Multi-response prediction and tension warning for a dual-rotor TLP wind turbine

To improve short-term multi-response prediction for a dual-rotor tension-leg-platform wind turbine, multi-source time-series data were generated using STAR-CCM + under regular-wave, irregular-wave, and an additional representative wind–wave–current condition. A parallel feature-fusion PF-TCN-GRU model was developed to jointly predict heave, pitch, and TLP2 tension by combining multi-scale local features extracted by TCN with temporal dependencies learned by GRU. The model achieved R 2 values above 0.997 under regular waves and average R 2 values of 0.9297 and 0.9239 under the two baseline irregular-wave cases. Under the additional wind–wave–current condition, the average R 2 remained 0.9284. Comparative and repeated-run tests showed that PF-TCN-GRU remained competitive with the closest PF-CNN-GRU baseline, although the difference was not statistically significant. Prediction accuracy decreased as the horizon increased from 1 to 4 s, with pitch showing the greatest sensitivity. The TLP2-based P95 warning achieved a precision of 1.000 and a recall of 0.314. The results demonstrate the potential of PF-TCN-GRU for short-term coupled-response prediction and statistical tension-anomaly identification, while further experimental or field validation is still required.

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Publication Details

Journal
Ocean Engineering
Published
2026-10-09
DOI
https://doi.org/10.1016/j.oceaneng.2026.128670
Primary Topic
Wind Energy Research and Development
Type
article
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article

Multi-response prediction and tension warning for a dual-rotor TLP wind turbine

Wenjun Zha, Gang Xu, Zhi Qiao, Junqiang Chen et al.
Ocean Engineering
Wind Energy Research and Development
article

Multi-response prediction and tension warning for a dual-rotor TLP wind turbine

Wenjun Zha, Gang Xu, Zhi Qiao, Junqiang Chen, Zhenan Qin
article en

Abstract

To improve short-term multi-response prediction for a dual-rotor tension-leg-platform wind turbine, multi-source time-series data were generated using STAR-CCM + under regular-wave, irregular-wave, and an additional representative wind–wave–current condition. A parallel feature-fusion PF-TCN-GRU model was developed to jointly predict heave, pitch, and TLP2 tension by combining multi-scale local features extracted by TCN with temporal dependencies learned by GRU. The model achieved R 2 values above 0.997 under regular waves and average R 2 values of 0.9297 and 0.9239 under the two baseline irregular-wave cases. Under the additional wind–wave–current condition, the average R 2 remained 0.9284. Comparative and repeated-run tests showed that PF-TCN-GRU remained competitive with the closest PF-CNN-GRU baseline, although the difference was not statistically significant. Prediction accuracy decreased as the horizon increased from 1 to 4 s, with pitch showing the greatest sensitivity. The TLP2-based P95 warning achieved a precision of 1.000 and a recall of 0.314. The results demonstrate the potential of PF-TCN-GRU for short-term coupled-response prediction and statistical tension-anomaly identification, while further experimental or field validation is still required.

Ocean EngineeringVol. 368
Jiangsu University of Science and Technology (CN), Shanghai Harbour Engineering Design & Research Institute (CN)
Openalex Percentile: Top 17%
Wind Energy Research and Development
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Multi-response prediction and tension warning for a dual-rotor TLP wind turbine — Wenjun Zha, Gang Xu, et al. · Ocean Engineering (2026) | TGRS Research Map | TGRS