Electrolytic Capacitor Manufacture TRIZ Cases
- Capacitor Electrode Layout and Etchant Recovery for Flatness
Inactive electrode regions relieve waviness, while spent etchant recovery regenerates capacitor etching chemicals to cut waste and cost.
- Carbon-Coated Cathode Foil With Uneven Interface for Stable Capacitance
An uneven enlarged foil surface lets a carbon cathode layer retain capacitance at high temperature without complex metal nitride deposition.
- Electrolytic Capacitor Cathode Foil With Uneven Carbon Interface
An uneven carbon-to-foil interface boosts cathode capacitance while avoiding the cost and complexity of metal nitride deposition.
- Anode Composite Powder for Low-Carbon Porous Capacitor Bodies
A C13-C17 aliphatic carboxylic acid binder improves powder weighing stability while lowering carbon residue and leakage current in capacitor anodes.
- Aluminum Capacitor Electrode Hydration Cycles to Prevent Porous Clogging
Split hydration with intermediate dehydration builds pseudo-boehmite for higher capacitance while limiting porous-layer clogging at high formation voltage.
- Cathode Foil Carbon Interface for Stable Electrolytic Capacitance
An uneven carbon layer penetrating etched cathode foil boosts capacitance and reduces high-temperature and high-frequency deterioration.
- Aluminum Capacitor Foil Vacuum Plasma Surface Treatment
Vacuum plasma ion bombardment and reverse sputtering create a pyramid surface layer on aluminum capacitor positive electrode foil.
- Distortion-free screen-printed anodes on thin Ta/Nb foils
Surface oxidation of tantalum or niobium films reduces distortion during sintering, enabling flat anodes on thin foils.