Research
My current research projects are in the following areas:
-
Monitoring and estimation in power grids and dynamical systems
Development of learning and inference methods that integrate conservation laws and flow physics with statistical machine learning to enable reliable topology and state estimation, as well as fault detection.Recent papers:
- Adaptive voltage control under topology changes, EPSR, 2026.
- Tutorial on statistical methods for topology learning, IEEE Transactions on Smart Grid, 2022.
- Learning networks from wide-sense stationary processes, IEEE Transactions on Signal and Information Processing, 2025.
-
Machine learning–augmented optimization of power systems
Development of surrogate models, including deep neural networks and Gaussian processes, to enable computationally efficient and feasible solutions for optimal power flow and stability problems.Recent papers:
- Gaussian process for stability-constrained OPF, EPSR, 2026.
- Bayesian neural network for optimization with limited labeled data, ICML, 2025.
- Machine learning for global optimization of nonconvex QCQP, INFORMS Journal on Computing, 2025.
-
Reliable grid integration of data centers
Modeling, planning, and operation of data centers to support grid reliability while respecting workload constraints and infrastructure limits.Recent papers:
-
Coordination of flexible energy resources
Development of scalable coordination algorithms for distributed energy resources at the grid edge such as storage and responsive loads, under operational and user-level constraints.Recent papers:
These research efforts are supported in part by the U.S. Department of Energy, Los Alamos National Laboratory, MIT Energy Initiative (MITEI) member companies, and the GE Vernova–MIT Alliance.