Grain-boundary R oxycarbide raises ThMn12 rare earth magnet density to 7.3 g/cm3 or more, helping stabilize magnetic characteristics over time.
Controlled dopant addition before curing and pyrolysis produces 99.99%–99.9999% pure SiC and SiOC while simplifying purification.
Boron substitution reduces strain energy in carbon clathrates, enabling high-pressure synthesis and recovery to ambient conditions.
Synthesizing antiferromagnetic MXenes by adjusting etching time and temperature to tune phase transition properties.
Distilling liquid polysilocarb precursors produces high purity silicon carbide and silicon oxycarbide materials, reducing costs for semiconductor applications.
A solid-state reaction produces ultrafine tungsten titanium carbide powder at 600 to 1200 degrees Celsius.
Tungsten-nickel carbide electrodes replace platinum catalysts to lower production costs while maintaining high efficiency in industrial brine electrolysis.
Sol-gel carbothermal reduction synthesizes ultrafine ZrC-SiC composite powder, resolving the trade-off between low-cost production and high purity.
Multicomponent carbides with five transition metals and valence electron concentration above 8.80 enhance ductility through optimized electronic structures.