Cells TRIZ Cases

A magnetic latch system secures substrate holders on planetary rotating platforms using permanent magnets and movable mounting surfaces.

Segmented outlet openings align with surface elements to resolve uniformity trade-offs in large-area electrolytic processing.

Alcohol vapor dissolves cathode precipitates in CO2 electrolysers, preventing cell flooding while maintaining ion conduction.

A solar fuels generator uses cation conduits to transport protons through an ionically conductive separator for efficient hydrogen production.

Upside-down DC magnetron sputtering deposits bismuth onto a conductive substrate, resolving the trade-off between film compactness and nanostructure formation.

Shearing nanobubbles from electrolysis electrodes extends bubble residence time, sustaining negative oxidation reduction potential in therapeutic water.

Segmenting the cell into separate chlorine and hydrogen zones prevents gas mixing while maintaining high productivity.

A segmented contact ring assembly with clamped fingers distributes current across parallel paths to stabilize electrical conductivity in electroprocessing systems.

Segmented outer-rings reduce film wrapping and backside contamination by controlling shadowing effects during physical vapor deposition.

A permeable thermal insulator selectively passes carbon dioxide to an absorbent medium for conversion into carbon nanomaterials.

An electroneutral porous separator enables ionic migration between anode and cathode areas in oxocarbon electrolyzers.

Group VI transition metal chalcogenide catalysts form metal hydrides to reduce oxidized cofactors.

Ultrasonic vibration on the electrode prevents deposit buildup, resolving electrode stability issues during electrochemical oxidation.

Segmented plating cells resolve the contradiction between production efficiency and process complexity while delivering stable mechanical finishes.

Segmented cooling plates with three-dimensional flow paths manage heat dissipation while preventing anodic and cathodic fluid mixing.

A gasifier injects preheated carbon dioxide and oxygen into char to produce high purity carbon monoxide.

A controller system selects and allocates power to electrolyzers to ensure maximum operation at full power rating.

A photocathode structure uses a silicon oxide tunneling barrier to transfer charges efficiently under an external electric field.

A numerical plating analysis method calculates current density distribution to predict film thickness on pattern substrates.

A CuFeO2/CuO photoelectrochemical electrode converts carbon dioxide to formate with high selectivity.

Composite catalyst layers in the membrane electrode assembly reduce energy consumption by lowering overpotential during water electrolysis.

A modular ozone generation module uses a convolutional baffle to direct water flow around electrodes for dissolved ozone production.

A potential sweep mechanism protects the reduction electrode during carbon dioxide electrolysis.

A dual-frequency inductively coupled plasma source enables void-free filling of high aspect ratio vias while improving electro-migration resistance.

Electrolysis of aqueous hydrogen sulphide produces hydrogen while a magnetic field separates products, reducing CO2 emissions.

Embedded ceramic portions in recesses enhance the anchor effect, preventing coating layer separation from the base member during operation.

Nested plating tanks reduce chromic acid volume, automating handling to minimize worker exposure to hazardous fumes.

Screen-printed electrodes convert thiols to disulfides, eliminating transition metal catalysts and purification steps.

Composite oxide sintered body with indium, zinc, and tin stabilizes sputtering discharge to reduce tin oxide aggregates and improve thin film transistor yield.

An electrochemical reactor produces hydrogen using a solid oxide electrolyte to conduct ions between separated fuel and water streams.

Dual gas diffusion electrodes eliminate separator membranes, reducing ionic resistance and preventing gas bubble insulation during CO2 conversion.

A composite anode releases rare earth ions into molten chloride electrolytes for controlled cathode deposition.

Decoupled electrolysis with redox mediators boosts hydrogen pressure beyond 80 bar, eliminating mechanical compression complexity.

Surface-modified copper cathode electrode reduces hydrogen selectivity and stabilizes ethylene production by optimizing copper valence abundance ratios.

Circulating CO2 and product gases through a gas chamber prevents salt crystallization on the electrode, enabling stable long-term operation.

A fluid permeable conductor electrode integrates a photoelectric conversion layer to drive electrochemical reactions.

Embedding vinylidene fluoride copolymer in the conductive polymer membrane prevents detachment from the solid electrolyte during repeated bending cycles.

An electrochemical system oxidizes metal halides to chlorinate organic compounds in aqueous media.

A hydraulic mounting device applies axial force to electrolysis cells via a pressure plate and actuator.

Ion-rich wastewater cools the electrolyzer to reduce fresh water consumption.

An electrochemical device converts chemically bound hydrogen into pressurized gas using a proton-conducting membrane and catalysts.

Dynamic height adjustment compensates for target erosion, maintaining stable plasma density and preventing contamination from flaking material.

A hydrogen supply system adjusts cathode flow path pressure before pressurization begins.

A wiring board manufacturing method forms a diffusion layer between an underlayer and seed layer using laser irradiation to improve adhesion.

Output switching circuit transitions from constant current to voltage mode to suppress arc discharge and prevent overvoltage damage.

A hollow cylinder cutting tool uses a spiral cam and rider to convert linear motion into rotation for membrane sample excision.

Centrifugal force from rotating electrodes removes gas bubbles, reducing electrical resistance and energy consumption during electrolysis.

Chelating resin extracts iron ions to restore bath stability and deposition rates in formaldehyde-based gold plating.

A septa cylindrical wall shields capillary electrodes from internal airflow, preventing migration time variation.