In the quest for sustainable and efficient wind energy production, the TURBO consortium has made significant strides in real-time monitoring and process control for wind turbine blade manufacturing. This innovative approach, demonstrated at facilities in the UK and Denmark, showcases a wireless sensing platform that tracks resin flow and temperature during the critical infusion process.
The integration of this technology is a game-changer, as it enables adaptive control measures to enhance consistency and reduce defects in blade production. This is particularly crucial given the large scale and complex nature of composite wind turbine blades.
What makes this project even more fascinating is its holistic approach. TURBO, funded by Horizon Europe, brings together a diverse consortium of experts from across Europe, each contributing their unique skills and knowledge. From process simulation to nondestructive testing and digital twin-based control, the project covers a wide technical scope.
One key aspect is the multi-scale modeling led by DTU, which combines advanced AI techniques with sensor data to adjust manufacturing parameters in real time. This not only optimizes the process but also reduces waste and defects, a major focus of the TURBO initiative.
In-process monitoring is another critical component, with Synthesites' system tracking resin viscosity and gelation time at multiple points during infusion. This data, combined with CPI's wireless sensor system, provides a comprehensive view of the infusion process, enabling precise control.
The development of an industrial-scale combined thermography and mid-infrared OCT scanner by Norblis ApS is a significant advancement for defect detection in blade coatings. This technology, along with DTU's supercontinuum light source and Universitat Politecnica de Valencia's ML-based algorithms, ensures a robust and accurate defect detection system.
The digital twin framework, led by NCC, integrates live process data with ML and physics-based simulation, providing valuable insights and corrective control measures. This digital approach enhances the overall efficiency and quality of blade manufacturing.
Lastly, Arditec's sustainability assessment activities are crucial in evaluating the environmental, economic, and social impact of the TURBO approach. By using standardized LCA methodologies, they ensure that the benefits of this innovative process are not only technical but also sustainable and socially responsible.
In my opinion, the TURBO project is a prime example of how technological advancements and collaborative efforts can revolutionize an industry. It showcases the potential for significant improvements in wind energy production, and I'm excited to see the full-scale implementation at Siemens Gamesa Renewable Energy's Aalborg factory. This project truly highlights the power of innovation and its ability to drive positive change.
