1-sentence version
Chengxuan Li is a PhD candidate in Systems Engineering at Cornell University developing physics-informed and hybrid machine-learning methods for energy simulation, power-system analysis, and grid infrastructure optimization under electrification scenarios.
50 words version
Chengxuan Li is a PhD candidate in Systems Engineering at Cornell University, with a minor in ECE. His research combines machine learning, scientific computing, simulation, and computational optimization for urban energy and power systems, with applications in model calibration, smart-meter analytics, demand response, grid flexibility, and scalable digital twins for city-scale electrification and decarbonization.
100 words version
Chengxuan Li is a PhD candidate in Systems Engineering at Cornell University, with a minor in Electrical and Computer Engineering. His research combines machine learning, scientific computing, simulation, and optimization for urban energy and power systems. At Cornell’s Environmental Systems Lab, he develops data-driven and physics-informed methods for load inference, model calibration, smart-meter analytics, demand response, and urban-scale energy simulation. He is also Lead Developer of EnergyAtlas.io, a city-scale digital twin and energy modeling platform integrating building models, geospatial data, utility observations, and physical simulation to support analysis of building demand, electrification, grid flexibility, and urban decarbonization.
150 words version
Chengxuan Li is a PhD candidate in Systems Engineering at Cornell University, with a minor in Electrical and Computer Engineering. His research combines machine learning, scientific computing, simulation, and optimization for urban energy and power systems. At Cornell’s Environmental Systems Lab, he develops data-driven and physics-informed methods for load inference, model calibration, smart-meter and grid-data analytics, demand-response assessment, and scalable urban energy simulation. His work integrates physical models with statistical and machine-learning approaches to study building demand, feeder-level behavior, electrification, distributed energy resources, and grid flexibility. He is also Lead Developer of EnergyAtlas.io, a city-scale utility digital twin and energy simulation platform integrating building models, geospatial data, smart-meter observations, and physical simulation. His broader skills include AI for engineering, inverse modeling, system identification, reduced-order modeling, energy-system optimization, and practical software tools for infrastructure planning and decarbonization.