Thermocompression-bonded side margins use staged binder removal to avoid adhesive coating steps and prevent sticking during ceramic component firing.
A tantalum-rich core and lower-Ta shell in dielectric particles balance permittivity, loss tangent, and AC withstand voltage across temperature.
A recessed case and pre-fixed metal terminals remove exterior molding, simplify surface-mount assembly, and adapt to ceramic size changes.
Silicon and magnesium tuning lets this dielectric composition reach high density and dielectric constant at low firing temperatures without lead or alkali metals.
Thin polymer layers with different dielectric constants spread electrical stress in coil laminates, raising breakdown strength and reliability.
Pure magnetite particles with mixed sizes and a silicone binder widen resistance range while reducing tunnelling noise in pressure-sensitive composites.
Silicon and manganese tuning in a barium-strontium tantalate dielectric enables dense low-temperature firing with high dielectric constant.
Electrode protrusions wider than the dielectric stack increase contact area and strengthen bonding between the laminate and external electrodes.
Core-shell grains with donor-rich shell layers and Mn grain boundaries reduce oxide ion vacancies, extending multilayer ceramic component life.
Continuous side-face insulation with consistent properties improves MLCC corner adhesion, moisture resistance, and terminal connection reliability.
Graded particle sizes between inner and outer dielectric layers help restrain cracking while preserving temperature characteristics and load life.
A multilayer stretched polypropylene film confines the nucleating agent to the base layer, improving high-temperature BDV while preventing bleed-out.
Equal overlap areas in stacked electrode layers raise capacitance while keeping multiple semiconductor capacitors consistent and easier to design.