Neuro-Modeling Infused EMT Analytics

The paper pioneers and optimizes a systematic approach to developing Physics-Informed neuro-Models (PIM) for the transient analysis of power grids interconnected with inverter-based resources. PIM serves as an effective online digital twin of power components, incorporating physical knowledge and preserving the system’s nonlinear differential structure while requiring only minimal data for training. Three contributions are presented: 1) An Physics Informed Neural Network (PINN)-enabled neuro-modeling approach for constructing an accurate ElectroMagnetic Transient (EMT) model; 2) A data-physics hybrid, multi-neural learning structure that demonstrates PIM’s adaptability at varying levels of data availability; 3) A balanced-adaptive PIM automatically optimizes the learning process while ensuring alignment with physical principles. Tests on rotating and static electrical components, as well as an IEEE test system, validate its efficacy for transient grid analysis under diverse operational scenarios.

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Institutions

Publication Details

Journal
IEEE Transactions on Consumer Electronics
Published
2025-02-01
DOI
https://doi.org/10.1109/tce.2025.3542069
Citations
2
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
4.96

Funders

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article

Neuro-Modeling Infused EMT Analytics

Qing Shen, Yifan Zhou, Roshan Sharma, Y. Shamash et al.
2 citations
IEEE Transactions on Consumer Electronics
Neural Networks and Applications
4.96
article

Neuro-Modeling Infused EMT Analytics

Qing Shen, Yifan Zhou, Roshan Sharma, Y. Shamash, Peng Zhang, Bo Chen
article en
2 citations

Abstract

The paper pioneers and optimizes a systematic approach to developing Physics-Informed neuro-Models (PIM) for the transient analysis of power grids interconnected with inverter-based resources. PIM serves as an effective online digital twin of power components, incorporating physical knowledge and preserving the system’s nonlinear differential structure while requiring only minimal data for training. Three contributions are presented: 1) An Physics Informed Neural Network (PINN)-enabled neuro-modeling approach for constructing an accurate ElectroMagnetic Transient (EMT) model; 2) A data-physics hybrid, multi-neural learning structure that demonstrates PIM’s adaptability at varying levels of data availability; 3) A balanced-adaptive PIM automatically optimizes the learning process while ensuring alignment with physical principles. Tests on rotating and static electrical components, as well as an IEEE test system, validate its efficacy for transient grid analysis under diverse operational scenarios.

IEEE Transactions on Consumer ElectronicsVol. 71(1)
Stony Brook University (US), Edison International (United States) (US)
National Science Foundation, Office of Naval Research
Openalex Percentile: Top 6%
Neural Networks and Applications
4.96
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