Cells TRIZ Cases

Ionic liquid electrolytes enable simultaneous alkane oxidation and oxygen reduction at room temperature, resolving slow electrode kinetics.

Open-circuit water electrolysis generates localized excess protons to enable acid-free etching without conventional chemicals.

Rotating holder cover with intersecting grooves eliminates paddle speed variation to ensure uniform plating film.

Aqueous ink formulation with mineral fillers and binders achieves screen printing viscosity, eliminating irritating vapor emissions from organic solvent drying.

Gas dispersion and filtration mechanisms maintain optimal ion concentrations in electroplating solutions, preventing defects from cuprous cation buildup.

Electrosprayed water nanostructures deliver reactive oxygen species to inactivate pathogens, eliminating chemical residues and sensory quality loss.

An integrated hydrogen sensor detects permeation across the proton-exchange membrane to prevent ignition risks and structural degradation.

Parallel insoluble electrode plates stabilized by through-bolts and conductive spacers eliminate thickness variations caused by anodic dissolution.

A hydrogen production system uses inert gas purging to clear pure water pipes during power outages.

A capacitive anode structure prevents plating solution degradation and maintains uniformity by applying polarization voltage during non-plating modes.

A mediator complex reduces cell voltage during water electrolysis by catalyzing hydrogen evolution at the cathode.

Angled rollers and a magnetic guiding portion stabilize carriers during transfer, preventing substrate protrusion and ensuring even thin film deposition.

Controlling hydrogen loading rates resolves inconsistency issues by ensuring reliable exothermic reaction initiation.

Segmented hemi-enclosures with leak-tight fasteners simplify construction of modular electrolyzers, reducing structural complexity.

A capillary electrolysis system produces hydrogen gas using nickel-plated stainless steel electrodes in an alkaline solution.

Segmented sputtering and plasma oxidation decouple deposition from reaction, resolving the trade-off between coating composition control and process stability.

Microwave debinding in a continuous furnace reduces thermal processing time and energy consumption for solid oxide electrolyzer cell manufacturing.

A movable cathode allows continuous metal recovery from ammunition by shifting between deposition and cleaning positions, eliminating manual intervention.

Inductive coupling eliminates fragile metal contacts, preventing deformation and reducing maintenance costs in electrolytic plating.

Acidic regenerating fluid removes non-proton cationic impurities from ionomer via ion exchange, restoring voltage efficiency without process interruption.

Humid molten salt electrolysis produces hydrogen that reduces metal oxides, lowering energy consumption and eliminating carbon dioxide emissions.

Ribbed fluororesin partitions suppress deformation in high-temperature electrolytes, preventing gas mixing during nitrogen trifluoride production.

Replacing oxygen evolution with iodide oxidation reduces energy consumption while a selective spacer blocks contaminants to improve hydrogen purity.

A hydrogen supply system uses a dew point adjuster to manage mixed gas humidity levels.

A resistance measuring module uses a test probe to measure electric resistance of a substrate holder and held testing substrate.

Separate electrolysis cells produce hydrogen and carbon monoxide while a catholyte scrubber removes unconverted carbon dioxide to optimize the product ratio.

A dental instrument uses a nickel alloy coating to embed abrasive bodies for durable machining.

A degassing baffle removes dissolved oxygen from process water before it enters the electrochemical cell anode.

Selective iridium oxide barriers at gas diffusion layer contacts prevent anodic catalyst degradation and maintain homogeneous current distribution.

Oxidant spiking creates Mono-ox-SPS for HPLC calibration, eliminating reliance on unavailable standards while maintaining measurement precision.

A cylindrical electrochemical cell uses a capillary-porous ceramic diaphragm between titanium electrodes to intensify electrolysis.

A circumferential isolator merges sealing and electrical isolation functions, eliminating separate gaskets to prevent leakage and ease maintenance.

A functionally graded composite coating mitigates water droplet erosion and fouling on power plant compressor blades.

Vertical electrode arrangement with falling liquid film maintains catholyte gap integrity, preventing gas breakthrough to boost production capacity.

Air bypass splitter divides inlet flow to cool product streams, reducing power consumption in solid oxide electrolyzers.

Incorporating nickel ions into composite plating solutions prevents particle sedimentation and solidification, ensuring consistent micropore formation.

An amperometric sensor swaps working and auxiliary electrode roles to maintain measurement accuracy.

A hydraulic tightening apparatus uses a multi-stage cylinder and spacer to compress adjacent electrolysis cells.

A molded plastic biocide-generating device integrates metal reinforcing rings to maintain structural strength while preserving manufacturing ease.

A porous separator diaphragm with inorganic hydrophilic particulates enables direct contact with a gas-evolving electrode to produce high purity hydrogen.

Segmenting compartments with an ion-selective membrane prevents bromate formation and chlorate generation while maintaining high current efficiency.

Cyclic metal halide oxidation enables hydrocarbon halogenation without continuous high-energy electrolysis.

Centrifugal forces in rotating fluid remove bubbles from narrow electrode gaps, maintaining active surface area and electrolysis efficiency.

Pulsed current electroplating fills via holes completely, eliminating thermal expansion mismatches that cause cracks and delamination.

A substrate holder uses a biased protective electrode to maintain electrical continuity during electroplating.

Bipolar electrode plates segment the electrolysis cell into parallel chambers, scaling water processing capacity without sacrificing efficiency.

Plasma jet pre-activation overcomes thermodynamic bottlenecks in direct CO2 hydrogenation, enabling efficient renewable energy-driven methanol production.

Ridges on an insert plate penetrate high-pressure seals to form a cascade configuration that reduces hydrogen leaks and lowers manufacturing costs.

Replacing conventional polyether additives with alkyl diamines prevents nodulation while reducing oxygen content in copper deposits below 10 ppm.