Solid Electrolytic Capacitors TRIZ Cases

Pressure-pulse polymer impregnation enables larger hybrid aluminum electrolytic capacitors with uniform coverage, lower ESR, and fewer compensation currents.

An organometallic pre-coat and thiophene-based conductive polymer help solid electrolytic capacitors cut leakage and maintain breakdown voltage.

Rounded or chamfered anode corners with a compact surface reduce dielectric defects, leakage current, and stress in solid electrolytic capacitors.

A low-permeation gas barrier film limits moisture uptake in electrolytic capacitors, preserving low ESR and long-term humidity reliability.

Using silicone resin in dip-formed electrode coatings improves moisture resistance and flexibility while easing thickness-related manufacturing limits.

Using silicone resin in conductive electrode coatings improves moisture resistance, formability, and manufacturing flexibility for electronic components.

A base-acid-aromatic electrolyte suppresses conductive polymer dedoping and keeps ESR low in high-temperature electrolytic capacitors.

An asymmetric cathode terminal layout helps thin solid electrolytic capacitors while improving insertion, polarity visibility, and heat dissipation.

A polyaniline-based solid electrolyte and conductive polymer coating cut leakage current and capacitance loss while improving high-voltage stability.

A thiophene-based solid electrolyte helps tantalum capacitors keep low leakage and stable capacitance under repeated surge voltage cycles.

A polyaniline-based solid electrolyte helps capacitors cut leakage current and retain capacitance under high voltage, heat, and humidity.

A self-doped polymer top layer fills electrolyte voids to block oxygen ingress, limiting ESR rise and capacitance loss at high temperature.

A dual-particle porous anode creates two pore-size peaks, increasing capacitance while maintaining electrolyte permeability and low ESR.

Preformed canister edges and elastomer contact features increase seal area and compressive force to limit electrolyte loss and extend capacitor life.

Quenched ester electrolyte chemistry cuts scintillation while preserving conductivity, helping ICD capacitors withstand higher voltage in less space.

A detachable base and side plate keep the camera centered in landscape or portrait mode, reducing vibration and support readjustment.

Anodic oxidation with ionic and oxidizing additives improves tantalum pentoxide packing, keeping leakage current stable at high temperatures.

A substrate cavity filled with tantalum particles creates a thin embedded capacitor that boosts capacitance density for miniaturized IMDs.

A polymer acid in the liquid electrolyte suppresses de-doping and pH rise, helping conductive polymer capacitors keep ESR stable over time.

Controlled roughness on the anode contact layer increases anchor effect, reducing peeling and resistance in solid electrolytic capacitors.