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Towards tURbine Blade production with zero waste

Project description

Sustainable approaches to wind turbine blade production

Wind energy is becoming an increasingly mainstream part of the electricity mix. In 2019 alone, around 3 500 wind turbines were installed in Europe. Remarkably, the technologies used to manufacture turbine blades have not changed significantly since the 1970s. These include resin infusion and coating processes which are prone to defects, resulting in high rates of re-work, scrap and repair. Combining several new developments from different disciplines, the EU-funded TURBO project will reduce defect formation and improve composite and coating repair. The researchers will experiment with cutting-edge non-destructive testing methods to monitor composite production on site. Advanced machine learning algorithms will help minimise deficiencies and waste and optimise operational efficiency.

Objective

>10000 wind turbine blades (WTBs) were installed in Europe in 2019, and the largest are >100 m long. Yet the manufacturing methods have not changed significantly since the 1970s, with little or no NDT or in-line control, leading to high defect, repair and scrap rates. TURB0 will reduce defects and improve repair strategies in WTB composites and coatings.
-Improved composite production processes: By using the latest simulation techniques to avoid defect formation and understand how defects affect structural integrity.
-In-line NDT: Combining three cutting-edge NDT technologies (dielectric, wireless, sensor-less) for the first large scale in-line in situ composite production monitoring.
-Sub-surface WTB coating inspection: Currently coatings only undergo visual surface inspection or destructive testing. TURB0 will combine ultrasound and mid-IR OCT for the most detailed coating assessment ever performed.
-Digital twin and data warehouse: Production equipment, monitoring and in-line NDT data will be combined to establish a digital twin for real-time analysis of production. This has never been attempted for a large-scale composite part. It will populate a data warehouse accessible from multiple production sites.
-In-line system control: Using the digital twin, a ML-based algorithm will provide closed-loop process control to minimise defect formation and waste and optimise process efficiency.
-Automated repair strategy: The digital twin enables a ML analysis of defect severity in composites, with automated strategies to reduce repairs by 90 % and increase recycling of off-cuts.
-Full-scale demo: A demo on a full size >80 m WTB section will be performed at the SGRE factory in Aalborg.
-Quantified sustainability improvements: including life cycle analysis (LCA), social LCA and circular economy assessments to quantify environmental and socioeconomic benefits.
-Dissemination and exploitation activity: includes a powerful Advisory Board, training, standards and business plan.

Fields of science (EuroSciVoc)

Keywords

Programme(s)

Topic(s)

Funding Scheme

HORIZON-IA - HORIZON Innovation Actions

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Call for proposal

(opens in new window) HORIZON-CL4-2021-TWIN-TRANSITION-01

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Coordinator

DANMARKS TEKNISKE UNIVERSITET
Net EU contribution
€ 1 788 629,18
Address
ANKER ENGELUNDS VEJ 101
2800 Kongens Lyngby
Denmark
Region
Danmark Hovedstaden Københavns omegn
Activity type
Higher or Secondary Education Establishments
Links
Total cost
€ 1 788 629,18

Participants (8)

Partners (3)