Cells TRIZ Cases

A portable brush electroplating unit uses pneumatic pressure and vacuum suction to maintain a drip-free anode state during operation.

Sputtered silicon oxide layers maintain transparency while resisting high-temperature sterilization that degrades organic polymers.

A high-temperature electrolyzer control system monitors input power and diverts energy to heat the cell stack when supply drops below a set limit.

A high-purity titanium target incorporates controlled sulfur and silicon levels to stabilize sputtering properties.

A controller dynamically allocates power to multiple electrolysis stacks based on renewable energy availability.

An impurity-tolerant electrochemical reactor converts waste minerals into valuable materials using renewable electricity.

A detachable nickel sintered compact absorbs reverse current to protect the electrolysis cathode substrate.

Segmented modules maintain mechanical stability while the connecting element enables high voltage utilization through series electrical circuits.

Elevated pH and ion-exchange membranes prevent cathode deposition, achieving 5N purity for semiconductor CVD applications.

Voltammetric analysis measures copper electrodeposition rates to quantify leveler additive concentrations.

A gas decomposition apparatus employs a catalytic electrode with noncovalent carbon conductive materials and stable electrolytes for rapid odorous gas breakdown.

A mosquito killer uses carbon dioxide and a fan to draw insects into an electric grid.

Vacuum plating cell reduces bubble entrapment during rapid substrate immersion, achieving uniform electroplating across the wafer surface.

Gravity-driven bypass flooding prevents membrane dry-out and explosion risks during emergency shutdowns.

An electrolysis apparatus produces hydrogen gas while alkalizing brine through ion-exchange membranes.

Removing binders and ionomers from the electrode assembly lowers costs while maintaining mechanical strength and conductivity.

Segmented pores distribute carbon dioxide bubbles uniformly across the reduction electrode, eliminating mechanical stirring and boosting reaction efficiency.

A graphene manufacturing apparatus applies voltage to an electrolyte, generating bubbles that separate a metal catalyst layer from a substrate.

Solid electrolyte transfers protons from oxidized hydrogen sulfide to reduce carbon dioxide, eliminating separate processing units.

Electrochemical acid generation synthesizes nucleic acids on magnetic beads, resolving low yield and complex pooling issues in microarray gene synthesis.

Perforated walls in this hydrogen generator enhance brine circulation and electrolysis efficiency by improving fluid exchange within segmented cavities.

Thin metal foil casings with adhesive bonding reduce material weight and cost while shifting dimensional stability to the cell rack.

An ionically resistive permeable element with spatially tailored resistivity modulates ionic current flow during semiconductor electroplating.

Segmented dielectric diaphragm restricts conduction current in high conductivity liquids, enabling efficient plasma discharge at low wattage.

Zone-specific resin content stabilizes cell voltage by preventing clogging and maintaining gas-liquid supply balance.

Electrolysis generates hydrogen-oxygen mixtures to enhance neural activity and blood circulation.

Segmented wire electrodes replace vapor-deposited layers to simplify manufacturing and enable easy replacement without discarding the dielectric tube.

Dynamic adjustment of the anode mask opening compensates for soluble anode dissolution, mitigating terminal effects to ensure uniform plating film thickness.

A magnetron sputtering cathode uses segmented coolant channels in the anode shield to remove heat from high-power discharge zones.

A porous electrically conductive gas transport layer delivers oxygen to a cathode while collecting current in an electrochemical cell.

Dispersing platinum on porous carbon black lowers system cost while maintaining catalytic activity for proton reduction.

An electrocatalytic mesh generates dry hydrogen peroxide gas through electrolytic oxidation of water and reduction of oxygen.

A complexation agent adjusts solution acidity via electrical potential to enable precise pH management during chemical reactions.

Nickel phosphide electrocatalysts suppress hydrogen evolution to boost ethylene glycol selectivity during carbon dioxide reduction.

A surrogate electrolyzer decouples oxygen and hydrogen evolution reactions using a propylene cycle to produce clean hydrogen.

A live welding method for aluminum electrolytic cells redirects current through standby buses to lower magnetic field intensity at the welding zone.

A water-repellent film on the electrolyte membrane surface maintains proton passage while blocking liquid infiltration.

A porous electrochemical grinding quill supplies electrolyte through its shaft to abrasive grains.

Electrochemical cell replaces thermal catalysis, converting acetylene to ethylene at room temperature while eliminating noble metal catalysts.

A water electrolysis device supplies temperature-controlled water to the cathode side of a solid polymer membrane.

A molten-salt electrolytic refining apparatus recovers high-purity indium from an indium-tin alloy using a fluoride-based electrolyte.

Segmenting the clamping apparatus into corrosion-resistant and structural zones stabilizes electrolysis performance while reducing manufacturing costs.

A membrane-electrode assembly segments electrolysis and separation zones to oxidize permeated hydrogen before it reaches the anode.

PLD and ammonolysis create pure oxynitride films, reducing defects that limit photocatalytic performance in solar water splitting.

A slurry of solid plastics flows through an electrochemical cell to convert waste polymers into pure hydrogen and fuels.

Variable angle sections adapt to rotor speed fluctuations, preserving barrier quality during throughput disruptions.

Recycles Fischer-Tropsch tail gas to adjust synthesis gas hydrogen concentration, reducing carbon efficiency losses and CO2 emissions.

A film forming apparatus detects electrolyte membrane degradation using imaging to trigger timely replacement mechanisms.

Segmented electrolytic cells with titanium electrodes and a slideable shunt resolve high cost and maintenance complexity in above ground pools.