Wind Power Forecasting with a SGMD-K-means-TCN Hybrid Model

The accuracy of short-term wind power forecasting is critical for the efficient management of wind farms. However, existing models often struggle to predict wind power with satisfactory precision. This study introduces a hybrid model leveraging sine geometric mode decomposition (SGMD), Kmeans clustering, and temporal convolutional networks (TCN) to enhance the precision of short-term wind power forecasting. The SGMD algorithm decomposes wind power data into stable intrinsic components, simplifying the forecasting model’s complexity. K-means then clusters these components, with each cluster corresponding to a distinct TCN model that is trained to optimize its parameters. Ultimately, the forecasting from the individual TCN models are aggregated to produce a final forecast. Validated against real-world data, the hybrid model significantly boosts forecasting accuracy, offering a valuable tool for optimizing wind farm operations.

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Publication Details

Published
2024-09-20
DOI
https://doi.org/10.1109/epee63731.2024.10875450
Primary Topic
Energy Load and Power Forecasting
Type
article
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article

Wind Power Forecasting with a SGMD-K-means-TCN Hybrid Model

Hongming Meng, Liyuan Gao, Zhenan Xu, Yuzi Jiang
Energy Load and Power Forecasting
article

Wind Power Forecasting with a SGMD-K-means-TCN Hybrid Model

Hongming Meng, Liyuan Gao, Zhenan Xu, Yuzi Jiang
article en

Abstract

The accuracy of short-term wind power forecasting is critical for the efficient management of wind farms. However, existing models often struggle to predict wind power with satisfactory precision. This study introduces a hybrid model leveraging sine geometric mode decomposition (SGMD), Kmeans clustering, and temporal convolutional networks (TCN) to enhance the precision of short-term wind power forecasting. The SGMD algorithm decomposes wind power data into stable intrinsic components, simplifying the forecasting model’s complexity. K-means then clusters these components, with each cluster corresponding to a distinct TCN model that is trained to optimize its parameters. Ultimately, the forecasting from the individual TCN models are aggregated to produce a final forecast. Validated against real-world data, the hybrid model significantly boosts forecasting accuracy, offering a valuable tool for optimizing wind farm operations.

Affordable and clean energy
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Energy Load and Power Forecasting
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