
REN Chao
Position: Associate Professor
Titles:
Email: chaoren1105@scut.edu.cn
Multi-physics coupled simulation of offshore wind turbines
Reliability design and optimization of offshore structures
Time series prediction algorithms in load and power prediction
Digital twin technology and high-fidelity modeling technology
Structural health monitoring technology and fatigue life prediction
2018.09 – 2022.05, PhD, Mechanical Engineering, INSA Rouen, France
2016.08 – 2018.07, Master of Engineering, Mechanical Engineering, INSA Lyon, France
2013.09 – 2017.07, Bachelor of Engineering, Detection, Guidance, and Control Technology, Northwestern Polytechnical University, China
2025.10 – Present, Associate Professor, School of Marine Science and Engineering, South China University of Technology, China
2022.10 –2025.05, Postdoctoral Fellow, Marine and Offshore Technology, University of Stavanger, Norway
Dr. Ren's research focuses on offshore wind turbine simulation, extreme value/fatigue analysis methods for marine structures, active learning algorithm development, and digital twin modeling. By 2025, he had published over 20 papers in international journals and conferences, including 9 papers as first/corresponding author in Q1 JCR journals. Additionally, he has led a Norwegian wind energy project and served as a key researcher on five projects funded by Norway, Denmark, and the European Union, with cumulative project funding exceeding 15 million RMB. His research achievements have garnered high recognition and citations from the international academic community.
Some selected projects:
2022 – 2025 Research Council of Norway, Dynavac Separator: A sustainable and responsible system to handle offshore drilling waste, key researcher.
2024 – 2025 European EEA project,D3OM-WIND: Data-driven design, optimisation and condition monitoring of next-generation wind turbine generators,key researcher.
2023 – 2024 Research Council of Norway, Optimizing manufacturing effciency with AISToolbox, key researcher.
Journal Articles
Ren, C. *, & Xing, Y. (2025). Active learning with a multi-point enrichment strategy for Multi-Location Fatigue Assessment of offshore wind turbines. Engineering Structures, 336, 120344.
Ren, C.*, & Xing, Y. (2024). An efficient active learning Kriging approach for expected fatigue damage assessment applied to wind turbine structures. Ocean Engineering, 305, 118034.
Ren, C.*, & Xing, Y. (2023). AK-MDAmax: Maximum fatigue damage assessment of wind turbine towers considering multi-location with an active learning approach. Renewable Energy, 215, 118977.
Ren, C.*, Aoues, Y., Lemosse, D., & De Cursi, E. S. (2023). Reliability assessment of an offshore wind turbine jacket under one ultimate limit state considering stress concentration with active learning approaches. Ocean Engineering, 281, 114657.
Ren, C.*, Aoues, Y., Lemosse, D., & De Cursi, E. S. (2022). Ensemble of surrogates combining Kriging and Artificial Neural Networks for reliability analysis with local goodness measurement. Structural Safety, 96, 102186.
Ren, C.*, Aoues, Y., Lemosse, D., & De Cursi, E. S. (2021). Comparative study of load simulation approaches used for the dynamic analysis on an offshore wind turbine jacket with different modeling techniques. Engineering Structures, 249, 113308.