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Machine Learning for Power System Modeling and Control

* 21PESGM0956, Synthetic Physics-aware Dynamic Data for Power Grid: a Generative Adversarial Networks Approach: L. XIE, Texas A&amp,M University * 21PESGM0957, Application of Data-Driven Methods on Power System Oscillation Characterization and Mitigation: S. KAMALASADAN, UNC Charlotte * 21PESGM0958, Real-time learning for distributed residential demand response: N. LI, Harvard University * 21PESGM0959, Machine learning for load separation and event identification by exploiting low-dimensional structures in the data: M. WANG, RPI * 21PESGM0960, Learning to management electricity demand with grid reliability constraints: M. ALIZADEH, UC Santa Barbara * 21PESGM0961, Data-Driven Sparse Wide-Area Control: A. CHAKRABORTTY, North Carolina State University * 21PESGM0962, Inverter-based resources (IBR) model identification: black-box approach vs. gray-box approach: L. FAN, University of South Florida

  • PES
    Members: $5.00
    IEEE Members: $10.00
    Non-members: $20.00
26 Jul 2021

Machine learning has found many applications in power grids, e.g., generation or load forecasting. Using data for dynamic modeling, or system identification, is particularly useful for power grid applications. Current examples include using phasor measurement units (PMU) event data to identify system oscillation modes, oscillation sources, etc. In industry, dynamic models are required to be benchmarked with real event data. There are certainly many more applications, e.g., reduced-order power grid models using measurements, inverter-based resource modeling using measurement data, design of feedback control. This panel brings researchers working on machine learning for power systems together to discuss the current applications and the potential applications of data-drive dynamic modeling and control, including dynamic data generation, black-box model identification approaches, gray-box model identification approaches, and sparse wide-area control. In addition, university curriculum design to combine data science, machine learning and dynamic modeling for effective learning will be discussed.

Chairs:
Lingling Fan, University of South Florida, Aranya Chakrabortty, National Science Foundation
Sponsor Committees:
Power &amp, Energy Education

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  • PES
    Members: Free
    IEEE Members: $11.00
    Non-members: $15.00
  • PES
    Members: Free
    IEEE Members: $11.00
    Non-members: $15.00