DTU Wind Energy
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| DTU Wind Energy | |
|---|---|
| Name | DTU Wind Energy |
| Established | 1972 |
| Type | Research department |
| Parent | Technical University of Denmark |
| Location | Risø, Roskilde, Kongens Lyngby |
| Country | Denmark |
DTU Wind Energy is a research department within the Technical University of Denmark associated with wind turbine research, aerodynamics, rotor design, and offshore wind technology. It contributes to international projects on wind measurement, certification, and renewable integration while collaborating with industry leaders and research institutions across Europe and the United States. The department operates experimental facilities and computational laboratories that support education, prototype testing, and policy-oriented studies.
History
Founded from the fusion of research groups at the Technical University of Denmark and the former Risø National Laboratory, the department traces roots to early Danish wind turbine experiments and Scandinavian renewable initiatives. Over decades it participated in collaborative programs with European Commission frameworks, International Energy Agency annexes, and partnerships with Vestas Wind Systems A/S and Siemens Gamesa Renewable Energy. The group engaged with projects linked to Copenhagen Conference-era energy discussions and contributed to standards developed by International Electrotechnical Commission committees. Personnel exchanges included secondments with Aalborg University, Chalmers University of Technology, Imperial College London, and Massachusetts Institute of Technology while hosting visiting scholars from National Renewable Energy Laboratory and Fraunhofer Society. Historical milestones intersected with demonstrations at Østerild Test Field and policy debates in Danish Parliament forums on renewable targets.
Research and Facilities
Research spans aerodynamics, structural dynamics, control systems, fatigue life assessment, aeroelasticity, atmospheric inflow modeling, and array-level optimization. Computational groups use high-performance clusters for large-eddy simulation and actuator-line modeling in collaboration with teams from Lawrence Berkeley National Laboratory, ETH Zurich, and CINECA. Experimental assets include wind tunnels, meteorological masts, LiDAR testbeds, and a structural testing laboratory similar to facilities at DNV GL and TÜV SÜD centres. Offshore research leverages instrumented platforms and measurement campaigns coordinated with Ørsted (company), Equinor, and the European Offshore Wind Deployment Centre. The department contributed to development of blade testing protocols used by Det Norske Veritas and engaged with certification bodies such as GL Garrad Hassan. Data repositories are shared with consortia including CENER and RISOE partners, while control system research interacts with standards from IEC 61400 committees and software collaborations with ANSYS and Siemens PLM divisions.
Education and Degree Programs
The department offers master’s and PhD supervision integrated into Technical University of Denmark programs, cooperating with graduate schools like European Wind Energy Master consortia and exchange schemes with TU Delft, KTH Royal Institute of Technology, and RWTH Aachen University. Courses cover turbine aerodynamics, composite materials, structural dynamics, wind resource assessment, and offshore engineering, often taught jointly with faculty from DTU Aqua and DTU Compute. Doctoral candidates have been funded through fellowships from NordForsk, Horizon 2020, and national councils such as the Danish Council for Independent Research. Practical training includes internships with Vestas, Siemens Gamesa Renewable Energy, Energy Denmark consultancies, and placement at experimental sites like CERC (Offshore Wind). Alumni progressed to roles at Carbon Trust, Shell, BP, and research institutes including TNO and SINTEF.
Industry Collaboration and Projects
Collaborations include multi‑partner consortia for demonstration and commercialization with companies like Vestas Wind Systems A/S, Siemens Gamesa Renewable Energy, Ørsted (company), and Equinor. The department participated in EU projects under Horizon 2020 and earlier framework programs, contributing to initiatives with EERA and the WindEurope association. Applied projects addressed grid integration with utilities such as Energinet and storage partnerships involving Tesla, Inc. and battery research units. Technology transfer occurred through licensing agreements, consultancy contracts, and spin-outs similar to collaborations with RELION-type companies. The group engaged in standardization and certification research alongside DNV GL and contributed to multinational measurement campaigns with COWRIE-style consortia and research collaborations with National Wind Technology Center partners.
Notable Achievements and Awards
Contributions include advances in rotor aerodynamics adopted by manufacturers leading to commercial turbine designs used by Vestas and Siemens Gamesa Renewable Energy, development of predictive load models incorporated into IEC guideline updates, and leadership in large-scale measurement campaigns recognized by peers at European Academy of Wind Energy. Researchers received awards and recognitions from bodies such as European Wind Energy Association prizes, doctoral awards funded by Novo Nordisk Foundation-style grants, and citations in policy reports by International Renewable Energy Agency and Intergovernmental Panel on Climate Change. The department’s experimental results informed siting decisions for projects like the Hornsea Project and influenced procurement strategies used by utilities including Statkraft. Several alumni and staff attained fellowships at Royal Academy of Engineering and research chairs supported by national academies such as Royal Danish Academy of Sciences and Letters.