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The follow-up project H₂HUBᴾˡᵘˢ starts in December 2025. Anhalt University of Applied Sciences, Otto von Guericke University Magdeburg, Merseburg University of Applied Sciences, the Fraunhofer Institute for Wind Energy Systems IWES, and the Fraunhofer Institute for Microstructure of Materials and Systems IMWS will offer cross-linked training courses in the field of hydrogen for specialists and managers from the energy sector and industry in Central Germany, as well as for students, pupils and the general public. The interconnected learning alliance will also provide important impulses for the success of the hydrogen economy in the follow-up project.

Due to a contract with the Federal Maritime and Hydrographic Agency (BSH), the Fraunhofer Institute for Wind Energy Systems IWES has once again installed two lidar measuring buoys in the North Sea. The buoys will collect data for a twelve-month measurement campaign for the preliminary meteorological investigation of area N-9.5 as part of the area development plan. Fraunhofer IWES can draw on its experience from previous projects for these complex preliminary investigations. It is thus contributing to the successful offshore expansion in the coming years.

In the "WindKI" research project, the Fraunhofer Institute for Wind Energy Systems IWES and the AI company LATODA are developing a new method that detects performance losses in wind turbines at an early stage. The aim of the multi-year project is to implement an AI-supported diagnostic system that will enable objective and data-driven performance optimization of the turbines. The project is funded by the German Federal Ministry of Research, Technology and Space.

Oldenburg/Bremerhaven - The Fraunhofer Institute for Wind Energy Systems IWES has put an innovative wind radar system into operation that enables three-dimensional wind field measurements at unprecedented distances and resolution. The so-called Dual Doppler Wind Radar, consisting of two synchronously operating radar units, was set up near the DLR research wind farm WiValdi in the district of Stade in Lower Saxony and has been delivering measurement data for the first time since the beginning of June. The radar system was developed and built by the company SmartWind Technologies from Texas, USA. As part of the "Wind farm RADAR" project, which is funded by the German Federal Ministry for Economic Affairs and Energy, the radar system is being scientifically validated for the first time by the Fraunhofer IWES in collaboration with ForWind - Carl von Ossietzky University of Oldenburg. The aim is to make this fundamentally new technology for wind field measurements usable for the wind industry and to offer it as a service for planners and operators in the long term. The project has the potential to fundamentally revolutionize the understanding of wind flows in and around wind farms.

In the North Sea, dense installations of offshore wind farms are planned in several regions. The resulting wake effects of large offshore wind farm clusters are of great importance for the calculation of energy yields. Current models often only allow for an inaccurate representation of these effects. In the tri-national joint research project EuroWindWakes, the partners from Germany, the Netherlands and Denmark aim to significantly increase the accuracy of forecasts to enable optimized maritime spatial planning and allow reliable forecasting of power production. For this, Fraunhofer Institute for Wind Energy Systems IWES has joined forces with its partners Technical University of Denmark, Delft University of Technology, Deutscher Wetterdienst, Carl von Ossietzky University Oldenburg, Pondera Consult, EMD International, DHI and the associated partners RWE, BP, EnBW and TotalEnergies. The research project started in late 2024 and is funded by the Federal Ministry for Economic Affairs and Climate Action (BMWK) in Germany, Energy Technology Development and Demonstration Programme (EUDP) in Denmark and The Netherlands Enterprise Agency RVO as part of the EU initiative Clean Energy Transition Partnership (CETP).

The demand of the power grid in Europe is undergoing profound changes: An increasing number of decentralized feed-in points and the fluctuating supply from renewable energies are making the interactions between power grid components more complex, posing a challenge for preserving the system stability. That is why in the TenSyGrid project, Fraunhofer Institute for Wind Energy Systems IWES, Universitat Politècnica de Catalunya - BarcelonaTech (UPC), eRoots Analytics, Hamburg University of Applied Sciences (HAW), and University of Malta (UM), are developing a toolbox for direct stability assessment using multilinear models to capture the complex dynamics of power grid components. The objective is to support grid operators in assessing large power grids mainly powered by renewable energy. The toolbox should be compatible with existing commercial software packages to facilitate integration into existing workflows. The project started in December 2024 and is funded by BMWK Germany, MICIU, AEI, CDTI Spain and XJENZA Malta as part of the EU initiative Clean Energy Transition Partnership (CETP).

A consortium of eight European partners announces the launch of DELYCIOUS (Diagnostic tools for ELectrolYsers: Cost-efficient, Innovative, Open, Universal and Safe) research project on 1 January, 2025 – aimed at developing advanced diagnostic and monitoring tools for water electrolysers. The project, coordinated by Fraunhofer Institute for Wind Energy Systems IWES (Fraunhofer IWES), brings together leading research institutions and industry players from five EU member states.

How accurate are wind measurements from dual-Doppler scanning lidar systems? And what is their potential for offshore wind energy? Fraunhofer IWES is investigating these questions together with Oldbaum Services Ltd and TotalEnergies through two concurrent measurement campaigns in Great Britain and Japan. With dual-Doppler scanning lidar technology, two measuring devices are operated synchronously at different onshore locations. They are aligned in such a way that the laser beams cross at a point up to 10 kilometers off the coast – at a typical wind turbine hub height – returning, potentially, highly accurate information on wind conditions. To prove this, two measurement campaigns started to compare these data to offshore met mast measurements in order to evaluate the technology´s performance. As well as wind speed accuracy, the comparison of the measurement methods could even reveal advantages in the area of turbulence measurement.