Cells TRIZ Cases

Non-aqueous electrolyte enables nitrogen dissolution and ion conduction, eliminating high-pressure vessel requirements in ammonia production.

Critical surface guided electron exchangers reduce gas bubble generation and transfer resistance, resolving energy loss in liquid-to-gas conversion.

Basic electrolytes and heterocyclic oligomers suppress hydrogen evolution to boost ethylene Faradaic efficiency.

A flow electrode capacitive deionization system separates phosphate from phosphogypsum leachate using electrostatic attraction and ion exchange membranes.

Micro etching removes oxides from sintered layers before copper electrodeposition, resolving adhesion and defect density trade-offs.

UV radiation oxidizes sulfur compounds in the plating bath, preventing efficiency loss and extending operational life beyond ten months.

Resin layer fills minute gaps between stacked electrodes and housing to prevent scale accumulation that deforms components during ozone generation.

A substrate holder cleaning bath uses a dummy substrate to shield electrical contacts during immersion.

Flame spray pyrolysis creates iridium oxide and metal oxide particles that resist carbon corrosion and sintering during high potential excursions in fuel cells.

Pulsed current and jerk motion minimize gas bubble accumulation, enabling high-efficiency machining of complex inverted conical micro-holes.

Template-free electrodeposition deposits porous metallic coatings that prevent delamination while preserving substrate conductivity.

Optimized austenitic stainless steel weld metal composition prevents blow holes and improves high-temperature strength in push-pull MIG welding.

Electrolysis extracts water from feed ammonia, preventing catalyst poisoning and enabling efficient cracking at lower temperatures.

A bus bar electrical feedthrough transfers high current through a floor structure while maintaining atmosphere integrity in glovebox facilities.

Alloy nanoparticles reduce the Schottky barrier to enhance near-infrared detection while suppressing metal oxidation and maintaining plasmonic characteristics.

Octahedral lead particles on transparent substrates convert carbon dioxide to carbon monoxide with high faradaic efficiency.

Thermal dewatering of desulfurized lead paste prevents electrolyte dilution during electrochemical recovery.

Independent gas circulation reduces thermal stress and cooling costs in solid oxide electrolysis stacks.

Hall sensors on product carriers measure plating currents without physical contact.

Segmented electrolyser cell plates route gas-liquid mixtures to dedicated degassing chambers for phase separation.

A split electrolytic silver ion spray device generates disinfectant ions from tap water using a reusable reservoir and anode-cathode assembly.

Interleaving deposition ring and ground shield maintain thermal contact while preventing component collision.

Ultraviolet-ozone treatment decomposes organic impurities in electrolytic copper plating solutions, followed by activated carbon removal to extend service life.

A magnetron source with a peach-shaped track and dual driving mechanism adjusts movement speed along the scanning trajectory.

Continuous electrochemical reduction converts carbon dioxide into high-concentration formate salt using a dual-unit cell design.

Sorbent materials extract dilute carbon dioxide from air, enabling low-carbon intensity synthetic fuel production via Fischer-Tropsch conversion.

Sintering on a matching plate-like molding prevents shrinkage-induced cracks in hollow cylindrical ceramic targets.

Radial gas injectors dry the substrate edge after pre-wetting, preventing corrosion and ensuring uniform electrodeposition.

A composite polymer electrolyte membrane with a cross-linked layer resolves the trade-off between low internal resistance and gas permeability.

A cross flow manifold directs electrolyte velocity across a substrate, resolving the contradiction between high plating speed and uniform deposition.

Segmented inlet pathways with variable orifice areas compensate for flow path length to eliminate electrolyte starvation in distant cells.

A high temperature electrolyser paired with a chemical compressor recovers waste heat to boost energy yield.

An electrochemical cell deposits rare earth metals onto a cathode using an ionic liquid electrolyte.

Electrochemical dehydrogenation using a proton-conducting solid oxide electrolyzer overcomes catalyst coking and low selectivity in ethane conversion.

A lithium cation exchange membrane enhances ion conductivity in water electrolysis systems.

A proton-conducting membrane electrode uses asymmetrical catalyst distribution to drive electrochemical hydrogen oxidation and reduction.

Automated valves and pressure sensors manage stack pressure differentials, eliminating complex buffer volumes while maintaining seal-tightness.

Multi-stage leakage test identifies trace plating solution leaks via vacuum pressure checks and tracer gas mixing to prevent substrate contamination.

Antechamber internals divide feed flow into partial streams to achieve uniform velocity across sacrificial electrodes.

A flexible sealing sleeve compensates for cathode bar displacement caused by thermal and sodium expansion, preventing aggressive gas penetration.

A nickel-cobalt-oxide catalyst with a cobalt-enriched surface layer enhances oxygen evolution reaction activity.

Porous filter enables continuous ion intercalation, preventing graphene layer overlap and recombination for high-yield ultrathene production.

A headlight moisture removal apparatus uses electrolysis with dielectric-coated electrodes to decompose water vapor inside the housing.

A method for producing electrodes for alkaline electrolysis based on a composition of metal sulfides on a Ni foam substrate.

Segmented electrochemical cells generate and stabilize reactive intermediate species, enabling accurate structural analysis of oxidative metabolism.

Segmented compartments resolve efficiency losses from thermal diffusion by confining electrolyte volume while maintaining reaction kinetics.

Vertical extraction of the anode assembly via a transverse support reduces lateral space requirements and energy losses.

High area-specific resistance in the bi-layer electrolyte provides internal heating, reducing external energy consumption and carbon formation risks.

Automated ion beam device positions machining patterns using scanning signals and absorption current detection, eliminating manual skill requirements.