2016 IEEE GLOBECOM Workshop on Cyber-Physical Smart Grid Security and Resilience

2016 IEEE GLOBECOM CFP

The 2016 IEEE GLOBECOM Workshop on Cyber-Physical Security and Resilience held December 4, 2016 in Washington DC is organized by Drs. Deepa Kundur, Abdallah Farraj, Marthe Kassouf and Hamed Mohsenian-Rad. The Workshop Website and CFP (PDF format) are available. The paper submission deadline is July 1, 2016.

Smart grids are undergoing a rapid technological, economic and environmental evolution. The marriage of information and communication technologies with traditional energy production, delivery and distribution systems, aims to create more reliable, efficient, environmentally-friendly and consumer-centric energy systems. However, this increased dependence on information technology heightens system vulnerabilities to include those of its cyber-enabled components. The high degree of complexity, connectedness and collaboration of emerging energy systems makes comprehensive identification of weaknesses challenging. To help secure future energy systems, approaches to protect and enhance resilience during both system design and operations are critical.

This workshop addresses issues of cyber-physical smart grid security and resilient energy system design and operation. Emphasis is placed on efficient strategies that harness communication networking, computation and/or control to improve security and resilience through increased adaptability, reliability and functionality. Topics of interest include (but are not limited to):

  • Cyber-physical security models and metrics
  • Smart grid resilience metrics
  • Resilient cyber-physical control
  • Software defined networks (SDN) for enhanced smart power system security
  • Cognitive communication systems for resilient energy systems
  • Cyber-physical co-simulation for security and resilience assessment
  • Smart grid communication protocols security analysis
  • Cyber-physical resilience for energy systems with a high penetration of renewable sources
  • System planning and design for secure energy systems
  • Role of storage and distributed generation in system resilience
  • Microgrids and resilience
  • Smart grid optimization for improved survivability and robustness
  • Cloud-based smart grid analytics
  • Big data for improved situational awareness for enhanced security and resilience
  • Reshaping system dynamics for resiliency to attack
  • Secure load and renewable energy forecasting, modeling and monitoring
  • Energy system state estimation for enhanced resilience