Separated ground electrodes and insulating layers cut common impedance coupling in a multilayer feedthrough capacitor array, reducing crosstalk.
Dual grounding of outer condenser core foils adds a current path that reduces joint heating and potential differences during transients.
Embedding nanostructure capacitors or batteries in the interposer adds local energy storage and decoupling without extra footprint or IC changes.
A noise reduction insulating layer absorbs piezoelectric vibration in multilayer capacitors, cutting acoustic noise and helping prevent pinhole defects.
Low-viscosity insulating fluid and condenser-body flow paths improve bushing cooling, raise current capacity, and reduce hotspot temperatures.
Auxiliary dielectric layers in MLCC interlayer regions absorb electrode step differences, reducing deformation and dielectric breakdown.
A distributed interconnect array in a MIM capacitor raises self-resonant frequency and Q-factor for stable high-frequency operation.
Mg2SiO4 substrate matching cuts thermal stress in an MLCC ceramic chip, reducing cracks and acoustic noise while improving reliability.
Vertical stacking of deep trench capacitor tiers boosts capacitance without enlarging chip area, improving area use and power supply stability.