Power-system resilience and reliability
Integrated assessment of adequacy, dynamic performance, and recovery under extreme weather, cyber-physical attacks, cascading failures, and equipment contingencies.
Research
Our research unifies reliability, resilience, stability, security, and intelligent control across transmission systems, distribution networks, microgrids, and cyber-physical infrastructures.
Core themes
The laboratory develops theory, computational methods, controls, and experimental platforms that move ideas from analysis to field-relevant validation.
Integrated assessment of adequacy, dynamic performance, and recovery under extreme weather, cyber-physical attacks, cascading failures, and equipment contingencies.
Stability analysis, control, reliability, protection, and resilience of systems with high penetrations of inverter-based resources.
Coordinated operation of solar, storage, flexible loads, and virtual power plants for voltage regulation, frequency support, demand response, and restoration.
Machine learning, digital twins, cloud control, secure automation, and operator decision support for complex power grids and emerging large loads.
Multi-timeframe and multi-fidelity simulation with PMUs, protective relays, controllers, and communication systems in closed-loop test environments.
Dynamic line rating, congestion mitigation, storage as a transmission asset, expansion planning, and risk-aware infrastructure investment.

E-RESILEINCY
We develop models that preserve the physical meaning of power-system behavior, combine them with data-driven tools when they add value, and validate the resulting methods under realistic operating conditions.
See selected current and completed projects, research objectives, collaborators, and outcomes.