Multi-wind farm short-term wind ramp event warning via temporal representation learning and imbalance-aware optimization

Wind power ramp events threaten power-system operation, making short-term warning important. This study develops and evaluates an application-specific Multi-Wind-Farm Temporal Convolutional Network (MWF-TCN) that uses a shared temporal encoder and classifier across six farms while processing each farm’s input sequence separately. We compare it with non-temporal and graph-based alternatives. With a chronological, leakage-controlled split, the one-hour warning F1-score was 0.4021 ± 0.0055 across three random seeds, compared with 0.3953 for XGBoost. The paired F1 difference was not statistically resolved. For one matched-seed comparison, adding the investigated adaptive graph convolution reduced F1 from 0.3962 to 0.3438. These results support competitive recent-history warning performance and show that this graph design did not help in the evaluated configuration; they do not establish general superiority over XGBoost or spatial modeling methods. False alarms and missed events remain operational concerns.

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Publication Details

Journal
International Journal of Green Energy
Published
2026-10-29
DOI
https://doi.org/10.1080/15435075.2026.2754197
Primary Topic
Energy Load and Power Forecasting
Type
article
Field-Weighted Citation Impact
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article

Multi-wind farm short-term wind ramp event warning via temporal representation learning and imbalance-aware optimization

Jixuan Wang, 王昌明, Yicheng Gao, Jiahao Zhu et al.
1 links
International Journal of Green Energy
Energy Load and Power Forecasting
article

Multi-wind farm short-term wind ramp event warning via temporal representation learning and imbalance-aware optimization

Jixuan Wang, 王昌明, Yicheng Gao, Jiahao Zhu, Dingding Wang, Xiaozhen Liu
article en

Abstract

Wind power ramp events threaten power-system operation, making short-term warning important. This study develops and evaluates an application-specific Multi-Wind-Farm Temporal Convolutional Network (MWF-TCN) that uses a shared temporal encoder and classifier across six farms while processing each farm’s input sequence separately. We compare it with non-temporal and graph-based alternatives. With a chronological, leakage-controlled split, the one-hour warning F1-score was 0.4021 ± 0.0055 across three random seeds, compared with 0.3953 for XGBoost. The paired F1 difference was not statistically resolved. For one matched-seed comparison, adding the investigated adaptive graph convolution reduced F1 from 0.3962 to 0.3438. These results support competitive recent-history warning performance and show that this graph design did not help in the evaluated configuration; they do not establish general superiority over XGBoost or spatial modeling methods. False alarms and missed events remain operational concerns.

International Journal of Green Energy
Hebei University of Engineering (CN), Handan Polytechnic College (CN)
Affordable and clean energy, Climate action
Openalex Percentile: Top 24%
Energy Load and Power Forecasting
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