A perovskite dielectric ceramic composition maintains stable electrical properties through precise rare earth doping.
Mixed crystal grains balance high temperature load and capacitance characteristics despite layer thickness reduction below 1 μm.
A spinel oxide coating on layered particles improves rate characteristics and structural stability in rechargeable lithium batteries.
Controlling pH and temperature during two-step hydrolysis reduces agglomerated particle diameter, improving transparency and catalyst reactivity.
A method for producing barium titanate powder uses controlled hydrothermal treatment to improve particle crystallinity.
A lead-free piezoelectric ceramic achieves high performance through a specific perovskite composition and (111) orientation.
Doping barium titanate with a nano complex oxide allows base metal electrodes to survive reducing atmospheres, achieving stable dielectric properties.
Dual-grain barium titanate films maintain low Young's modulus while achieving high (111) orientation for reliable inkjet performance.
Segregated Ti2O3 phases in a MgTi2O5-δ matrix deliver electron pathways while resisting acidic corrosion in fuel cell bipolar plates.
A lead-free perovskite composite oxide material achieves high Curie temperature stability through tailored compositional parameters.
Hydrothermal synthesis creates delaminated sodium nonatitanate, reducing processing steps and costs while improving surface area for photocatalysis.
An alkaline earth metal carbonate layer suppresses carbon deposition on nickel catalysts, maintaining stability during high-temperature reforming.
A multilayer ceramic capacitor uses core-shell dielectric grains with domain walls in the shell to boost capacitance density.
Nanoparticles of inorganic UV-absorbing agents absorb ultraviolet radiation from 280 to 400 nm.
A ceramic dielectric combines barium titanium bulk material with exfoliated nanosheets to form a composite structure.
A BaTiO3 dielectric ceramic features a core-shell grain structure with controlled rare-earth concentrations to maintain high relative permittivity.
A lead-free dielectric material stabilizes electrostatic capacity in ultrasonic wave sensors across wide temperature ranges.
Driven rotating parts create high cross-flow velocities that prevent cake layer formation during industrial-scale nanoparticle separation.
A multilayer ceramic capacitor uses controlled calcium diffusion depth to maintain high relative dielectric constant.