Oriented flattened inorganic fillers in the sealing layer block oxygen and moisture, protecting the conductive polymer and extending capacitor life.
Aromatic nitro compounds in conductive polymer dispersions help capacitor electrolyte layers limit ESR and dissipation factor drift at high temperatures.
A waterproof seed layer with catalytic metal enables cathode plating that lowers ESR and improves moisture resistance in solid electrolytic capacitors.
A roughened anode lead tab spreads impurities and protects oxide defects, suppressing corrosion and extending electrolytic capacitor life.
A thiophene-based conductive polymer electrolyte cuts leakage current while preserving capacitance and high-voltage stability in solid electrolytic capacitors.
Stacked planar aluminum capacitors use conformal oxide dielectrics to raise capacitance density and electrical isolation in compact semiconductor packages.
A sulfur, nitrogen, or phosphorus interface layer forms an amorphous film that suppresses leak current in conductive-polymer electrolytic capacitors.
Alternating capacitor element orientation with jigs keeps laminated edges flush, suppresses misalignment, and lowers ESL.
Interrupting parts in the electrode foil etch layer disperse tab-connection stress, improving flexibility and preventing crack growth.
A conductive barrier layer blocks electrolytic polymer growth near anode defects, raising withstand voltage while preserving capacity and low ESR.
A through-hole conductor in a stacked capacitor layer shortens regulator-to-load paths, cutting wiring loss, noise, and package size.
A low-permeability cover layer shields exposed anode regions from water ingress, preventing heat-driven delamination and electrical deterioration.
Conductive polymer joins projecting separators to create a shortcut cathode path that lowers ESR without metal bundles that can damage the dielectric.
Multiple exposed anode leads and a planar cathode layout cut ESL and ESR, supporting broadband decoupling and high-speed switching.
Additives in the conductive polymer layer promote oxide regrowth, resist hydration, and preserve capacitance with lower leakage in humid use.
A partial negative conductor layer over the carbon layer lowers ESR while limiting leakage current defects in solid electrolytic capacitors.
A low-resistance carbon layer on cathode foil suppresses moisture-driven oxide growth and limits ESR rise in high-temperature electrolytic capacitors.
A polythiophene base layer capped with polypyrrole lowers ESR while preserving insulation, leakage control, and capacitance.
A hydroxyl-containing cyclic ether in conductive polymer dispersion improves solid electrolyte uniformity and lowers capacitor ESR.
Electroless Ni and Ag plating on exposed capacitor end faces cuts ESR, prevents Ni oxidation and pinholes, and reduces silver use.
A stepped cathode terminal layout cuts impedance and inductance in stacked solid electrolytic capacitors to improve noise filtering.
Selective low-melting-point coverage on lead terminals suppresses voids at high temperature while preserving solderability and ESR stability.
A side-wall cathode terminal links stacked capacitor elements to lower impedance and simplify manufacture while improving noise filtering.
A high-friction carbon layer and trapezoidal cold pressure welding improve cathode-to-terminal strength and lower contact resistance.
An oxygen-containing amine without hydroxy groups suppresses dopant undoping and esterification, keeping ESR low and conductivity stable.
A dual-peak pore structure and targeted conductive polymer coverage cut ESR, leakage current, and capacity degradation in electrolytic capacitors.