Cells TRIZ Cases

A system produces synthetic natural gas by electrolyzing water to generate hydrogen and oxygen streams for reaction with solid carbon.

Sulfone-containing conjugated polyimide nanosheets overcome charge carrier recombination and stability limits in solar-driven water oxidation.

A gradient nanotwinned structure in metallic materials adjusts mechanical properties by varying twin thickness scale.

A zero-gap reactor design integrates a gas diffusion electrode with metal nanoclusters to enable efficient carbon dioxide electrochemical reduction.

A pH-neutral alkali salt additive in the anolyte improves water delivery to the cathode through the anion exchange membrane.

An asymmetric plunger pump flow passage design directs electrophoresis medium to remove trapped bubbles regardless of individual pump variations.

A hydrogen generation apparatus uses a magnesium hydride catalyst to produce gas through hydrolysis.

Segmented flow channels in an electrolytic device separate reactant supply from product discharge, resolving obstructions that reduce production efficiency.

Regulated discharge openings and flow guides control liquid velocity during horizontal transport, preventing deformation of low-stiffness materials.

Sequential refining stages remove trace impurities from hafnium, enabling stable gate insulation films.

An electrochemical system transports oxygen carrier ions through a nanoporous electrolyte membrane to achieve high purity output.

Stabilized zirconia barrier layers mitigate over-potential and prevent electrode delamination during high current density electrolysis.

Electrolytic deposition of Zr and Ti films on steel plates prevents bath precipitation while maintaining high-speed treatment efficiency.

A three-chamber electrolytic apparatus generates chlorine and hydrogen nanobubbles to resolve storage stability issues caused by volatile gas release.

Optical metabolic imaging analyzes autofluorescence of NAD(P)H and FAD to classify lymphocytes without labels, avoiding sample destruction.

Dual catalysts enable room temperature ammonia synthesis, eliminating complex membrane treatments and reducing energy consumption.

A vertical column pressure regulator stabilizes anode chamber pressure, preventing membrane damage from differential forces during through-silicon via plating.

An electrochemical analytical apparatus measures electrical output signals from cavity and surface electrodes to evaluate electroplating formulations.

Segmented distribution elements direct fluid and current to substrates, ensuring uniform layer formation while eliminating physical reconfiguration time.

Polydopamine-coated carbon supports ultra-fine platinum clusters, mitigating corrosion and cost barriers in fuel cell electrodes.

Black radiation sintered body and converging body activate electrolyte, enabling efficient hydrogen generation at low voltage.

Replacing water oxidation with hydrocarbon dehydrogenation lowers cell voltage, enabling concurrent CO2 reduction and olefin production.

Plasma electrolysis uses baking soda to carbonize oil shale, overcoming low permeability and insulating properties to reduce energy consumption.

A porous metal sheet electrode with ceramic coating resolves separator integrity issues in ammonia synthesis.

Nickel phosphide catalysts convert carbon dioxide to hydrocarbons while suppressing hydrogen evolution.

Dynamic magnetic field control reduces redeposited film accumulation on sputtering targets, preventing delamination and operation failures.

Applying a viscous polyhydroxy compound before galvanic plating eliminates toxic wastewater and simplifies pretreatment steps.

A dissolved polyelectrolyte in the extraction compartment maintains ion conductivity without forming a static barrier.

A pressure-relief section detaches from the electrolytic housing to redirect internal gas flow away from critical components.

A thermochemical process using oxycombustion to cogenerate heat and electricity, followed by high-temperature co-electrolysis of water and carbon dioxide.

Gap channels between thin plates in a plating cell enable accurate circulation of treatment solution while preventing breakage and clogging of small objects.

Discrete deposition of catalyst and picture frame seal patterns eliminates high-pressure lamination, reducing manufacturing costs and material waste.

Textured substrates on conductive diamond electrodes improve gas liberation and current efficiency, eliminating lead toxicity in ozone generators.

A hydrogen gas mixing device incorporates a dedicated dilution gas supply part and valve circuit to manage gas flow paths.

Interdigitated electrodes on a single substrate enable efficient proton transfer in artificial photosynthesis systems.

A porous electrode-supported electrolyte membrane uses a conductive plating film to enhance carbon dioxide reduction efficiency.

An electrolyzer uses molecular filter membranes to separate hydrogen gas from impurities during production.

A gas generation device mist trap uses a filler to adsorb electrolytic mist and microparticles from the output stream.

A reverse electrodialysis cell uses a heat pump to cool dilute saline solution, precipitating salt for closed-loop regeneration.

A dividing wall uses segmented alkali metal cation-conducting ceramics separated by a buffer element to accommodate thermal expansion.

Segmented chromium oxide coatings preserve sealing integrity by blocking reduction reactions in solid oxide fuel cell stacks.

A membrane controls electrolyte flow through an ionically resistive element to maintain cross flow during electroplating.

A metal sulfate or sulfamate composition with dispersed carbonate particles stabilizes electrolytic baths.

A dual electrolytic solution system separated by ion exchange membranes enables efficient artificial photosynthesis using diverse water sources.

Segmented structural plates with external interlocking reinforcement enhance pressure holding capability without increasing device complexity or weight.

Ceramic insulation and a low-pass filter in the PVD shield suppress arcing while maintaining precise site isolation.

Electrolytic treatment forms a dense metal oxide layer on steel sheets to enhance interfacial adhesion with organic resin coatings.

A structured electrode arrangement promotes turbulent liquid flow through varying surface distances to enhance ion distribution.