Currently, the use of bio-composites is limited to less critical applications that do not have significant requirements in terms of mechanical performance. However, the use of synthetic composites made from carbon or glass fibre has several difficulties in terms recycling and in terms of dependence on third countries. About 98% of these synthetic composites still end up in landfills and about 80% of the raw materials are currently manufactured outside of Europe.

To improve this situation, the project addresses the challenges of using bio-composites for structural parts and aims to increase the range of applications in which bio-composites can be used. This will be achieved by developing an accurate draping process to control fibre orientation, by creating material models that capture the natural variability of the material and by integrating nano-structured, bio-based sensors for load monitoring. Through the increased accuracy and additional control loops in the manufacturing process the consortium expects to achieve predictable properties and constant quality.

Within the project use cases from wind energy and boat-building will be investigated, aiming at the manufacturing of a full size rotor blade and a ship hull to demonstrate the technical feasibility and achieving TRL7 for the manufacturing technologies. In addition to the end users, the consortium consists of partners from automation, machine building, measurement technology, material manufacturing and simulation software to cover all aspects of the developments. Based on the predicted growth of the bio-composites market, which is expected to increase by a factor of 2.5 by 2030, the consortium expects a market potential of about 100M€ by 2030.

PROFACTOR will not only take care of the Project coordination including the data-, risk- and innovation-management  but will also design, construction and  build the hardware setup of a sensor for the inspection of natural fibre materials. The adaption of an existing draping robot cell for the usage with natural fibre materials and the design, development and manufacturing of a load sensor are additional tasks that will be carried out.

 

Project name: BioStruct

Project website: www.biostruct-project.eu/

Funding: HORIZON-IA

Project volume: €5,495,530

Project duration: 01 Jan 2024 – 31 Dec 2024

Project partners:

 

Contact

DI Daniela Kirchberger
Machine Vision

+43 7252 885 319
daniela.kirchberger@nullprofactor.at

We are happy to answer…

…Your Questions

The H2020 research project DrapeBot aims at the development of a human-robot collaborative draping process for carbon fiber composite parts. The robot will drape the large, less curved areas, while the human will drape the areas of high curvature that are difficult to reach. The transfer of large patches of fabric, which can be several meters long, is done jointly by the robot and the human.

The project will put specific emphasis on the efficiency of the collaboration, so that a real increase over human-only and robot-only draping processes is achieved. For this purpose vision sensors as well as force and torque sensors will provide input to a real-time feedback control loop that adjusts the robot’s motions.

To ensure that the draping results are of good quality a specific modular and flexible gripper will be designed. The gripper includes sensors for measuring the position of the patches and for determining fiber orientation during the draping process. The development of the gripper will also include requirements coming from the human-robot collaboration aspects of the project.

To ensure usability of the draping robot in real-world applications, experimental studies will be done to assess usability and trust. These results will be fed back to the design to make sure that the human-robot collaboration also works at the non-technical level.

 

Project title:

Collaborative Draping of Carbon Fiber Parts

 

Call:

H2020-ICT-46-2020

 

Duration:

01.01.2021 – 31.12.2024

Ihr Ansprechpartner

Dr. Christian Eitzinger
Head of Machine Vision

+43 7252 885 250
christian.eitzinger@nullprofactor.at

We answer…

…Your Questions

Non-destructive testing of components is an important auxiliary process step, not only in quality control but also in regular maintenance. The detection of cracks is currently done by using magnetic particle inspection, which is a decades-old, inefficient and ecologically undesirable process. There is an urgent need in industry to replace this technology with more up-to-date methods that provide fully automatic testing.

ThermoBot aims at the development of a thermographic inspection system that is able to scan complex parts and to detect cracks and inclusions. It consists of a robot that is positioning the part in front of a thermo-camera and a heating system. The motion of the part will be continuous in order to achieve reasonable cycle-times for in-line inspection.

The main developments of ThermoBot focus on

  • automatic path and motion planning module that uses the thermographic process model to automatically generate a path for the inspection robot from 3D CAD data.
  • a thermo-image analysis methods for robust detection of cracks.
  • Optimized inspection process to allow short cycle times.

Applications include inspection of metallic forged parts in the automotive and aircraft industry as well as inspection during regular maintenance, mainly in the aircraft industry, where magnetic particle inspection is often a requirement.

 

Project name: ThermoBot 2 -Prüfroboter zur Risserkennung in Schmiedeteilen mit aktiver Thermographie

Funding:
FFG – 15. Ausschreibung Produktion der Zukunft 2015

 

Project name: ThermoBot – Autonomous Robotic System for Thermo-graphic Detection of Cracks

Funding:
funded by the Seventh Framework Programme (FP7) of the EU

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