February 5, 2025
Conference Paper

Deep Learning-enhanced Block-Diagram Modeling of Solar Power Systems

Abstract

Data-driven models of power system inverter-based resources are desired to run simulations faster than with detailed electromagnetic transient models, to hide proprietary design details, to support control system design applications, and to aggregate the effects of distributed energy resources. This paper applies a customized Hammerstein Wiener framework to train block diagram models from thousands of electromagnetic transient simulations or experimental test records. The block diagram models integrate with larger grid simulations as voltagecontrolled current sources or current-controlled voltage sources for several simulators. Guidelines for block architecture and training are presented. Three-phase balanced, three-phase unbalanced, and single-phase examples all achieve an acceptable root mean square error of no more than 0.05 per-unit.

Published: February 5, 2025

Citation

Mcdermott T.E., Q. Huang, Y. Liu, D.M. Glover, M. Ramesh, K. McDonald, and G. Marasini, et al. 2024. Deep Learning-enhanced Block-Diagram Modeling of Solar Power Systems. In The 9th IEEE Workshop on the Electronic Grid (eGrid 2024), November 19-24, 2024, Santa Fe, NM, 1-6. Piscataway, New Jersey:IEEE. PNNL-SA-203605. doi:10.1109/eGRID62045.2024.10842890