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Meeting MS&T26: Materials Science & Technology
Symposium Advances and Challenges in Decarbonization of the Steel Industry
Presentation Title Electrolytic Reduction of Iron Oxides in Molten Chloride Electrolytes
Author(s) Hojong Kim
On-Site Speaker (Planned) Hojong Kim
Abstract Scope Decarbonization of ironmaking requires alternatives to carbon based reduction pathways. This work demonstrates an electrochemical approach for the direct reduction of iron oxide ores using molten chloride electrolytes. An electrochemical cell was assembled with Fe₂O₃ pellet cathodes in a LiCl–Li₂O (99–1 wt%) electrolyte, employing a Li–Bi reference electrode and an oxygen evolving anode, and operated at 650 °C. Current–potential measurements show that hematite pellets can be reduced at current densities up to 1 A cm⁻² without lithium metal deposition, indicating a wide electrochemical window. During constant current electrolysis, cathode and anode potentials remained stable. X ray diffraction confirmed complete reduction of the pellets to metallic Fe. Based on mass change from Fe₂O₃ to Fe, the current efficiency exceeded 80%. These results demonstrate highly efficient electrolytic ironmaking and provide insight into iron oxide electroreduction in molten salt systems.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Analyzing the Morphological Evolution of Dendritic Iron During Hydrogen Reduction of Iron Oxides: Insights from Experiments and Phase Field Modeling
Assessing the Mass and Energy Balance of Hydrogen Injection with Top Gas Recycling in a Blast Furnace
Electrolytic Reduction of Iron Oxides in Molten Chloride Electrolytes
Finite Element Modeling of Tertiary Current Distribution in Porous Electrode Flow Electrolysis Cells for Sustainable Iron Production
Looping-Accelerated CO2 Mineralization for Cost-Competitive Cementitious Materials and Hydrogen
Microstructure Evolution in Rapid Nitriding of SACM645 Using Induction Heating
Microstructures and Orientation Relationships in the Reduction of Iron Oxide
Towards Sustainable Iron Production: Kinetics of Laser-Assisted Iron Oxide Reduction in Carbon-Free Environments

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