Engineering the Advanced Power Grid: Research Challenges and Tasks
The electric power transmission systems of tomorrow must incorporate advanced hardware and software technologies to increase reliable long-distance power transfer. While new hardware technologies can improve transmission system capabilities, software technologies are also needed to coordinate these hardware technologies safely, securely, and effectively. To prevent system failures, future transmission systems must (1) integrate advanced hardware and software technologies across new and existing facilities, (2) allow revolutionary improvements in power grid utilization, and (3) still offer verifiable assurance of system safety even in the face of faults or malicious attack. To achieve these goals, advances are needed in the security and networking of distributed real-time and embedded systems, particularly in support of system-wide monitoring and distributed computer-based transmission control to detect and react promptly to changing system conditions. These capabilities are needed to protect the grid not only against traditional threats to reliability (such as storms and other natural events), but also against deliberate disruptions.
C. Gill et al., "Engineering the Advanced Power Grid: Research Challenges and Tasks," Proceedings of the 12th IEEE Real-Time and Embedded Technology and Applications Symposium (2006, San Jose, CA), Institute of Electrical and Electronics Engineers (IEEE), Apr 2006.
12th IEEE Real-Time and Embedded Technology and Applications Symposium (Workshop on Research Directions for Security and Networking in Critical Real-Time and Embedded Systems) (2006: Apr. 4-7, San Jose, CA)
Materials Science and Engineering
Keywords and Phrases
Distributed Real-Time Computing; FACTS Devices; Faults and Adversarial Attack; Power Generation and Transmission Control
Article - Conference proceedings
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