Jump to content

Composites

Work Package 14

Our Work Package develops high-performance composites using graphene and layered materials that meet the high standards required by industrial sectors such as the aerospace, automotive and energy generation industries. We incorporate graphene and layered materials into various different matrix combinations, from thermoplastics and thermoset composites to elastomers and inorganic composites.

Driven by market demand

Our Work Package is motivated by the demands of the commercial market. We have adopted a value chain strategy to establish synergy between the needs of the end users and the state-of-the-art knowledge developed by our academic partners. This philosophy helps us to achieve our goal of creating more cost-effective products with higher technology readiness levels, for rapid transition from the laboratory to the market.

In particular, we are working on the following market-driven composite technologies:

  • Low-cost, quality-controlled masterbatches of polymer pellets enhanced by graphene and layered materials, for widespread use in the plastics industry.
  • Fibre and fibreglass-reinforced polymer composites with lower weight, higher thermal and electrical resistance, and improved mechanical strength and stiffness. These materials could reduce fuel consumption, emissions and assembly costs in the aerospace and automotive industries.
  • Elastomers with improved flexibility and strength, lower shrinkage, better wear resistance and higher chemical resistance and thermal stability – with applications in the aerospace and automotive industries as well as in sensors, robotics, thermal dissipation, fire protection, water resistance and power distribution.
  • Composites containing inorganic components, such as metallic powders, nanoparticles or nanofibers, to improve the efficiency of conductors, create coatings for environmental protection and design new components for additive manufacturing. These materials could improve the thermoelectric properties and lifetime of construction materials and reduce assembly time and cost in all of the above industries

Work Package Leadership


Leader: Costas Galiotis, FORTH, Greece
Deputy: Ian Kinloch, University of Manchester, United Kingdom

Division Leadership


​Leader: Vittorio Pellegrini, BeDimensional, Italy​
Deputy: Xinliang Feng, TU Dresden, Germany

Latest Articles

Green ferns, graphene composites can contribute to a greener future
Sustainability / Composites / Our project

Composites for a greener future


Ali Shaygan Nia, Business Developer at the Graphene Flagship, sets out his vision for graphene-enabled composites.

By Graphene Flagship / 22 December 2020
Graphene for Composites Applications
Innovation / Composites / Industry

Graphene for Composites Applications


Nathan Feddy is the business developer for composites applications for the Graphene Flagship. Feddy gained key experience in the financial and nanotechnology consultancy sectors prior to joining the team at The University of Manchester’s state-of-the-art Graphene Engineering Innovation Centre (GEIC). He has worked with several high-profile companies to incorporate graphene into their composite materials/products, to provide multi-faceted performance improvements and additional enhancements. Feddy now offers his thoughts on the current state of of graphene in composites applications.

By Rebecca Waters / 30 January 2020
Graphene Flagship partners the University of Bologna, Politecnico di Milano, CNR, NEST, Italcementi HeidelbergCement Group, the Israel Institute of Technology, Eindhoven University of Technology, and the University of Cambridge have developed a graphene-titania photocatalyst that degrades up to 70% more atmospheric nitrogen oxides (NOx) than standard titania nanoparticles in tests on real pollutants.
Composites / Sustainability / Industry

Smog-eating graphene composite reduces atmospheric pollution


Graphene Flagship partners the University of Bologna, Politecnico di Milano, CNR, NEST, Italcementi HeidelbergCement Group, the Israel Institute of Technology, Eindhoven University of Technology, and the University of Cambridge have developed a graphene-titania photocatalyst that degrades up to 70% more atmospheric nitrogen oxides (NOx) than standard titania nanoparticles in tests on real pollutants.

By Tom Foley / 03 December 2019
Show all news