Imagine replacing heavy plastic or glass fibers with natural materials like flax or hemp, but keeping the same strength. Usually, natural fibers are too unpredictable to use for critical parts, like a boat hull. This project creates a robotic system and smart software that handles these 'wild' materials with pinpoint precision, making them reliable enough for heavy-duty use.
Synthetic composites (carbon/glass) are hard to recycle and 80% of their raw materials are imported. Bio-composites are a sustainable alternative but are currently too variable in quality for structural, high-load applications.
A robotic workcell with vision-sensors and a specialized gripper for natural fiber placement, and simulation software for predicting the strength of bio-composite parts.
If you are a blade manufacturer dealing with the difficulty of recycling glass fiber composites — this project developed a manufacturing process for a full size rotor blade that uses bio-materials. This reduces dependence on non-European raw materials and improves end-of-life waste treatment.
If you are a boat builder dealing with high material costs and environmental regulations — this project developed a method to manufacture a ship hull using bio-composites. It ensures structural safety through integrated bio-based load sensors and precise fiber orientation.
If you are an integrator dealing with the variability of natural fabrics in production — this project developed a robotic workcell with a specific gripper and vision sensors. It achieves a positioning tolerance of less than 1mm and fiber orientation accuracy of +/-5°.
Based on available project data, the consortium expects a market potential of about 100M€ by 2030, driven by a bio-composites market expected to grow by a factor of 2.5.
Yes, the project aims to achieve TRL7 by demonstrating the manufacturing of full-size industrial components, specifically a rotor blade and a ship hull.
Based on available project data, specific licensing terms are not mentioned, but the project involves 12 partners including 6 SMEs and 7 industrial entities.
The data does not provide specific price points, but it highlights that 80% of current synthetic raw materials are imported from outside Europe, suggesting a potential for supply chain cost optimization.
The project builds a robotic workcell with vision-based sensors and a specialized gripper designed to fit into the lay-up and draping process of composite parts.
The consortium is heavily industry-driven, with a 58% industry ratio consisting of 7 industrial partners and 6 SMEs. This strong commercial presence, combined with 4 research organizations across 7 European countries, indicates a high focus on commercial viability and industrial application rather than pure academic research.
Contact PROFACTOR GMBH in Austria for technical specifications on the robotic workcell.
Contact us to connect with the BioStruct consortium for pilot integration.
