: Marc Aoun, Carlo Alberto Boano, James Brown, Julien Catalano, Christos Koninis, Utz Rödig
: Sensor Applications, Experimentation, and Logistics First International Conference, SENSAPPEAL 2009, Athens, Greece, September 25, 2009, Revised Selected Papers
: Springer-Verlag
: 9783642118708
: 1
: CHF 43.60
:
: Informatik
: English
: 201
: DRM
: PC/MAC/eReader/Tablet
: PDF
This book constitutes the thoroughly refereed post-conference proceedings of the First International Conference, SENSAPPEAL 2009, held in Athens, Greece, in September 2009. The 12 revised full papers were carefully reviewed and selected from 24 submissions. The papers cover various topics such as WSN for fire hazard detection and monitoring, WSN for precision horticulture, a nephelometric turbidity system for monitoring residential drinking water quality, deployment of a wireless ultrasonic sensor array for psychological monitoring, WISEBED: an open large-scale wireless sensor network testbed, SmartEN: a Marie Curie research framework for WSN in smart management of the human environment, embedded web server for the AVR butterfly enabling immediate access to wireless sensor node readings, as well as TinySPOTComm: facilitating communication over IEEE 802.15.4 between Sun SPOTs and TinyOS-based motes.
Preface5
Organization7
Table of Contents9
Wireless Sensor Network Application for Fire Hazard Detection and Monitoring11
Introduction11
Sensor Node Design13
Sensor Node Hardware13
Sensor Node Modes of Operation14
Central Node Design and Operations17
Central Node GUI Design19
Application Field Testing21
Conclusions24
References25
Fire Detection and Localization Using Wireless Sensor Networks26
Introduction26
Fire Detection Algorithm27
Fire Localization Algorithm29
Simulation Results32
Conclusion35
References36
Design and Implementation of a Wireless Sensor Network for Precision Horticulture37
Introduction37
General Characteristics of the Network Deployed38
The GAIA Soil-Mote39
Hardware Overview40
Software Organization42
Hydra Probe II Sensor43
Power Management and Autonomy44
Environmental-Mote, Water-Mote and Data-Sink/Gateway45
Monitoring Application47
Experimental Results49
Final Remarks and Conclusions50
References51
A Nephelometric Turbidity System for Monitoring Residential Drinking Water Quality53
Introduction and Definition53
Turbidity Measuring Techniques55
Design and Development56
Calibration and Testing59
Interferences in Turbidity Measurement62
Conclusions and Future Work62
Conclusions62
Future Work62
References63
Deployment of a Wireless Ultrasonic Sensor Array for Psychological Monitoring66
Introduction66
System Architecture67
Mote Development Environment68
Sensor Array68
Tracking Filter68
Surmounted Challenges72
Power Network72
Sensor Access Pattern: Noise vs. Speed Tradeoff73
Differential Calibration74
Results74
Performance of Distance Tracking75
System Specifications76
Conclusion76
Future Work76
References77
WISEBED: An Open Large-Scale Wireless Sensor Network Testbed78
Introduction – Motivation78
Previous Related Work80
Overall Architecture and Considerations82
Software Aspects of WISEBED85
Integration with the Shawn Network Simulator86
Federation of Testbeds and Related APIs86
Hardware Aspects of WISEBED – Current Deployment89
L\89
9089
RACTI Testbed Description91
Use-Case Scenarios – Research Challenges93
Scenarios93
Research Challenges94
Conclusions – Future Work95
References96
SmartEN: A Marie Curie Research Framework for Wireless Sensor Networks in Smart Management of the Human Environment98
Introduction98
Overview of Previous Work100
SmartEN Objectives and Challenges102
Work Programme and Methodology105
Work Programme 1 – Wireless Sensor Networks106
Work Programme 2 – Sensor Signal Processing107
Work Programme 3 – Non Destructive Evaluation108
Work Programme 4 – Smart Proactive Management110
Horizontal Integration through Multi-disciplinary Research Projects111
SmartEN Applications111
Discussion and Conclusions113
References114
Software Update Recovery for Wireless Sensor Networks117
Introduction117
Related Work118
Automated Local Recovery118
Identifying Loss of Control119
Recovery Action120
Two-Phase Approach120
State Machine120
High-Reliability Polycasting121
Minimum Spanning Tree Algorithm122
Flooding Algorithm (FDMT)122
Analytical Comparison122
Experimental Comparison123
Protocol Overview125
Simulation126
Behavioral Results126
Estimating Long-Term Reliability128
Propagation Delay129
Recovery Latency129
Energy Use130
Energy vs. Latency Tradeoff132
Feedback134
Conclusions and Future Work