Cells TRIZ Cases

A two-phase anodizing process forms distinct oxide layers to eliminate cracks and interstices on convex edges, ensuring reliable corrosion resistance.

Compact electroplating system integrates segmented tanks and robotic rack management for efficient small-batch processing.

Simultaneous etching and scanning ion microscopy feedback controls lamina thickness precisely, eliminating sequential measurement delays.

Porous electrodes with controlled pore sizes maintain hydrogen purity and electrolysis efficiency during high current density operations.

Vertical electrode members pierce an insulation sheet to reduce conduction paths and prevent sample infiltration, enhancing measurement sensitivity.

Porous regions in an insulator plate compensate for edge resistance differences to eliminate the terminal effect and ensure uniform metal accumulation.

A flow cell system measures monovalent copper ion and MPS levels directly, resolving the trade-off between indirect measurement precision and device complexity.

Electrochemical reduction in molten CaCl2 converts amorphous carbon to high-quality graphene at 700-900°C, avoiding turbostratic carbon impurities.

Segmented mesh injectors constrain plating solution momentum to prevent target defects during high-speed flow.

A CO2 electrolytic device regulates reduction electrode moisture using a detection unit and control loop.

Segmenting the reaction chamber into modular trays resolves product stream inconsistency by enabling precise pH control without increasing device complexity.

Ultrasonic transducers direct acoustic waves to accelerate hydrogen gas removal and prevent resin sedimentation in e-coat fluid.

Multi-cyclic voltammetry cleans electrochemical mirrors by oxidizing undissolved reflective material from the working electrode surface.

Oriented insulating fibers in bonding material suppress warping and prevent cracking during manufacturing.

Segmenting the plating composition prevents membrane damage and decomposition while maintaining stable metal concentrations.

Multi-frame AC driving reduces charge sharing effects and improves manufacturing yield by segmenting voltage control across array elements.

A filter press electrowinning device uses ion-exchange membranes to separate anolyte and catholyte chambers for efficient metal deposition.

Modular SOEC cores isolate stack modules for maintenance while recuperating spaces preheat process fluids, reducing heat loss and downtime.

Segmented adhesive drops prevent gas trapping and ensure thermal shock resistance in vacuum sputtering assemblies.

A nanostructured electrode comprising a copper substrate, a copper oxide layer, and a nickel layer facilitates cofactor regeneration.

An ion-releaser electrode releases ions to synthesis locations via activating electrodes.

A modular environmental control unit uses additive manufacturing to recycle failed components into replacement parts on-site.

An electroplating apparatus uses an ionically resistive element and auxiliary cathode to shape current distribution across the wafer surface.

Spring connectors adjust electrolysis stack capacity to stabilize renewable energy input without power electronics losses.

Segmenting the chamber prevents catalyst magnetization during deposition while maintaining short pre-sputtering times.

A sealed vessel houses an electrochemical compressor to contain leaked working fluid within the system boundary.

Through holes in a protective sheet enable smooth hydrogen discharge, preventing membrane damage during depressurization.

Surface-enriched ruthenium composites boost anode durability and oxygen activity while lowering noble metal costs.

Freeze-spray casting enables high catalyst loading while maintaining electrical conductivity and ion transport in electrochemical cells.

Near-infrared decomposition of metal precursors forms amorphous metal oxide films, enabling scalable manufacturing without expensive vacuum systems.

Halogen lamp heating prevents heater breakage from fluid pressure while electrolyzing sulfuric acid to produce peroxosulfuric acid.

A steam electrolysis cell uses a Ba-Co perovskite anode to boost hydrogen generation rates.

A high voltage roll generates an electric field to accelerate electrons toward a plating material part.

A controlled trivalent chromium electrodeposition method maintains surface roughness within 0.2 to 0.6 μm using precise bath chemistry.

An integral paddle structure with square bars and a draining member reduces turbulent flow to improve plating thickness uniformity.

Oscillating substrate holder ensures consistent acoustic energy distribution during ultrasonic metallization, resolving non-uniform deposition in deep cavities.

A silver nanocluster catalyst lowers ionic resistance and cost by replacing gold in zero-gap reactors.

A solar-powered ammonia and oxygen production system integrates electrolysis, cryogenic air separation, and catalytic conversion.

A hydrogen generation system using REP and PEM technology stores excess power as hydrogen.

Raster electrode arrangement with shifted nodes ensures uniform layer thickness on complex turbine blades by resolving uneven current density in recessed areas.

Housing-integrated fluid channels route alongside the cell stack to simplify assembly and enhance sealing efficiency.

A half-cell composite integrates a force-distribution plate with an infiltrated sealing element and a gas diffusion layer into a single material-bonded assembly.

A rotatable cathode unit with multiple targets enables continuous multilayer film deposition.

Filtration adjusts sulfur concentration in electrolyte baths to control dark chromium lightness without changing formulations.

Electrocoagulation with aluminum electrodes and calcium oxide addition recovers ammonia from contaminated water.

An anode shielding member redirects electric field lines to suppress peripheral current concentration, ensuring uniform metallic film thickness.

A 3D electrode design with a porous PTFE layer stabilizes three-phase boundaries against flooding from liquid percolation.

Bonded resistance foil reduces current flow between electrodes, preventing pressure buildup during storage while allowing safe hydrogen release.