Electrolytic Capacitors TRIZ Cases

A high-strength adhesive polymer gel combines acrylic monomers with alkoxyalkyl groups and polyhydric alcohol to balance tensile strength and adhesive force.

Discrete components arranged in a row on a PCB form symmetrical commutation loops that reduce height, minimize voltage stress, and prevent local overheating.

Radially extending terminal members distribute electrical contact across the jellyroll electrode, lowering internal resistance and improving packing density.

Fluorinated lithium phosphate and diisocyanate additives form a protective film on silicon negative electrodes to suppress side reactions during cycling.

Protruding amorphous fillers on terminal film layers reduce contact area to prevent blocking while conductive pigments enhance visibility.

Incorporating sacrificial nanoparticles into nanotube composites and removing them generates high porosity, accelerating electrochemical reaction rates.

RuO2 contact enables high-k crystalline phase formation below 500°C, preserving substrate integrity.

Light-polarized dye in the second polarizer converts parallel photon energy to electricity while transmitting perpendicular light for display illumination.

Dynamic rotation prevents particle sintering during chemical reduction, maintaining high surface area while lowering oxygen content.

Particle-filled nonwoven separators prevent metal dendrite growth and short circuits while maintaining high porosity and thermal stability.

A lithium battery electrolyte combines trialkylsilyl(meth)acrylate and halogenated carbonate to form a stable solid electrolyte interface layer on electrode surfaces.

A switched capacitor accumulator measures phase angle and impedance magnitude using discrete frequency excitation cycles.

Aluminum alloy base body retains yield point above 40 N/mm² after heating to compress glass ceramic feedthroughs, preventing thermal stress cracks.

Phosphonium cation ionic liquids maintain stable liquid states at low temperatures while providing high electrochemical stability for energy storage devices.

Integrating laminar conductors into the component housing reduces intermediate circuit inductance and voltage interference.

Conductive trays segment power storage modules to limit short-circuit propagation, suppressing voltage spikes and preventing ignition risks from liquid ingress.

A wet electrolytic capacitor uses an electrophoretically deposited refractory metal oxide cathode layer to surround the porous pellet anode.

Specific anode conductive layer reduces resistance to adjust potential difference, enhancing energy density and withstand voltage.

A capacitor device uses parallel capacitors with distinct dielectric film thicknesses to lower impedance across a broad frequency range.

Gate electrode controls ion migration in electrolyte layer to vary conductivity of metamaterial structures.

Sandblasted conductive particles enable direct plating on multilayer laminates, eliminating dummy electrodes and preventing joining defects.

A carbon-coated aluminum material uses a resin-derived organic layer to bond carbon particles to an aluminum foil substrate.

Placing a fuse on the anode side keeps the battery enclosure at cathode potential, preventing corrosion and electrolyte leakage when the device blows.

γ-butyrolactone based electrolyte lowers equivalent series resistance to enable reliable operation at voltages exceeding 500 volts.

A porous aluminum body forms through molten salt decomposition of a resin precursor at sub-melting temperatures.

Optimized Bi2O3 content in Li-Zn ferrite stabilizes inductance under compression stress while maintaining low core loss.

Replacing free hydroxyl groups in glycerol carbonate derivatives eliminates oxidation, improving cycling reliability and thermal safety.

A transition metal-metaphosphate anode active material uses a lithium phosphate coating to accelerate reaction kinetics and improve initial efficiency.

Solid electrolyte materials utilize electrochemical potential gradients to drive ionic transport and electrodeposition for autonomous self-healing.

Segmented resonator regions with flexural damping reduce quality factor, enabling high sensitivity without vacuum packaging.

Water-repellent porous fluororesin films isolate base metal electrodes from aqueous electrolytes, suppressing self-discharge and hydrogen production.

Sintered aluminum powder creates a porous electrode structure that eliminates chemical etching and improves bending strength.

Dopants inhibit grain growth during sintering to maintain porosity and surface area for high capacitance.

Gravity mixing followed by extrusion shear fibrillates the binding agent to eliminate dispersed gases and improve electrode homogeneity.

Oxygen-enriched gas passivates tantalum powder, eliminating venting cycles and cutting production time.

A perovskite solar cell uses a halogen and alkylamine compound layer to absorb light and generate charge carriers.

A photoelectric conversion element features a clearance between the adhesive layer and substrate edge to prevent user contact.

A hole-transporting layer uses alkali metal compounds to maintain photoelectric conversion efficiency.

A computerized component analyzes temperature and equivalent series resistance measurements from power supply sensors to detect imminent failure.

Low vapour partial pressure reduction of valve metal oxides prevents particle sintering and maintains mechanical stability during powder production.

A nonaqueous electrolytic solution containing tert-alkylbenzene compounds forms protective electrode films to enhance battery cycle life.

Segmented capacitor electrodes reduce radial current loop size, minimizing eddy current heating and induced voltages during MRI procedures.

Urethane potting units fill terminal gaps to prevent positive ion leakage while anodized aluminum terminals resist corrosion, extending device lifespan.

Conformal nanoparticle coating eliminates surfactant removal steps, maintaining charge transfer and mechanical stability.

Free sintering of aluminum powder with boron aid creates uniform porous structures.

A three-layer separator uses a lattice nanofiber core with thinner surface layers to maintain electrolyte flow.

Valve metal oxide agglomerate powders form sintering bridges to eliminate closed pores, raising skeletal density above 88% theoretical volume.

Laser welding replaces bolt connections between ultracapacitor terminals to eliminate vibration-induced contact resistance deterioration.

ZnO nanoparticle coated exfoliated graphite reduces volume expansion and improves electrical conductivity in lithium-ion battery anodes.