Content-Based Video Retrieval

A Database Perspective

By: Johan Janssens, Michiel Steyaert, Richard Curtis

Write A Review

Hardcover | 31 January 2002

At a Glance

Hardcover
280 Pages

Dimensions(cm)
24.13 x 15.88 x 1.91

Hardcover

$249.00

or 4 interest-free payments of $62.25 with

Ships in 5 to 7 business days

CMOS Cellular Receiver Front-Ends: from Specification to Realization deals with the design of the receive path of a highly-integrated CMOS cellular transceiver for the GSM-1800 cellular system. The complete design trajectory is covered, starting from the documents describing the standard down to the systematic development of CMOS receiver ICs that comply to the standard. The design of CMOS receivers is tackled at all abstraction levels: from architecture level, via circuit level, down to the device level, and the other way around.

The theoretical core of the book discusses the fundamental and more advanced aspects of RF CMOS design. It focuses specifically on all aspects of the design of high-performance CMOS low-noise amplifiers.

Shipping

	Standard Shipping	Express Shipping
Metro postcodes:	$9.99	$14.95
Regional postcodes:	$9.99	$14.95
Rural postcodes:	$9.99	$14.95

Orders over $79.00 qualify for free shipping.

How to return your order

At Booktopia, we offer hassle-free returns in accordance with our returns policy. If you wish to return an item, please get in touch with Booktopia Customer Care.

Additional postage charges may be applicable.

Defective items

If there is a problem with any of the items received for your order then the Booktopia Customer Care team is ready to assist you.

For more info please visit our Help Centre.

You Can Find This Book In

Non-Fiction Engineering & Technology Energy Technology & Engineering Electrical Engineering Electronics & Communications Engineering Electronics Engineering Electronic Devices & Materials Semi-Conductors & Super-Conductors Communications Engineering & Telecommunications Radio Technology Circuits & Components Medicine

Medicine in General Computing & I.T.Computer Science

Preface	p. vii
Acknowledgements	p. xi
Table of Contents	p. xiii
List of Symbols and Abbreviations	p. xix
Introduction	p. 1
The Explosive Growth of Mobile Communications	p. 1
The Need for Cost Reduction	p. 3
Cost Reduction through Integration	p. 3
Research in the World: Transceivers from Past to Present	p. 5
Research Work	p. 7
The DCS-1800 Communication System	p. 11
Introduction	p. 11
Frequency Plan	p. 11
Modulation Method	p. 12
MSK Modulation	p. 12
GMSK Modulation	p. 16
Conclusion	p. 19
Receiver Architecture and Specifications	p. 21
Introduction	p. 21
Cellular Receiver Architectures	p. 21
The Super-Heterodyne Architecture	p. 22
Structure	p. 22
Properties	p. 22
The Zero-IF and Low-IF Architecture	p. 24
Structure	p. 24
Properties	p. 26
Other Architectures	p. 29
A Low-IF Receive Path for a DCS-1800 Transceiver	p. 29
From DCS Standard to Receiver Specifications	p. 31
From Bit-error Rate to Signal-to-noise Ratio	p. 31
Noise Figure	p. 33
Image Rejection Ratio	p. 33
LO Leakage	p. 36
Intermodulation Performance	p. 37
Phase Noise	p. 37
Spurious Suppression	p. 39
From Receiver Specifications to Circuit Specifications	p. 40
The Low Noise Amplifier	p. 40
Quadrature Mixers	p. 41
VGA--Filter	p. 41
A/D Converters	p. 42
Overall Quadrature Accuracy	p. 43
Specification Summary	p. 44
DCS-1800 versus GSM-900	p. 47
Conclusion	p. 48
Deep Submicron CMOS Transistors	p. 49
Introduction	p. 49
Hand Calculation Model	p. 50
Transconductance and Transconductance Efficiency	p. 53
Distortion and Intermodulation	p. 54
Conclusion	p. 61
RF CMOS Design for Analog Designers	p. 63
Introduction	p. 63
Impedance-, Power- and Noise Matching	p. 64
Termination	p. 64
Impedance Matching versus Power Matching	p. 65
Noise Matching	p. 67
MOS Power Matching by Inductive Source Degeneration	p. 68
Matching Principle	p. 68
Effective Transconductance and Power-to-Current Conversion	p. 68
Analysis of the Power Flow	p. 70
The Non-Quasi Static Effect	p. 72
Origin of the Non-Quasi Static Effect	p. 72
First Order Non-Quasi Static Model	p. 73
Importance of the Non-Quasi Static Effect in the Low GHz Range	p. 75
Optimum MOS Power Matching	p. 76
Indirect Matching Principle	p. 76
How Leaving Out the Matching Network M Affects the PCC	p. 77
Fundamental Power Matching Limit	p. 78
Noise Sources in MOS Devices	p. 81
Classical Channel Thermal Noise	p. 81
Non-Quasi Static Gate Noise Current	p. 83
Exotic and Parasitic Noise Sources	p. 84
Performing Advanced Noise Simulations in a Classical Simulator	p. 85
The Noise Figure of an Input-Matched MOS Device	p. 86
Noise Figure under Noise Matching Conditions	p. 87
Noise Figure under Source Matching Constraints	p. 87
Impact of the Source Matching Scheme on Noise Figure and PCC	p. 89
Some Early Considerations on Noise Optimization	p. 92
The IP[subscript 3] of an Input-Matched MOS Device	p. 94
Impact of Feedback on Linearity	p. 95
Case Study: The IP[subscript 3] of an Input-Matched MOS Device	p. 95
Conclusions	p. 98
Systematic CMOS LNA Design	p. 101
Introduction	p. 101
Narrow-band Low Noise Amplifier Topologies	p. 102
Cascode Low Noise Amplifiers	p. 103
Gain and Noise Figure	p. 105
From PCC to Gain	p. 105
Noise Figure	p. 106
Impact of Input Capacitance on Matching, PCC and NF	p. 108
Impact on Matching	p. 108
Impact on PCC and Noise Figure	p. 111
A Low-C[subscript p] Bondpad Structure with a High Q-factor	p. 113
Impact of C[subscript gd] and M on Matching, PCC and NF	p. 114
LNA Design Equations	p. 117
The Design of the Cascode Device	p. 119
Optimization of the Cascode Pole	p. 120
Optimization of the Overall Noise Figure	p. 121
Unwanted Side-effects Initiated by the Cascode	p. 122
Systematic LNA Design: A Case Study	p. 123
Target Specifications, Boundary Conditions and Constraints	p. 124
Analysis of the Specification Dynamics	p. 125
Contour-Based Sizing	p. 128
Impact of the Source Resistance on Power Consumption	p. 131
Fallacies and Pitfalls of LNA Noise Figure Dynamics	p. 133
The Actual Importance of the Non-Quasi Static Gate Noise	p. 133
The Tricky Relation between NF, g[subscript m] and Current Consumption	p. 135
The First Pitfall: NF versus I[subscript DS] for a Fixed LNA (Fixed W/L)	p. 135
The Second Pitfall: NF versus I[subscript DS] at a Fixed V[subscript GS] - V[subscript T]	p. 136
Predicting the NF dynamics along an Arbitrary Trajectory	p. 137
Impact of a Finite [Gamma] on LNA Performance	p. 138
Impact of a Finite [Gamma] on PCC and NF	p. 138
Main Conclusions	p. 140
Mathematical Explanation	p. 142
Impact of a Finite [Gamma] on IP[subscript 3] and Q[subscript in]	p. 145
Intrinsically Unmatched Input Structures	p. 145
Series Resonant Input Structure	p. 145
Parallel Resonant Input Structure	p. 147
Systematic LNA Design: The Case Study Revisited	p. 148
From a 50 [Omega] Match to a 32 [Omega] Match	p. 148
Direct Connection between the 50 [Omega] Source and the 32 [Omega] Input	p. 149
Conclusion	p. 150
A 0.25 [mu]m CMOS Receiver Prototype for DCS-1800 Cellular Communications	p. 153
Introduction	p. 153
Receiver Topology	p. 153
Low Noise Amplifier	p. 153
Down-converter with Active Inductor LO Interface	p. 155
Design Considerations	p. 157
Down-converter and Active Inductor LO Interface	p. 157
Low Noise Amplifier	p. 159
Realization	p. 160
Experimental Results	p. 160
Discussion	p. 163
Conclusion	p. 165
A 0.8 dB NF, ESD-protected CMOS LNA	p. 167
Introduction	p. 167
The GPS Frequency Plan in a Nutshell	p. 168
GPS Power Levels and LNA Requirements	p. 168
Topology	p. 170
Design	p. 171
Layout	p. 174
Experimental Results	p. 176
ESD Performance	p. 178
Measured ESD Susceptibility	p. 178
Expected ESD Performance with an On-chip Clamp	p. 178
Discussion and Comparison with Existing CMOS LNAs	p. 178
Conclusion	p. 181
A 2V CMOS DCS-1800 Receiver Front-End	p. 183
Introduction	p. 183
Receiver Topology	p. 184
The Down-Conversion Mixer and the Filter/VGA	p. 188
Design Equations	p. 188
Conversion Gain	p. 188
Noise Figure	p. 189
Linearity	p. 195
DC offset	p. 195
VGA input impedance	p. 196
VGA stability	p. 197
Design Procedure	p. 198
The Low Noise Amplifier	p. 208
Selection of the LNA Input Impedance	p. 208
Optimization of the Coupling Capacitor	p. 208
Design Trajectory	p. 210
Practical Implementation	p. 210
Layout	p. 213
Experimental Results	p. 214
Conclusion	p. 229
Noise Figure of Receiver Systems	p. 231
Sensitivity, Noise Factor and Noise Figure	p. 231
Noise Figure of Receiver Building Blocks	p. 232
Amplifiers	p. 232
Mixers	p. 233
Noise Figure of Receiver Systems	p. 235
Single-Path Receivers	p. 235
Quadrature Receivers	p. 236
HD[subscript x] and IM[subscript x] Ratios based on Taylor Expansion of i[subscript DS]	p. 241
Essentials of Two-port Noise Theory	p. 243
Bibliography	p. 245
Table of Contents provided by Ingram. All Rights Reserved.

Content-Based Video Retrieval

A Database Perspective

At a Glance

Hardcover

Shipping

How to return your order

Defective items

You Can Find This Book In

More in Semi-Conductors & Super-Conductors

Handbook of Semiconductor Technology

Understanding Semiconductors

A Technical Approach

Encyclopedia of Electronic Components

Resistors, Capacitors, Inductors, Semiconductors, Electromagnetism

Encyclopedia of Electronic Components Volume 2

Make: More Electronics

Journey Deep into the World of Logic Chips, Amplifiers, Sensors, and Randomicity

Practical Electronics for Inventors

Electronics

Mechanics of Flexible and Stretchable Electronics

Semiconductors and Nanostructures

An Introduction

Introduction to Photocatalysis

Fundamentals and Applications

Redox-active Polymers for Energy Storage and Medical Devices

Electronic Design Automation for IC Implementation, Circuit Design, and Process Technology

Volume 2

Surface Modifications of Nanomaterials for Energy, Environmental and Biomedical Applications

Micro & Nano Technologies

Easy Electronics

Make: Handbook

Semiconductor Technology

Processing and Integration

The Physics of Solar Cells : Photons In, Electrons Out

Photons In, Electrons Out

Handbook of Semiconductors

Fundamentals to Emerging Applications

Optical Sensors and Distributed Sensing

Innovations, Techniques, and Applications

Sustainable Nanomaterials

Micro and Nano Technologies

Current Advancements in Nanomaterials for Wastewater Remediation

Challenges and Mitigation Strategies

Contemporary Theory of Semiconductors and Devices

Semiclassical and Quantum Physical Principles and Applications

Sustainable Green Nanomaterials for Mitigation of Microplastics and Plastic Additives Pollution

Micro & Nano Technologies

Polymer Micro and Nanocomposites for High Voltage Insulation

Properties and Applications

Metal Oxide Supported Metal Nanoparticles

Synthesis, Characterization, and Applications

Piezo-supercapacitors As Sustainable Energy Devices

Fundamentals and Applications

This product is categorised by