear Phenomena.
6.1 Parasitic Effects in Oscillators and Synthesizers.
6.2 Intercept Point and Spurious Responses.
6.3 Parasitic Effects in Transmitters.
6.4 Parasitic Effects in Receivers.
6.5 Specific Absorption Rate (SAR).
Bibliography.
Index.