High mixing entropy stabilizes platinum in a boride lattice, preserving hydrogenation activity while resisting sulfur poisoning.
Fluoroborate and fluorotitanate react at 700 to 800 degrees Celsius to produce titanium boride, eliminating demanding reaction conditions.
Multi-component high-entropy alloy design using controlled atomic ratios to achieve stable single-phase solid solution structures.
Boron-based amorphous alloys balance thermal stability with manufacturability through rare earth additions and melt-spinning.
A dual-fluidized bed reactor system produces high-purity metal boride powders via controlled boriding gas streams.
Tungsten tetraboride synthesis achieves 30% mass reduction in nuclear reactor shields while maintaining gamma ray attenuation.
Replacing diamond with cost-effective tungsten borides eliminates graphitization during high-speed ferrous alloy cutting.