Cover image for Wireless networks : from the physical layer to communication, computing, sensing, and control
Title:
Wireless networks : from the physical layer to communication, computing, sensing, and control
Publication Information:
Burlington, MA : Elsevier Academic Press, 2006
ISBN:
9780123694263

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30000010099169 TK5105.78 W57 2006 Open Access Book Book
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Summary

Summary

Awarded by the International Calabria's Prize!

This multidisciplinary volume originates from lectures presented at a short course on wireless communications in Capri, Italy. This globally attended conference has produced an exceptional book written by pioneers in the field. Lecturers at Capri included pillars in the fields of electromagnetics, communications, information technology and mathematics. As communications technology becomes increasingly wireless, an interdisciplinary viewpoint is necessary for professionals to correct problems and avoid others before they occur.

Wireless Networks covers critical technology within WLAN, ad hoc networks, data distribution, TV, radio, and personal mobile devices. As networks become wireless, engineers face increased difficulty securing its malleable boundaries. This book discusses security solutions such as sensor technology that prevent unwanted intrusion. Connectivity is also addressed, featuring chapters on antennas, bandwidth and frequencies. Editors Franceschetti and Stornelli have done a great service to the wireless communications community in creating a compendium that delivers this spectrum of essential information in one reference.


Author Notes

Giorgio Franceschetti is currently Adjunct Professor at UCLA, Distinguished Visiting Scientist at JPL and Lecturer at the University of Delft, The Netherlands, in Satellite Navigation
Sabatino Stornelli is currently CEO of Seicos and of Selex-SeMa, both Finmeccanica Companies operating in the area of Telecommunication Services for Security


Table of Contents

Forewordp. xv
Prefacep. xvii
About the Authorsp. xxiii
1 Wireless Networks and Their Contextp. 1
1.1 Introductionp. 1
1.2 The Scenariop. 3
1.3 The Playersp. 6
1.4 Concluding Remarksp. 11
2 The Wireless Communications Physical Layerp. 13
2.1 Historical Perspectivesp. 13
2.2 Digital Communication Basicsp. 14
2.2.1 Complex Baseband Representation of Bandpass Signalsp. 15
2.2.2 Digital Transmissionp. 18
2.2.3 Performance Metrics for Digital Communicationp. 19
2.2.4 Some Limits on Performance of Digital Communication Systemsp. 22
2.2.5 Optimum Demodulationp. 24
2.2.6 Discussionp. 28
2.3 Orthogonal Modulationsp. 29
2.3.1 Orthogonal Frequency Division Multiplexingp. 29
2.3.2 Orthogonal Code Division Multiplexingp. 32
2.3.3 Binary Stream Modulationp. 35
2.3.4 Orthogonal Modulations with Memoryp. 37
2.4 Propagation in Wireless Channelsp. 40
2.4.1 Free Space Propagationp. 41
2.4.2 Multipath Propagationp. 46
2.4.3 Gaussian Modeling of Multipath Channelsp. 49
2.5 The Selectivity of Wireless Channelsp. 51
2.5.1 Frequency Selectivityp. 52
2.5.2 Spatial Selectivityp. 57
2.5.3 Time Selectivityp. 63
2.5.4 Summary of Channel Characteristicsp. 66
2.6 Physical Models of Wireless Systemsp. 68
2.6.1 Time-Flat Frequency-Flat (TF/FF) Channelsp. 70
2.6.2 Time-Varying Frequency-Flat (TV/FF) Channelsp. 72
2.6.3 Time-Flat Frequency-Varying (TF/FV) Channelsp. 73
2.6.4 Receiver-Space-Varying Frequency-Flat (RSV/FF) Channelp. 73
2.6.5 Transmitter-Receiver Space-Varying Frequency-Flat (TRSV/FF) Channelp. 74
2.6.6 Paradigms for Wireless Communicationp. 75
2.7 Modern Wireless Communicationp. 77
2.7.1 Capacity of the SISO Channelp. 79
2.7.2 Capacity of the SISO Varying Channelp. 82
2.7.3 Capacity of the RSV/TF/FF Channelp. 83
2.7.4 MIMO Capacityp. 86
2.8 Conclusionp. 90
3 Handset Communication Antennas Including Human Interactionsp. 95
3.1 Introductionp. 95
3.1.1 Mobile Communication Systemsp. 95
3.1.2 Antenna Designs for Handsetsp. 98
3.1.3 Interaction with the Humanp. 99
3.1.4 Objectives of this Chapterp. 100
3.2 Overview of Popular Handset Antennasp. 102
3.2.1 RF System Introductionp. 102
3.2.2 External Antennasp. 103
3.2.3 Internal Antennasp. 106
3.2.4 Non-Cellular Antennasp. 107
3.2.5 Key Electrical Parameters in Handset Antenna Designsp. 109
3.3 Integration of Multiple Antennasp. 111
3.3.1 Dual-Band PIFA Designp. 112
3.3.2 PIFA and Whip Antenna Combinationp. 113
3.3.3 PIFA and GPS IFA Combinationp. 124
3.4 Human Interaction in Handset Antenna Designp. 134
3.4.1 Human Head Effect on Handset Antennasp. 135
3.4.2 SAR Consideration in Handset Antenna Designsp. 139
3.4.3 SAR Reduction with a GPS IFAp. 144
3.5 Total Radiated Power (TRP)p. 146
3.5.1 Definition of TRPp. 147
3.5.2 PIFA Models in the 1900MHz Bandp. 148
3.5.3 SAR and TRPp. 151
3.6 Conclusionp. 154
4 Wireless Channel Modelp. 161
4.1 Introductionp. 161
4.1.1 The Deterministic Approachp. 162
4.1.2 The Stochastic Approachp. 164
4.2 The Deterministic Geometrical Model (DGM)p. 165
4.2.1 Input Datap. 166
4.2.2 Output Datap. 168
4.2.3 Rays Propagation, Reflection, and Diffractionp. 169
4.2.4 Resultsp. 172
4.3 The Stochastic Environment Modelp. 172
4.3.1 The Large-Scatterers Model (SELM)p. 176
4.3.2 The Small-Scatterers Model (SESM)p. 177
4.3.3 Analytic Resultsp. 178
4.3.4 Validationp. 182
4.4 Conclusionp. 184
5 Ad Hoc Wireless Networksp. 187
5.1 Introduction and Definitionsp. 187
5.1.1 Wireless Evolutionp. 187
5.1.2 Ad Hoc Network Characteristicsp. 189
5.1.3 Wireless Network Taxonomyp. 191
5.2 Ad Hoc Network Applicationsp. 192
5.2.1 The Battlefieldp. 193
5.2.2 Opportunistic Ad Hoc Networking in the Urban Grid and on Campusp. 196
5.3 Design Challengesp. 198
5.3.1 Mobility and Scalingp. 199
5.3.2 Cross Layer Interactionp. 199
5.3.3 The Rest of this Chapterp. 200
5.4 Overview of Scalable Ad Hoc Routing Protocolsp. 201
5.4.1 Routing in a Flat Network Address Structurep. 203
5.4.2 Hierarchical Routing Protocolsp. 210
5.4.3 Geographic Position Information Assisted Routingp. 218
5.5 The MINUTEMAN Projectp. 224
5.6 Scalable Routing in MINUTEMANp. 228
5.7 Backbone Node Deployment and Clusteringp. 229
5.7.1 Random Competition-Based Clusteringp. 230
5.7.2 Multihop Clusteringp. 232
5.8 Scalable Routing: LANMARp. 232
5.8.1 LANMAR in the MBNp. 232
5.8.2 Mobile IP Routing from the Internetp. 234
5.9 Simulation Experimentsp. 234
5.9.1 Cluster Stabilityp. 235
5.9.2 Routing Algorithm Performancep. 236
5.10 Related Workp. 237
5.11 Conclusionp. 238
6 Sensor Networksp. 243
6.1 Introductionp. 243
6.1.1 Motivationp. 243
6.1.2 Measured Data and Network Characteristicsp. 244
6.1.3 Metricsp. 245
6.1.4 Related Workp. 246
6.1.5 Main Contributions and Organization of the Chapterp. 248
6.2 Backgroundp. 248
6.3 Problem Settingp. 250
6.3.1 Network Modelp. 250
6.3.2 Signal Modelp. 251
6.4 Data Gathering of Spatially Correlated Random Processesp. 252
6.4.1 Lossless Data Gatheringp. 252
6.4.2 Node Placementp. 266
6.4.3 Lossy Data Gatheringp. 267
6.4.4 Remarksp. 272
6.5 Data Gathering of Spatio-Temporal Processesp. 273
6.5.1 Problem Setupp. 275
6.5.2 One-Dimensional Networkp. 276
6.5.3 Two-Dimensional Modelp. 282
6.5.4 Numerical Simulationsp. 284
6.5.5 Remarksp. 285
6.6 Conclusionp. 286
7 Wireless Networks and the Expected Next Revolution in Information Technologyp. 289
7.1 Introductionp. 289
7.2 The Wireless Mediump. 290
7.3 The Capacity and Architecture of Wireless Networksp. 296
7.4 Protocols for Ad Hoc Networksp. 302
7.4.1 Power Controlp. 303
7.4.2 Routingp. 305
7.4.3 Medium Access Controlp. 307
7.5 In-Network Processing for Function Computation in Sensor Networksp. 310
7.6 Networked Controlp. 312
Indexp. 319