Cells TRIZ Cases

Engineered CtNHase enzymes drive dynamic kinetic resolution of nitrile substrates to produce chiral amino amides.

On-site electrochemical chlorine generation dissolves metals from ore while eliminating hazardous cyanide waste and reducing chemical consumption.

Nested recuperators and column heaters maintain 700-900°C operating temperatures within constrained hotbox volumes.

A mid-frequency twin magnetron sputtering process deposits lithium cobalt oxide films onto battery substrates.

A tuned LC circuit generates a nonlinearly increasing electric field to dissociate water molecules into hydrogen and oxygen gas.

Fe-Ni-P-RE multicomponent alloy plating reduces high-frequency inductance loss while maintaining thermal expansion matching for microelectronics.

Oxide nanosheet carriers increase surface area to support catalysts densely, reducing material usage while maintaining electrolysis efficiency.

A deposition system noise canceller filters sensor signals to adjust power supply output.

Refined Sb-Te alloy targets inhibit particle generation and abnormal electrical discharge during sputtering.

Sequential rotation of a part-carrier exposes all surfaces to current lines, resolving non-uniform coating thickness on geometrically complex parts.

Conformal target geometry enables uniform nanostructured Cu-Cr deposition on hollow substrates, resolving coarse particle issues from plasma spray methods.

Operating some cells in electrolysis mode produces hydrogen that heats the stack, reducing external heater needs and earth fault currents.

Segmented electrode plates with insulating wraps eliminate internal wiring, reducing electricity consumption during Brown's gas production.

Automated apparatus grows nanowires via controlled galvanic deposition, resolving industrial quality inconsistencies caused by manual process variability.

Segmented voltage sensing detects cell failures early, preventing stack damage and reducing power waste from undetected short circuits.

Real-time azimuthal tracking synchronizes rotation and lift timing to fix substrate entry points, eliminating contact variability in electroplating processes.

Water-repellent porous body discharges oxygen gas to prevent air bubble accumulation between anode and separator, maintaining stable cell performance.

Laser ablation creates precise gas channels in thick ceramic or metal coatings on iron-nickel substrates, reducing manufacturing complexity.

Electrophoretic deposition of transparent paint into anodized titanium valleys resolves the contradiction between color versatility and scratch resistance.

Removing membrane reinforcement over homogenization zones increases channel depth to lower pressure drops and prevent hot spots.

A high-pressure hydrogen production apparatus uses a gas-pressed barrier member to maintain electrolytic efficiency.

Chamber partitions distribute reactants uniformly to prevent hydrogen accumulation and lower power consumption.

An electrochemical cell with an ion-conducting electrolyte separates tritium gas and lithium metal directly from a molten lithium solution.

A nested reactor device converts powdered metal oxides into metal powder and oxygen ions using an integrated cathode-anode structure.

Interchangeable contact ring reduces idle time during deplating maintenance, maintaining wafer plating uniformity and throughput.

Composite iridium oxide catalyst layer on valve metal substrate enables oxygen evolution at small overpotential.

Widening guide channels near the bead flank resolve the trade-off between mechanical stability and media supply efficiency in compact electrochemical systems.

Galvanically isolated partial lines in electrolyzer feed and discharge pipes increase ohmic resistance for stray currents.

Segmented electrodes in a plating tank resolve current density nonuniformity, ensuring consistent film thickness and reducing rework.

Segmented frame seal prevents electrolyte leakage through capillary action while enabling easy gas diffusion electrode replacement.

Exposed pipes dissipate electrolysis heat through ambient air contact, maintaining optimal temperature without increasing system size.

An electrochemical cell converts carbon dioxide to oxalate and produces oxalic acid through continuous acidification.

Ring-shaped permeable electrodes guide diverging electrolyte streams to separate hydrogen and oxygen gases without physical membranes.

Nickel-doped cobalt phosphide nanoparticles deliver bifunctional catalytic activity that reduces overpotentials in alkaline water splitting.

Modular electrogenerative oxidative dehydrogenation process converts natural gas liquids into fungible fuels, bypassing costly cryogenic separation bottlenecks.

A hydrogen generation apparatus feeds electrolysis output into a chemical energy conversion device to produce electrical current.

Cooling the reaction suppresses tin oxidation and precipitation, enabling high-concentration solutions with minimal free acid.

A catalyst layer comprising ruthenium, iridium, titanium, and transition metals reduces initial overvoltage during electrolysis.

Plastically deforming rigid cathodes converts finite-gap cells to zero-gap designs, reducing ohmic drop and saving 150 kWh per tonne of caustic soda.

High-temperature polymer electrolyte membrane pumps separate and compress hydrogen from carbon monoxide-rich streams without complex unit operations.

Focused electron beam sculpts a nanoscale tunneling junction aligned with a nanopore to measure base-specific current signatures.

Electroactive species bind Lewis acid gases through controlled redox cycling to enable selective removal from fluid mixtures.

Through-holes in the anode and a rear face plate prevent bubble accumulation on the ion conductive path, stabilizing film thickness uniformity.

Dynamic load control prevents cell damage and sealing leaks by adjusting pressure based on real-time sensor data for extended service life.

Refining Sb-Te alloy powder to 90 μm via inert atmosphere processing inhibits target cracking and arcing during sputtering.

An electrolytic cell synthesizes ammonia at ambient conditions using a proton-permeable electrode and Ni-based membrane.

Tapered outlet headers reduce separator damage risk while maintaining high current efficiency in electrolyser electrode assemblies.