An Informer-BiGRU-temporal attention multi-step wind speed prediction model based on spatial-temporal dimension denoising and combined VMD decomposition

Accurate wind speed prediction is crucial for optimizing renewable energy utilization and enhancing operational safety in wind farms . However, existing methods face challenges due to data noise, mode mixing in decomposition, and limited model adaptability for multi-step forecasting. This paper proposes a novel hybrid framework (HPMTC-CVMD-IBTA) integrating three innovations: (1) A spatial-temporal denoising method (HPMTC) combining high-order polynomial fitting with M-estimator correction and temporal clustering to preserve signal integrity while removing noise; (2) A decomposition-optimization approach (CVMD) that adaptively weights variational mode decomposition (VMD) components via convolutional neural networks , reducing reconstruction errors compared to traditional methods; and (3) An Informer-BiGRU-Temporal Attention (IBTA) model that leverages multi-variable dependencies and long-sequence patterns through bidirectional gated units and attention mechanisms. Experiments on real-world wind farm datasets (Guangdong and Gansu, China) demonstrate the framework's superiority: It achieves over 99 % prediction accuracy (R 2 ), reduces MAE by 15–40 % against benchmarks (e.g., LSTM , BiGRU), and improves multi-step forecasting robustness across seasons. The proposed system addresses critical limitations in noise sensitivity, decomposition instability, and temporal feature decay, offering a reliable solution for energy management and disaster prevention . • This paper proposes a spatio-temporal wind-speed clustering denoising method that outperforms traditional clustering methods in noise reduction. • A CNN optimizes weights for VMD-decomposed frequency-domain wind-speed signals to reduce decomposition-induced signal loss. • Informer-BiGRU-Temporal Attention model achieves superior wind speed prediction accuracy over traditional methods. • The research introduces multi-step wind speed prediction, demonstrating the model's high accuracy in multi-step forecasting. • The study provides models and findings that offer valuable references for future analyses and predictions.

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Publication Details

Journal
Energy
Published
2025-04-22
DOI
https://doi.org/10.1016/j.energy.2025.136265
Citations
8
Primary Topic
Energy Load and Power Forecasting
Type
article
Field-Weighted Citation Impact
5.84
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article

An Informer-BiGRU-temporal attention multi-step wind speed prediction model based on spatial-temporal dimension denoising and combined VMD decomposition

Hongliang Qian, Zening Fu, Wei Wei, Fan Yang et al.
8 citations
Energy
Energy Load and Power Forecasting
5.84
article

An Informer-BiGRU-temporal attention multi-step wind speed prediction model based on spatial-temporal dimension denoising and combined VMD decomposition

Hongliang Qian, Zening Fu, Wei Wei, Fan Yang, Fuming Wang, Chengcheng Guo, X. Chu
article en
8 citations

Abstract

Accurate wind speed prediction is crucial for optimizing renewable energy utilization and enhancing operational safety in wind farms . However, existing methods face challenges due to data noise, mode mixing in decomposition, and limited model adaptability for multi-step forecasting. This paper proposes a novel hybrid framework (HPMTC-CVMD-IBTA) integrating three innovations: (1) A spatial-temporal denoising method (HPMTC) combining high-order polynomial fitting with M-estimator correction and temporal clustering to preserve signal integrity while removing noise; (2) A decomposition-optimization approach (CVMD) that adaptively weights variational mode decomposition (VMD) components via convolutional neural networks , reducing reconstruction errors compared to traditional methods; and (3) An Informer-BiGRU-Temporal Attention (IBTA) model that leverages multi-variable dependencies and long-sequence patterns through bidirectional gated units and attention mechanisms. Experiments on real-world wind farm datasets (Guangdong and Gansu, China) demonstrate the framework's superiority: It achieves over 99 % prediction accuracy (R 2 ), reduces MAE by 15–40 % against benchmarks (e.g., LSTM , BiGRU), and improves multi-step forecasting robustness across seasons. The proposed system addresses critical limitations in noise sensitivity, decomposition instability, and temporal feature decay, offering a reliable solution for energy management and disaster prevention . • This paper proposes a spatio-temporal wind-speed clustering denoising method that outperforms traditional clustering methods in noise reduction. • A CNN optimizes weights for VMD-decomposed frequency-domain wind-speed signals to reduce decomposition-induced signal loss. • Informer-BiGRU-Temporal Attention model achieves superior wind speed prediction accuracy over traditional methods. • The research introduces multi-step wind speed prediction, demonstrating the model's high accuracy in multi-step forecasting. • The study provides models and findings that offer valuable references for future analyses and predictions.

EnergyVol. 326
Sun Yat-sen University (CN), The University of Western Australia (AU), Harbin Institute of Technology (CN), Key Laboratory of Guangdong Province (CN), Southern Marine Science and Engineering Guangdong Laboratory (Guangzhou) (CN), Southern Marine Science and Engineering Guangdong Laboratory (Zhuhai) (CN)
Affordable and clean energy, Climate action
Openalex Percentile: Top 4%
Energy Load and Power Forecasting
5.84
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