Gradient aluminum distribution in barium titanate particles improves TC bias characteristics and IR temperature dependency for multilayer ceramic capacitors.
A ceramic electronic component features a recessed resin coating film containing cationic elements from the ceramic material.
Bimodal conductive powder with anti-sintering ceramic prevents cracks during firing while maintaining low specific resistance in ceramic substrate electrodes.
Direct plating forms external electrodes on multilayer ceramic capacitors using adhered conductive particles.
Insulating layer extension covers end surfaces to prevent plating solution intrusion in multilayer electronic components.
A variable capacitor injects mobile charge carriers into a doped semiconductor layer to create tunable capacitance.
A multilayer ceramic capacitor uses varying barium and calcium concentrations within dielectric crystal grains to block ion diffusion pathways.
A perovskite dielectric ceramic composition doped with rare-earth oxides and magnesium to enhance specific permittivity.
A resistive paste containing ITO and specific metal additives forms stable electrode layers in monolithic ceramic capacitors.
Insulator bump terminals absorb piezoelectric vibrations from multilayer capacitors, reducing acoustic noise transfer to circuit boards.
Rare earth concentration gradients in barium titanate grains prevent reliability loss during size reduction.
Graded dielectric particle sizes at the electrode interface resolve insufficient binding strength while preserving highly accelerated life time.
Air dielectric capacitors using planar electrodes and uniform sealant reduce equivalent series resistance for millimeter wave applications.
Solid-solubilized rare earth atoms in barium titanate enable high capacitance density while maintaining withstand voltage characteristics.