Rare-earth-doped praseodymium oxide improves SOFC and SOEC electrode activity and stability while removing the need for a buffer layer.
A rare-earth fluoride, oxide, and ammonium double-salt feedstock enables spray coatings with lower oxide residue, fewer particles, and better integrity.
Polymeric additives and chelation stabilize Dy2O3 precipitation, enabling high-yield nano-particle synthesis with narrow size distribution without grinding.
Lanthanoid oxyhydride supports transition metals to release hydride ions and enhance catalytic activity.
Zirconium-doped ceria nanoparticles lower reduction temperatures while boosting hydrogen production through enhanced bulk oxygen mobility.
Supercritical fluid extraction recovers rare earth elements from waste electronics using carbon dioxide and chelating agents, reducing energy consumption.
Calcining gadolinium compounds with molybdenum flux agents synthesizes gadolinia particles with precise morphology and high catalytic activity.
A carbon-functionalized Pr6O11 composite material enhances visible light absorption and photo-induced electron transfer.
Sintered high purity powder resolves liner porosity and chemical resistance issues in semiconductor etching chambers.
Combustion synthesis of metal and alkali salts yields water-insoluble hydroxides with high crystallinity.
Co-precipitation minimizes light scattering in terbium-based ceramics, reducing insertion loss for high-power laser magneto-optical devices.
A solvothermal treatment oxidizes rare earth and metal components in permanent magnets using a controlled fluid medium.
Urea hydrolysis with polyvinylpyrrolidone prevents particle aggregation during rare earth oxide synthesis, ensuring high dispersibility.
Rare earth compounds in the coating lower sticking probability, enabling precise patterning without fine metal masks or debris generation.
A method separates rare-earth chlorides from oxychlorides using differential solubility in liquid media with chelating agents.