Power Systems
Distribution systems, distributed energy resources, grid-edge applications, optimal power flow, and power-system modeling and control.
POWER · OPTIMIZATION · CONTROL · LEARNING
Power & Energy Systems Optimization Control Scientific Machine Learning
Intelligent, scalable, and resilient energy systems.
Researching scalable modeling, estimation, optimization, simulation, and intelligent-control methods for buildings, distributed energy resources, and electric power systems.
RESEARCH IDENTITY
My work lies at the intersection of electrical power systems, optimization and control, and data-driven and physics-informed learning—with buildings and distributed energy resources as a major grid-edge application domain.
Distribution systems, distributed energy resources, grid-edge applications, optimal power flow, and power-system modeling and control.
Model predictive control, optimal control, distributed optimization, estimation, and decision-making for energy systems.
Data-driven modeling, Bayesian estimation, deep learning, and physics-informed learning for buildings and power systems.
Sequential decision-making and learning-based control for residential and grid-edge energy-management problems.
Building thermal dynamics, HVAC, PV, battery storage, EVs, resiliency, building-grid co-simulation, and coordinated control.

SELECTED PUBLICATIONS
Accepted · IEEE IAS 2026
Kunal Shankar, Ninad Gaikwad, Anamika Dubey
IEEE PESGM 2026
D. Glover, A. Parajuli, N. Gaikwad, A. Jha, A. Dubey
IEEE SmartGridComm 2025
Ninad Gaikwad, Anamika Dubey
IEEE PESGM 2025
Ninad Gaikwad, Kunal Shankar, Anamika Dubey, Alan Love, Olvar Bergland

ENGINEER + RESEARCHER
Electrical Engineering and Computer Science · Washington State University
iGridSim · distribution-grid simulation, topology validation, AMI analytics, and scalable planning tools
My broader trajectory connects electrical power systems, controls, optimization, intelligent buildings, machine learning, scientific computing, and research software.
AboutCONNECT