Imagine trying to recycle a giant wind turbine blade or a plane wing; they are usually too tough to break down and end up in landfills. This work finds ways to either patch them up for a second life or chemically dissolve the glue to recover the expensive fibers. It's like turning a giant piece of industrial plastic back into high-quality raw threads to make new products.
Large composite components from wind and aero sectors are difficult to recycle and often end up as waste. This creates high disposal costs and wastes expensive raw materials like carbon fiber.
A floating photovoltaic panel made from old wind blades, a waste-monitoring platform, and a solvolysis system to reclaim continuous carbon fibers.
If you are a wind farm operator dealing with massive end-of-life turbine blades — this project developed a way to repurpose them into floating photovoltaic panels. This transforms a waste disposal liability into a functional energy asset.
If you are an aircraft manufacturer dealing with carbon fiber waste — this project developed advanced solvolysis processes that reclaim continuous carbon fibers. This allows you to recover high-value materials from old parts to use in new manufacturing.
If you are a parts supplier dealing with composite scrap — this project developed optimized filament fabrication and additive manufacturing methods using recycled materials. This reduces the need for virgin raw materials in your production line.
Based on available project data, specific pricing is not provided, but LCA and LCC analyses have been performed to confirm economic benefits.
Yes, the project has worked on upscaling solvolysis processes to ensure enough recycled material for manufacturing demonstrators, marking a step toward viable operations.
Based on available project data, there is no specific mention of licensing terms or patent filings.
The project provides a waste-monitoring platform to track recycled materials and uses LCA to prove environmental benefits, helping companies meet circularity targets.
Based on available project data, the timeline for integration is not specified, though the project runs from 2022 to 2026.
The consortium is heavily weighted toward commercial application, with a 45% industry ratio consisting of 9 industrial partners, including 8 SMEs. This balance of 6 universities and 5 research centers suggests a strong pipeline from lab-scale solvolysis to industrial prototyping across 9 European countries.
Contact ETHNICON METSOVION POLYTECHNION in Greece
Contact us to connect with the EuReComp consortium for licensing recycled composite technologies.
