Nature · 2024
Hydrogen-plasma reduction of red mud
Demonstrates fossil-free conversion of a 4-billion-tonne accumulated waste stream into iron suitable for green-steel feedstock.
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Metals, made fossil-free.
Alloys, made from scrap.
Critical elements, recovered.
Material Simulation, unleashed.
AI, for real-world production.
We partner with producers, recyclers, and downstream OEMs whose roadmaps depend on metals that are cleaner, more circular, and resilient to feedstock volatility.
Replace coke and natural gas with hydrogen, hydrogen plasma, ammonia, or direct electrification — for steel, nickel, copper, and other oxide feedstocks.
Most post-consumer scrap is contaminated with tramp elements. We design composition-tolerant steels and aluminium alloys that retain mechanical and corrosion performance without expensive chemical cleaning.
Red mud, slags, dusts and tailings reframed as urban industry mines — and closed-loop routes for rare-earth magnets, battery metals and strategic by-products from end-of-life products.
Connect chemistry, microstructure and processing to soft magnetic behaviour, hysteresis, electrical conductivity and recyclability for electrification-relevant components — and to one-step routes from mixed oxides to bulk alloys.
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The joint research network offers access to a wide range of expertise, instruments and methods. Together they build the fundamental understanding of underlying mechanisms needed to identify and overcome the most relevant hindrances to sustainable metal production.
Turn experimental, thermodynamic and characterization data into practical alloy and process decisions, including mechanism-based modelling and integrated computational materials engineering.
Thermodynamics, kinetics, CALPHAD, phase-field modelling and crystal plasticity to screen alloys, process windows and reduction pathways before committing to experiments or pilot investment.
DAMASK-based crystal-plasticity and multiphysics simulations for deformation, phase-transformation, thermal and damage-coupled material behaviour across process-relevant microstructures.
Melting metallurgy, forming technology, pilot reactor and plasma experiments at laboratory and pilot scale, with sample preparation aligned to downstream characterization and analysis.
Atomic-scale and mesoscale characterization, including atom probe tomography, electron channelling contrast imaging, EBSD, field ion microscopy and in-operando monitoring.
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Nature · 2024
Demonstrates fossil-free conversion of a 4-billion-tonne accumulated waste stream into iron suitable for green-steel feedstock.
Read paper →Nature · 2024
Solid-state H₂-based co-reduction and compaction merges extraction, alloying and thermomechanical processing into one operation.
Read paper →ACS Chemical Reviews
Frames sustainable metals as a fundamental materials-science challenge spanning primary, secondary and tertiary sources.
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