A tuned yttria and alumina zirconia composition preserves tetragonal phase to combine high bending strength with high fracture toughness.
Controlled stabilizer content and pore distribution enable tough zirconia sintered bodies without HIP or two-powder mixing.
A rare-earth stabilized zirconia composition forms a plastic deformation region that absorbs impact energy and helps prevent brittle fracture.
Controlled stabilizer content and pore distribution enable low-temperature zirconia sintering with microcrack toughening, without HIP.
Controlled yttrium, manganese, and alumina levels keep black zirconia sintered bodies tough while limiting cracks and color shifts across sintering temperatures.
Microwave decomposition and ultrasonic dispersion help produce rare-earth zirconia powder with high purity and uniform submicron particles.
Isopropanol dilution and concentration create a high-load organic ceramic slurry that limits drying and improves two-photon resolution.
Controlled crystal phases enable strong zirconia bodies at low mold pressure.
Segmented thermal decomposition in iron and stainless steel containers reduces iron contamination while maintaining high zircon sand breakdown rates.
Applying a stabilizer coating layer to zirconia particles resolves non-uniform shape issues from high-temperature sintering while maintaining strength.
A zirconium-titanium oxide composite sol yields monodisperse amorphous nanoparticles under 10 nm via coprecipitation and reflux heating.
Stabilizing agent migration forms a cubic crystal layer on the zirconia surface to inhibit phase transitions.
Amino acid mediation during hydrothermal synthesis prevents aggregation, enabling high-concentration dispersions with maintained transparency.
A zirconia sintered body uses a cerium, magnesium, and calcium stabilizing element composition to achieve high density and mechanical strength.
A high-entropy rare earth zirconate material suppresses heat transfer through lattice distortion and oxygen vacancies.
Triblock copolymer and tannin extract template hierarchical porous ZrO2 synthesis, avoiding heavy pollution from severe experimental conditions.
A mild coordination method prepares amorphous hierarchically porous UiO-66 using polyethylene glycol and aqueous solutions.