Multimedia Sensor Networks for Mission-Critical Surveillance Applications

A special issue of Journal of Sensor and Actuator Networks (ISSN 2224-2708).

Deadline for manuscript submissions: closed (31 December 2013) | Viewed by 16191

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Guest Editor
University of Pau, Pau, France
Interests: LoRa technologies; multimedia information on wireless sensor networks; wireless video sensor networks for critical-mission surveillance applications
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Special Issue Information

Dear Colleagues,

The monitoring capability of Wireless Sensor Networks (WSN) make them very suitable for large scale surveillance systems. A large number of applications related to environment (agriculture, water, forest, fire detection,...), military, buildings, health (elderly people, home monitoring,...), disaster relief & emergency management, area and industrial surveillance have already been studied from the WSN perspective. Most of these surveillance applications have very specific needs due to their inherently critical nature associated to security and usually have a high level of criticality which make them difficult to deploy with the current state of technology. Moreover, the purely scalar nature of traditional sensor nodes might be limiting for more complex applications such as object detection, surveillance, recognition, localization, and tracking. Therefore, in addition to traditional sensors, a wide range of emerging WSN applications can be strengthened by introducing multimedia capability such as images. In the domain of surveillance applications that are extremely mission-critical in nature, adding visual capabilities highlights news challenges.

This special issue aims to gather latest research and development achievements in the field of Wireless Multimedia Sensor Networks (WMSN) for mission-critical surveillance applications. Original papers that address the most current issues and challenges are solicited. Topics of interest include, but are not limited to:

  • Real-time and QoS mechanisms
  • Dynamic criticality management, dynamic scheduling and dynamic resource management
  • Cooperation, cross-layer mechanisms for advanced multimedia traffic management
  • Congestion control for real-time multimedia traffic
  • Advanced information/data management for mission-critical applications
  • Dedicated MAC layers for multimedia traffic targeted to mission-critical applications
  • Advanced and adaptive routing schemes for image transfer targeted to mission-critical applications
  • Networked sensors and robots for mission-critical applications
  • Image sensing techniques for very energy constrained devices
  • Optimized and robust image encoding techniques for very energy constrained devices and lossy environments
  • Distributed vision processing algorithms and fusion of vision
  • 3D scene analysis from distributed image sensors
  • Optimized algorithms for multimodal intrusion detection systems
  • Multimedia-oriented middleware for mission-critical applications
  • Multi-sensor oriented multimedia GIS for disaster management
  • Prototypes, proofs-of-concept and new multimedia sensor hardware

Prof. Dr. Congduc Pham
Guest Editor

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Published Papers (2 papers)

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Article
Energy-Efficient Packet Relaying in Wireless Image Sensor Networks Exploiting the Sensing Relevancies of Source Nodes and DWT Coding
by Daniel G. Costa, Luiz Affonso Guedes, Francisco Vasques and Paulo Portugal
J. Sens. Actuator Netw. 2013, 2(3), 424-448; https://doi.org/10.3390/jsan2030424 - 10 Jul 2013
Cited by 9 | Viewed by 8533
Abstract
When camera-enabled sensors are deployed for visual monitoring, a new set of innovative applications is allowed, enriching the use of wireless sensor network technologies. In these networks, energy-efficiency is a highly desired optimization issue, mainly because transmission of images and video streams over [...] Read more.
When camera-enabled sensors are deployed for visual monitoring, a new set of innovative applications is allowed, enriching the use of wireless sensor network technologies. In these networks, energy-efficiency is a highly desired optimization issue, mainly because transmission of images and video streams over resource-constrained sensor networks is more stringent than transmission of conventional scalar data. Due to the nature of visual monitoring, that follows a directional sensing model, camera-enabled sensors may have different relevancies for the application, according to the desired monitoring tasks and the current sensors’ poses and fields of view. Exploiting this concept, each data packet may be associated with a priority level related to the packet’s origins, which may be in turn mapped to an energy threshold level. In such way, we propose an energy-efficient relaying mechanism where data packets are only forwarded to the next hop if the associated energy threshold level is below the current energy level of the relaying node. Thus, packets from low-relevant source nodes will be silently dropped when the current energy level of intermediate nodes run below the pre-defined thresholds. Doing so, energy is saved potentially prolonging the network lifetime. Besides the sensing relevancies of source nodes, the relevance of DWT subbands for reconstruction of original images is also considered. This allows the creation of a second level of packet prioritization, assuring a minimal level of image quality even for the least relevant source nodes. We performed simulations for the proposed relaying mechanism, assessing the expected performance over a traditional relaying paradigm. Full article
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2233 KiB  
Article
Collaborative 3D Target Tracking in Distributed Smart Camera Networks for Wide-Area Surveillance
by Manish Kushwaha and Xenofon Koutsoukos
J. Sens. Actuator Netw. 2013, 2(2), 316-353; https://doi.org/10.3390/jsan2020316 - 30 May 2013
Cited by 7 | Viewed by 7053
Abstract
With the evolution and fusion of wireless sensor network and embedded camera technologies, distributed smart camera networks have emerged as a new class of systems for wide-area surveillance applications. Wireless networks, however, introduce a number of constraints to the system that need to [...] Read more.
With the evolution and fusion of wireless sensor network and embedded camera technologies, distributed smart camera networks have emerged as a new class of systems for wide-area surveillance applications. Wireless networks, however, introduce a number of constraints to the system that need to be considered, notably the communication bandwidth constraints. Existing approaches for target tracking using a camera network typically utilize target handover mechanisms between cameras, or combine results from 2D trackers in each camera into 3D target estimation. Such approaches suffer from scale selection, target rotation, and occlusion, drawbacks typically associated with 2D tracking. In this paper, we present an approach for tracking multiple targets directly in 3D space using a network of smart cameras. The approach employs multi-view histograms to characterize targets in 3D space using color and texture as the visual features. The visual features from each camera along with the target models are used in a probabilistic tracker to estimate the target state. We introduce four variations of our base tracker that incur different computational and communication costs on each node and result in different tracking accuracy. We demonstrate the effectiveness of our proposed trackers by comparing their performance to a 3D tracker that fuses the results of independent 2D trackers. We also present performance analysis of the base tracker along Quality-of-Service (QoS) and Quality-of-Information (QoI) metrics, and study QoS vs. QoI trade-offs between the proposed tracker variations. Finally, we demonstrate our tracker in a real-life scenario using a camera network deployed in a building. Full article
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