Cells TRIZ Cases

Oscillating the anode prevents oxygen gas accumulation, reducing pinholes and thickness unevenness during electrolytic metal film formation.

Automated controller detects heater power supply functionality and verifies connections to transmit precise electrolyzer system load configurations.

Segmented agitators with dividers generate high velocity fluid flows to enhance mass transfer rates across microfeature workpiece surfaces.

An electrolytic device produces azo compounds using halogen compounds without continuous chlorine input.

An electrochemical process precipitates elemental platinum group metals using a gas diffusion cathode.

Segmented sealing features on a bipolar plate prevent gasket creep at high pressures, extending cell service life.

Electrowetting microfluidic valves replace mechanical components with electric fields that change liquid contact angles, reducing device complexity.

Segmented membranes and a reticulated vitreous carbon center compartment sequester copper ions to prevent cathode contamination in CuCl/HCl electrolysis.

Segmented chuck cup and flexible seal ring resolve friction wear trade-offs, extending equipment lifetime while maintaining plating uniformity.

A supercritical CO2 emulsion plating solution enables high current density deposition while maintaining uniform metal film thickness.

A sealing paste containing silver oxide and hydrophobic polymer seals oxygen-consuming electrodes.

A single glass solder layer seals interconnectors, eliminating complex multi-layer assembly and boosting manufacturing efficiency.

A bio-electrochemical system alternates between microbial electrolysis and fuel cell modes to manage hydrogen peroxide levels.

A gas cell expands a flexible barrier to compressively force fluid through an aperture in an orientation-independent delivery device.

A two-stage electroplating process with changing cathode current density suppresses Kirkendall void formation at bonding interfaces.

Liquid metal alloy electrodes extract lithium from aqueous solutions, eliminating toxic mercury and reducing energy consumption.

A controller manages oxyhydrogen generation through real-time parameter detection and switch actuation.

Self-igniting precursor combustion forms metal oxide nanocrystals directly on conductive carriers without binders.

Source particles dissolve and redeposit cationic species onto substrates, eliminating external electrodes and high temperatures.

A device and method for electrochemical disintegration of two-dimensional layered semiconductor materials using an electrolytic cell.

Optimized bismuth salt and acid concentrations resolve reliability and productivity contradictions, maintaining 95-100% current efficiency.

A single FePt-C sputtering target deposits high carbon content thin films via dispersed alloy and carbon phases.

A gas-liquid separation device with communicating chambers separates hydrogen from water electrolysis output.

Radiation detection system measures reflected light from copper-indium-gallium targets during reactive sputtering processes.

Nickel catalyst oxidizes ammonia into ammonium nitrate, eliminating sulfur byproducts and recovering nitrogen resources.

An asymmetric tilting module offsets the rotation axis from the substrate center to remove bubbles via buoyancy during immersion.

A cell frame assembly uses a compressible gasket to seal the cell element and prevent electrolyte leakage.

Changing spray angles and board posture prevents voids in high aspect ratio through holes while enhancing heat dissipation.

An electrolytic system transports electric current through sulfonic acid to dissolve noble metals from plated scrap.

Segmented anode zones with independent amperage control resolve uneven deposition on variable cylinder dimensions without dedicated shields.

Electrolysis converts carbon dioxide into magnetic carbon nanotubes, reducing production costs and greenhouse gas emissions.

Molten metaphosphate electrolysis replaces coke-based thermochemical reduction, eliminating carbon monoxide byproducts and reducing annual CO2 emissions.

A fuel cell design with a solid electrolyte layer thickness of 30 µm or less, reinforced by additional layers to enhance strength and prevent cracking, while maintaining power generation efficiency.

Heating the plating bath to 60°C precipitates rare earth impurities, preventing double plating defects and reducing production costs.

Electropolished stainless steel bipolar plates receive tantalum or niobium coatings to enhance durability.

A heat pump system transfers low-grade electrolyser waste heat to a circulating medium for methanol distillation evaporation.

Autothermic redox with aluminum carrier extracts pure phosphorus while preventing toxic sludge and phosphine formation.

An iridium oxide electrocatalyst drives selective anodic oxidation of olefins to ethylene halohydrin.

Segmenting the drive motor from the stirring fan prevents electrolyte corrosion and boosts cooling efficiency to extend gas generator lifespan.

An electrochemical cell with a high surface area ratio between positive and negative electrodes reduces the potential difference required for electrolysis.

Solid polymer electrolyte membrane enables neutral pH water production without added electrolytes, resolving low conductivity efficiency trade-offs.

Varying catalyst unit dispersion across a multilayer structure stabilizes water electrolysis performance while reducing noble metal usage.

Continuous electrochemical oxidation of aqueous HMF minimizes reactant loss and impurity formation while maintaining constant current levels.

Segmented ion exchange membrane layers optimize ion transport pathways to lower electrical resistance during electrolysis.

A partly oxidized porous metal substrate applies a porosity gradient to resolve the trade-off between mechanical strength and gas distribution in SOFC cells.

An electrolysis hanger bar embeds a power storage unit and control circuit to autonomously manage current flow.