Sustainable High performance functionally graded composites via. Advanced manufacturing of Particle-reinforced Cu/SiC for Electrical applications - SHAPE

Project summary

With the extensive usage of electrical contact materials (ECM) in cutting-edge technologies like e-vehicles, renewable energy systems, etc., it is imperative to develop new materials with enhanced properties to mitigate key issues such as high contact resistance, low wear and corrosion resistance, local melting, cold welding, material transfer losses and their contribution to global warming through fossil fuel emissions. Thus, the primary objectives of SHAPE are to address these challenges by creating and validating novel, recyclable Cu/SiC-based MMC and FGC ECMs that meet essential performance criteria, including high electrical and thermal conductivity, improved wear and arc erosion resistance, cost-efficiency, and ease of production. The potential impacts of SHAPE extend to the development of sustainable ECMs via additive manufacturing, reducing energy losses in renewable systems, environmental sustainability through waste upcycling, and resource conservation via EOL-ECM recycling.

Project Details

Call

Call 2023


Call Topic

High performance composites


Project start

01.05.2024


Project end

01.05.2027


Total project costs

849.000 €


Total project funding

809.500 €


TRL

2 - 5


Coordinator

Prof. Dr. Guntram Wagner

Professorship of Composites and Material Compounds (PVW), Erfenschlager Straße 73, 09125 Chemnitz, Germany


Partners and Funders Details

Consortium Partner   Country Funder
Professorship of Composites and Material Compounds (PVW)
https://www.tu-chemnitz.de/mb/pvw/
University Germany DE-SMWK
Karadeniz Technical University (KTU)
https://www.ktu.edu.tr/
University Turkey TR-TUBITAK
Cracow University of Technology (CUT)
https://www.pk.edu.pl/
University Poland PL-NCBR
ATMAT Sp. z o.o. (ATMAT)
https://www.atmat.pl
SME Poland PL-NCBR

Keywords

recycling, powder coating, composite materials, additive manufacturing, sustainable process, electrical materials, functional gradient