Cells TRIZ Cases

A movable anode with suction channels absorbs electrolyte opposite the jet direction, resolving uniform distribution conflicts across production panels.

A proton exchange interface integrates catalytic systems to reduce protons directly in a non-aqueous zone.

Internal busbars extend through specific electrode plate openings to minimize external footprint and improve current transfer efficiency in electrolysis stacks.

Electrolysis cell internals induce turbulence in the middle chamber to prevent pH gradients that damage solid-state NaSICON electrolytes.

A porous solid electrolyte electrosynthesis cell decouples hydrogen and oxygen redox reactions into separate half-cells to generate high purity liquid products.

An annular gasket holds a diaphragm edge within an inward slit to secure the component in place.

Integrating catalytic activity and fluid transport into a single porous sintered electrode reduces internal resistance and production costs.

Third seal in porous substrate directs gas to active surface, preventing steam loss into non-active zones.

An electrolysis filtering system removes dissolved water from dielectric fluids using high voltage electrodes without internal wiring.

A porous positive electrode transmits metal ions through a solid electrolyte membrane to deposit homogeneous films on base materials.

Flow path switching directs electrolyte fluid based on mist particle size to suppress pipe clogging and enable continuous fluorine gas production.

Vaporized precursor deposits on a heated substrate to form a single-phase NbON film.

A copper oxide-nickel oxide heterostructure stabilizes active sites during nitrate reduction, achieving 95.6% Faradaic efficiency at low overpotential.

Segmented counter electrodes supply plating potential via isolated contact pins to enable high-speed electrodeposition on large area substrates.

Anode-side polymer protrusions on a fluorinated cation-exchange membrane reduce impurities in alkali hydroxide while maintaining mechanical strength.

Replacing destructive testing, airflow pressure and capillary height analysis identify sidewall voids to prevent electrical failures.

Direct anode-separator contact and gas flow paths reduce voltage variations at the anode, improving carbon dioxide reduction efficiency.

Segmented electrolysis cells recycle chlorine gas to lower production costs while maintaining 99.95% purity in the final titanium product.

Helical winding of sheet base material via staggered rollers enables alternating surface exposure in a single vacuum chamber, reducing system size and cost.

Separating salt concentrations in electrolysis chambers increases hypochlorous acid production while reducing salt residues in cleaning streams.

Dynamic anode positioning resolves the trade-off between high-speed productivity and manufacturing precision on complex-shaped members.

Sub-sea hydrogen storage resolves intermittent wind supply by converting excess energy into stored fuel for continuous grid delivery.

A titanium oxide electrochemical catalyst with high vertex density converts carboxylic acids into alcohols.

A localized electrochemical deposition method forms metallic components layer by layer using metal binders to join particles.

An integrated electrolyzer merges CO2 capture with water splitting to generate hydrogen, oxygen, and high-purity carbon dioxide streams.

An external electrolyte chamber generates dihydrogen through skin diffusion, eliminating implantable invasiveness while maintaining therapeutic delivery rates.

Replacing iridium and titanium catalysts with a nickel-based textile anode lowers manufacturing costs while sustaining catalytic activity.

Cerium oxide nanoparticles in cobalt-tungsten coatings heal fissures through chemical activation, eliminating reliance on limited microcapsules.

A closed-loop electrolysis device generates sodium hydroxide in situ using a cation-exchange membrane to maintain stable pH levels.

Precise humidity control moisturizes substrates to improve plating quality while preventing condensed water defects.

Carbon-supported carboxyl silver nanoparticles reduce overpotential and silver loading while maintaining high Faradaic efficiency for CO2 conversion.

Injection molding forms elastomeric sealing lips and ribs on electrolyzer separator plates, eliminating complex embossing steps.

A replenishment agent with controlled pH maintains plating solution volume while preventing insoluble material precipitation.

Pressurized gas drives electrolyte flow to create shear stress that removes electrode deposits without mechanical contact, preventing performance loss.

Replacing Teflon separators with an ion exchange membrane improves ammonia production efficiency while reducing energy consumption during urea hydrolysis.

Direct electromagnetic drive eliminates driveshafts to enable versatile brushing patterns and localized active species generation.

A water electrolysis apparatus uses mesh electrodes with radial flow paths to generate functional water.

A retaining surface creates a gap to remove treatment liquid from planar materials, preventing nip roll damage.

Extraction column removes organic additives from electroplating baths, reducing waste while maintaining optimal bath conditions for nanometer interconnects.

Porous walls guide electrolyte flow to separate gas bubbles outside the interelectrode region, reducing hydrogen cross-over at high production rates.

Cobalt phthalocyanine catalyst reduces carbon monoxide to methanol via electrolysis, achieving 14.3% Faradaic efficiency at pH 13.

A carbon/carbon protective element shields electrolysis busbars from corrosive gas bubbles, extending component lifespan and reducing maintenance downtime.