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Resource Efficient Materials for Additive Manufacturing

REPAM

REPAM (Resource Efficient Materials for Additive Manufacturing) is a Horizon Europe Research and Innovation Action (RIA) focused on improving sustainability in additive manufacturing (AM) by addressing key challenges across the material supply chain. From the design of materials to the optimization of powder production and recycling processes, REPAM aims to create a circular and resource-efficient value chain for AM.

Funding agency

Funded by the European Union

Beginning and end dates

1 October 2024 - 30 September 2027

Contact

Christopher Hulme
Christopher Hulme associate professor chrihs@kth.se +4687908459 Profile

Project logo

REPAM project logo

www.re-pam.eu  (link to external website)

Page responsible:webmaster@mse.kth.se
Belongs to: Materials Science and Engineering
Last changed: Feb 11, 2026
Optimization of the ingot casting process by minimising macrosegregation and porosity
Avoiding cracking during casting of a duplex stainless steel
Electrically Heated 3D-Printed Catalysts for CO₂-to-Solid Carbon Conversion via a Two-Step Thermochemical Process
Highly efficient technologies for increased yields in steelmaking processes and reduced environmental impact
Valorization of wet biomass residues for sustainable steel production with efficient nutrient recycling
Direct reduction of alloy metals 2
Synthesis, structure and application of bio-binders for electrodes and refractories in the metallurgical process industries
Efficient Integration and Utilization of Biogenic H₂-rich Syngas for Sustainable Steel Production
Substitution of fossil-based carbon with lignin in furnace electrodes for the metallurgical industry
Metallic Elements Dissipation Avoided by Life cycle design for Steel
Application of Microwave Plasma Generator for the Production of Solar Grade Silicon
Substitution of fossil Combination in Industrial high-Temperature processes by Advanced Electrical and plasma heating technologies
P purification of MeOH sludge to produce synthetic fluorspar and to recover phosphorus
Refractory materials in steel production: mechanisms of lining wear
Validation of Simulation Models for Steel Production
3D Bio-Graphene from Biochar via Catalytic Graphitization for Li–S Batteries
Fossil free Graphite production with Molten iron graphitization of biomass
Upgrading of biobased pyrolysis oil in existing refinery infrastructure
Biomaterials for carbon anode in aluminium production
Innovative Integrated Tools and Technologies to Protect and Treat Drinking Water from Disinfection Byproducts (DBPs)
Catalytic reduction of CO2 gas to solid carbon - towards emission-free steelmaking
Resource Efficient Materials for Additive Manufacturing