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Localization in Wireless Networks: Foundations and Applications

Localization in Wireless Networks: Foundations and Applications
Kataloginformation
Feldname Details
Vorliegende Sprache eng
Hinweise auf parallele Ausgaben 366312723 Buchausg.: ‡Sanford, Jessica Feng: Localization in wireless networks
ISBN 978-1-4614-1838-2
Name Sanford, Jessica Feng
Potkonjak, Miodrag
Name ANZEIGE DER KETTE Potkonjak, Miodrag
Name Slijepcevic, Sasha
T I T E L Localization in Wireless Networks
Zusatz zum Titel Foundations and Applications
Verlagsort New York, NY
Verlag Springer New York
Erscheinungsjahr 2012
2012
Umfang Online-Ressource (XVI, 197p. 135 illus, digital)
Reihe SpringerLink. Bücher
Notiz / Fußnoten Description based upon print version of record
Weiterer Inhalt 2.4.1 Error Sources2.4.2 Theoretical Error Models; 2.4.3 Real Data Error Models; 2.4.3.1 Linear Regression Model; 2.5…Distance Measurements and Experimental Platform; 2.5.1 ILPILP-Based Instance Generation/Selection; References; 3 Location Discovery in Presence of Insufficient Number of Measurements; 3.1…Motivation and Overview; 3.2…Kernel Density Estimation-Based Offline Error Modeling; 3.2.1 Model Construction; 3.2.2 The Objective FunctionObjective Function (OFOF); 3.3…Equation-Based Online Error Modeling With Simultaneous Localization; 3.3.1 Parameter Fitting. 3.3.2 Monolithic Approximation3.3.3 Iterative Approximation; 3.3.4 Iterative Shape and Space Approximation; 3.3.5 Model Evaluation and Analysis; 3.4…Localized Location Discovery; 3.5…Experimental Results; References; 4 Lack of the Golden Standard and Missing Measurements; 4.1…Motivation and Global Flow; 4.2…Pairwise Consistency-Based Offline Error Modeling; 4.2.1 Regression; 4.2.1.1 Dynamic Programming-Based Regression; 4.2.1.2 Modifications of the Regression Function; 4.2.2 Density Estimation; 4.2.2.1 CDFCDF and PDFPDF Construction; 4.2.2.2 Optimization Objective. 5.3.3.2 Number of Neighbors5.3.3.3 Average of Three Closest Measurements; 5.3.3.4 Total Hop Count; 5.3.3.5 The Third Largest Angle; 5.3.3.6 Joint Probability and Property Correlation; 5.4…NLPNLP-Based Beacon Positioning; 5.4.1 Proof of NP-Completeness; 5.4.2 Selection of Representative Set of Nodes; 5.4.3 NLPNLP-Based Beacon Placement Formulation; 5.4.4 Lower Bound: Uniform Field; 5.5…Beacon Assignment and Scheduling; 5.5.1 Beacon Assignment; 5.5.2 Beacon Scheduling; 5.6…Experimental Results; 5.6.1 Location DiscoveryLocation Discovery Accuracy; 5.6.2 Beacon Assignment and Broadcast. References. Localization in WirelessNetworks; Foreword; Preface; Contents; 1 Introduction; 1.1…Wireless Ad Hoc Sensor Networks; 1.2…Contributions; 1.3…Organization; References; 2 Stastical Techniques and Location Discovery; 2.1…Statistical Techniques; 2.2…Location Discovery; 2.2.1 Definition; 2.2.2 Classification; 2.2.3 Ranging Technology; 2.2.4 Ranged-Based Location DiscoveryLocation Discovery; 2.2.5 Range-Free Location DiscoveryLocation Discovery; 2.2.6 Performance, Topology Control, Coverage and Connectivity; 2.3…Location Discovery Computational Complexity; 2.4…Measurements, Error Sources and Modeling. 4.3…Pairwise Consistency-Based Online Location Discovery4.4…Localized Location Discovery; 4.5…Experimental Results; 4.6…Global Ranking and Pairwise Consistency; References; 5 Beacon Positioning and Operations; 5.1…Motivation and Global Flow; 5.1.1 Motivational Example and Organization; 5.2…Nonlinear and Linear Programming; 5.2.1 Nonlinear ProgrammingNonlinear Programming-Based Formulation; 5.2.2 Linear ProgrammingLinear Programming-Based Formulation; 5.3…Modeling; 5.3.1 Measurement Error Models; 5.3.2 Terrain Models; 5.3.3 Localization Error Models; 5.3.3.1 Number of Beacon Neighbors
Titelhinweis Buchausg.: ‡Sanford, Jessica Feng: Localization in wireless networks
ISBN ISBN 978-1-4614-1839-9
Klassifikation TTBM
UYS
TEC008000
COM073000
*68-02
68M14
68M10
90C05
90C25
68Q17
621.382
681.2
TK5102.9
TA1637-1638
TK7882.S65
Kurzbeschreibung In a computational tour-de-force, this volume wipes away a host of problems related to location discovery in wireless ad-hoc sensor networks. WASNs have recognized potential in many applications that are location-dependent, yet are heavily constrained by factors such as cost and energy consumption. Their 'ad-hoc' nature, with direct rather than mediated connections between a network of wireless devices, adds another layer of difficulty. Basing this work entirely on data-driven, coordinated algorithms, the author's aim is to present location discovery techniques that are highly accurate and which fit user criteria. The research deploys nonparametric statistical methods and relies on the concept of joint probability to construct error (including location error) models and environmental field models. It also addresses system issues such as the broadcast and scheduling of the beacon. Reporting an impressive accuracy gain of almost 17 percent, and organized in a clear, sequential manner, this book represents a stride forward in wireless localization. Jessica Feng Sanford has extensive expertise in next generation service-oriented network management technologies affiliated with TM Forum, systems engineering and integration, and wireless sensor networks. She is a chapter coauthor of 'Handbook of Sensor Networks: Compact Wireless and Wired Sensing Systems' (CRC, 2004) and with more than 20 other conference and journal publications. More recently, her knowledge on cloud service architecture and applications led to her co-authorship of the book 'Transforming Enterprise Cloud Services' (Springer, 2010). She currently holds the position of Senior Consultant at Booz Allen Hamilton, where she supports SOA-based network management for space communications. She is the lead systems engineer for the TM Forum Defense Catalyst, which is the first cross-operator boundary collaboration project that intends to provide a standardized solution framework for the defense industry by utilizing TM Forum's standards/frameworks. In addition, Jessica supported the TSAT program and the TSAT-Global Information Grid (GIG) integration efforts in the areas of policy-based network management, mission planning, service-level management, and cross-system interface engineering. Prior to joining Booz Allen, Jessica held the position as a researcher at the University of California, Los Angeles. Her research focus included computational sensing, integrated practical optimization, statistical methods, and statistics-based algorithms, especially in the context of Wireless Ad-Hoc Sensor Networks (WASNs). Jessica's research and software development provided an efficient and effective bridge between the physical and the computational environments and addressed the problem of acoustic, signal range-based Location Discovery in theoretical, modeling, optimization, and computational aspects. She holds Ph.D. and M.S. degrees in Computer Science from the University of California, Los Angeles. Sasha Slijepcevic works as a Software Systems Engineer at Texas Instruments Santa Barbara, where he designs tools for creating highly configurable and reusable embedded software. He is currently a part of the team that develops Real-Time Software Components (RTSC), an open source project that supports developing, delivering, and deploying configurable embedded real-time software components. RTSC tools are used in Texas Instruments products such as DSP/BIOS and Codec Engine and by the users of these products. Additionally, Sasha worked on configuration tools for DSP/BIOS, one of the most widely used real-time operating systems on the market. Before joining Texas Instruments, Sasha was a Graduate Student Researcher in the Computer Science Department at University of California, Los Angeles His research topics were optimization algorithms and localization in wireless sensor networks. Sasha holds Ph.D. and M.S. degrees from University of California, Los Angeles. Miodrag Potkonjak received his Ph.D. in Electrical Engineering and Computer Science from University of California, Berkeley, in 1991. After spending four years with CCRL lab, NEC, Princeton, NJ, he joined the Computer Science Department at UCLA where he has been Professor since 2000. He received the NSF CAREER award, OKAWA foundation award, UCLA TRW SEAS Excellence in Teaching Award, and a number of best paper awards. Several of his papers are elected to be the best paper in leading conferences and journals. According to Microsoft Libra, one of his papers is the third most cited papers all times in both architecture and hardware as well as in embedded and real-time systems fields. He has published a book and more than 330 papers in leading CAD and VLSI design, embedded systems, real-time systems, computational sensing, and security journals and conferences. He holds 10 and has filed for more than another 50 patents. His watermarking-based intellectual property protection research formed a basis for the VSIA developing standard. His current research interests are focused on CAD and embedded systems, coordinated modeling and optimization, augmented reality, and computational sensing. Miodrag Potkonjak received his Ph.D. in Electrical Engineering and Computer Science from University of California, Berkeley, in 1991. After spending four years with CCRL lab, NEC, Princeton, NJ, he joined the Computer Science Department at UCLA where he has been Professor since 2000. He received the NSF CAREER award, OKAWA foundation award, UCLA TRW SEAS Excellence in Teaching Award, and a number of best paper awards. Several of his papers are elected to be the best paper in leading conferences and journals. According to Microsoft Libra, one of his papers is the third most cited papers all times in both architecture and hardware as well as in embedded and real-time systems fields. He has published a book and more than 330 papers in leading CAD and VLSI design, embedded systems, real-time systems, computational sensing, and security journals and conferences. He holds 10 and has filed for more than another 50 patents. His watermarking-based intellectual property protection research formed a basis for the VSIA developing standard. His current research interests are focused on CAD and embedded systems, coordinated modeling and optimization, augmented reality, and computational sensing. Miodrag Potkonjak received his Ph.D. in Electrical Engineering and Computer Science from University of California, Berkeley, in 1991. After spending four years with CCRL lab, NEC, Princeton, NJ, he joined the Computer Science Department at UCLA where he has been Professor since 2000. He received the NSF CAREER award, OKAWA foundation award, UCLA TRW SEAS Excellence in Teaching Award, and a number of best paper awards. Several of his papers are elected to be the best paper in leading conferences and journals. According to Microsoft Libra, one of his papers is the third most cited papers all times in both architecture and hardware as well as in embedded and real-time systems fields. He has published a book and more than 330 papers in leading CAD and VLSI design, embedded systems, real-time systems, computational sensing, and security journals and conferences. He holds 10 and has filed for more than another 50 patents. His watermarking-based intellectual property protection research formed a basis for the VSIA developing standard. His current research interests are focused on CAD and embedded systems, coordinated modeling and optimization, augmented reality, and computational sensing. Miodrag Potkonjak received his Ph.D. in Electrical Engineering and Computer Science from University of California, Berkeley, in 1991. After spending four years with CCRL lab, NEC, Princeton, NJ, he joined the Computer Science Department at UCLA where he has been Professor since 2000. He received the NSF CAREER award, OKAWA foundation award, UCLA TRW SEAS Excellence in Teaching Award, and a number of best paper awards. Several of his papers are elected to be the best paper in leading conferences and journals. According to Microsoft Libra, one of his papers is the third most cited papers all times in both architecture and hardware as well as in embedded and real-time systems fields. He has published a book and more than 330 papers in leading CAD and VLSI design, embedded systems, real-time systems, computational sensing, and security journals and conferences. He holds 10 and has filed for more than another 50 patents. His watermarking-based intellectual property protection research formed a basis for the VSIA developing standard. His current research interests are focused on CAD and embedded systems, coordinated modeling and optimization, augmented reality, and computational sensing.
1. Schlagwortkette Drahtloses Sensorsystem
Ad-hoc-Netz
Lokalisation
ANZEIGE DER KETTE Drahtloses Sensorsystem -- Ad-hoc-Netz -- Lokalisation
2. Schlagwortkette Drahtloses Sensorsystem
Ad-hoc-Netz
Lokalisation
ANZEIGE DER KETTE Drahtloses Sensorsystem -- Ad-hoc-Netz -- Lokalisation
SWB-Titel-Idn 366281097
Signatur Springer E-Book
Bemerkungen Elektronischer Volltext - Campuslizenz
Elektronische Adresse $uhttp://dx.doi.org/10.1007/978-1-4614-1839-9
Internetseite / Link Volltext
Siehe auch Volltext
Siehe auch Cover
Siehe auch Inhaltstext
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