A seamed lid and insulating seal replace welding to hermetically close can cases at lower cost, weight, heat, and pressure.
An oleophobic sealing element protects elastomeric capacitor seals from oil-containing cooling liquid while maintaining reliable package sealing.
A hindered phenol additive helps power storage seals resist oxidation, thermal cracking, and sealing failure at high temperature.
Controlled electrolyte water content helps a conductive polymer capacitor cut ESR and leakage current while preserving cathode-layer adhesion.
Laser-formed recesses on buried lead frames improve sealing adhesion and lengthen oxygen and moisture paths that degrade the electrolyte layer.
Recesses and an insulating film extend oxygen and moisture paths in buried lead frames, limiting electrolyte deterioration and metal migration.
A liquid supply sheet feeds antioxidant-containing solution to the sealing member, reducing heat-driven leakage and stabilizing capacitor performance.
A high-boiling solvent impregnation and post-encapsulation heating process keeps polymer capacitor electrolyte layers stable, limiting ESR rise.
An inclined anode lead frame and spaced cathode layout cut ESR and short-circuit risk while preserving tantalum volume and breakdown voltage.
Pressed carbon particles penetrate etched cathode pits to boost capacitance, lower ESR, and maintain high-frequency stability at high temperature.
A porous valve-metal cathode region and separated anode region simplify array formation while preserving low ESR, low ESL, and capacitance density.
Chelating agents in the liquid component bind residual metal ions, cutting leakage current and preserving low ESR in electrolytic capacitors.
A carbon layer on the cathode foil suppresses gas generation in 100 V+ electrolytic capacitors while preserving capacitance and withstand voltage.
A separator-fed antioxidant coating protects the capacitor sealing member from oxidation, limiting electrolyte leakage in high-temperature use.
An offset sheet-shaped anode lead shortens current paths while preserving interface area, reducing ESR and improving high-frequency capacitor performance.
A dummy layer absorbs thermal expansion stress at the substrate interface, preventing delamination and keeping ESR stable after reflow.