Graded metal-to-carbon conductive resin layer prevents interface separation and non-plating defects in multilayer ceramic capacitors.
Firing conductive paste concurrently terminates capacitors and secures leads, reducing production steps while enabling high-temperature operation.
Non-uniform external electrode thickness distribution resolves the contradiction between component size reduction and reliability maintenance.
A laminated ceramic capacitor uses a dual-peak grain size distribution to resolve the trade-off between miniaturization and electrical insulation property.
A perovskite dielectric ceramic composition with a diffusion phase containing rare earth elements and zirconium enhances insulation resistance.
A chip electronic device uses a palladium protective layer to block hydrogen diffusion during electrode plating.
Recrystallizing the Cu plating layer densifies the electrode structure, preventing plating solution and moisture ingress that causes solder popping defects.
Segmented dual-layer external electrode confines water vapor from thermosetting paste decomposition, preventing solder burst during reflow.
Direct dielectric heating at the winding nip bonds thermoplastic film layers uniformly, eliminating energy waste from indirect air or infrared heating methods.
A ceramic electronic device uses a baked electrode layer with distinct glass compositions to optimize plating adhesion and surface finish.
A BaTiO3-based dielectric ceramic composition with controlled ZrO2 and rare earth oxide ratios.
Rapid heating prevents electrode disconnection during thin-layer sintering of laminated ceramic capacitors.