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ACM Transactions on Information and System Security (TISSEC)
Role-based hierarchical self organization for wireless ad hoc sensor networks
WSNA '03 Proceedings of the 2nd ACM international conference on Wireless sensor networks and applications
ANSWER: autonomous wireless sensor network
Proceedings of the 1st ACM international workshop on Quality of service & security in wireless and mobile networks
Using role-based coordination to achieve software adaptability
Science of Computer Programming
Pervasive and Mobile Computing
The concept of interactivity -- revisited: four new typologies for a new media landscape
Proceedings of the 1st international conference on Designing interactive user experiences for TV and video
Federated and Shared Use of Sensor Networks through Security Middleware
ITNG '09 Proceedings of the 2009 Sixth International Conference on Information Technology: New Generations
Associative routing for wireless sensor networks
Computer Communications
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We are witnessing a rapid expansion in the adoption of networked sensor-actuator systems (NSAS) deployed in support of applications such as smart homes, health management, public safety, and emergency management. Many of these emerging applications require large-scale deployment of NSAS and often have dynamic application-specific mission and evolving quality-of-service (QoS) requirements that include timeliness, reliability, security and availability. The shared and federated use of NSAS resources, to achieve multi-application goals, is a key to cost effective NSAS industry. This necessitates the decoupling of the NSAS physical infrastructure from application provisioning, and protecting applications and infrastructure resources from threats. The failure of NSAS nodes, due to malicious or non-malicious conditions, represents a major threat to the turstworthiness of NSAS platforms. Applications should be able to survive individual failures of resource nodes and change their runtime structure while preserving its operational integrity. Furthermore, for sustainable operation, QoS provisioning must be interwoven with energy conservation as a core priority in NSAS platform design. The large-scale of such networks, their heterogeneous node capabilities, their highly dynamic topology, their resource challenged nodes with the subsequent need for node cooperation, and their likelihood of being deployed in inhospitable environments, pose formidable challenges for the construction of trustworthy, shared NSAS platforms. To support the transition of NSAS from a research-only topic to a cost-efficient commercial industry that brings NSAS products and technologies to market, there is a need for a system-aided engineering methodologies and processes that addresses the industrial activities required for the full life-cycle of NSAS applications starting from the initial design to the evolution as requirements or mission change.