Cells TRIZ Cases

A dual-electrode electrolytic device reduces carbon dioxide to valuable carbon compounds using electrodes with distinct ionization tendencies.

Variable width electrode paths increase power density at heat loss boundaries to resolve temperature non-uniformity in semiconductor processing equipment.

A hydrogen-oxygen mixture gas producing device electrolyzes water to generate fine air bubbles for engine fuel supply.

Porous spacers between diamond sheets reduce mechanical stress and optimize electrode spacing for mass transport.

Multi-layer backmetal systems combine sputtered gold and electroplated silicon ingress-resistant layers to enable robust substrate bonding.

A buffer reservoir with an expandable bellows chamber smooths pulsed flushing mass flows, diluting hydrogen concentrations below ignition limits.

Dynamic feed control adjusts wire electrode speed based on tension variations to maintain machining precision.

Electrically heated steam methane reforming converts biogas into synthesis gas using Joule heating of structured catalysts.

Engaging portions on feeder shafts prevent positional shifts between electrodes, ensuring consistent electrolyzed water generation performance.

A solid oxide electrochemical reactor produces high-purity hydrogen and syngas using an oxide ion conducting electrolyte.

Rotating cylindrical electrodes prevent deposit accumulation and arcing, reducing maintenance downtime while improving coating homogeneity.

Electrolysis regenerates scrubbing liquid to remove H2S and chlorine, avoiding external air supply needs.

Thick surface oxide layer on titanium bipolar plates prevents hydrogen embrittlement while reducing reliance on expensive platinum coatings.

Membrane cell electrolyzers produce high-strength sodium hypochlorite from brine, eliminating the need to store hazardous pressurized chlorine gas.

Electrochemical intercalation separates graphene sheets from coal powder, eliminating chemical pollution and reducing energy consumption.

Vertically long crystal grains in glass seal members release thermal stress through controlled vertical cracking, preventing horizontal cracks and gas leakage.

Communication network transmits real-time material levels to central control unit, preventing operational disruptions from supply shortages.

A decoupled plating system regenerates organic electrolyte via separate lithium replenishment cells to enable uniform metal deposition.

Composite electrodes with rigid current collectors prevent corrosion and leakage, enabling high purity persulfuric acid production.

Agitated electrochemical reactor circulates fluid through draft tube vessel, reducing plate scaling and heat generation during water treatment.

Electrolysis converts kinetic energy to hydrogen, storing it indefinitely without dissipation.

Co-assembling sub-units and embossed polymer films reduces manufacturing complexity while maintaining optical transparency for efficient hydrogen production.

A compact electrochlorination apparatus uses gravity feed and batch control to generate sodium hypochlorite solution without dosing pumps.

Microprocessor module stabilizes voltage in electrolytic cells, preventing parasitic currents that reduce oxyhydrogen gas production.

Sacrificial yarn elution holes in fluoropolymer membranes reduce electrolysis voltage while maintaining mechanical strength.

Extruded cylindrical carbon particles prevent hydrogen gas accumulation in seawater energy cells, maintaining stable power generation.

A CIGS-based photo-electrochemical system reduces carbon dioxide to carbon monoxide using a molecular catalyst grafted on mesoporous TiO2.

Electrorheological fluid switches viscosity via electric fields to remove particles without damaging fragile substrate structures.

Plating solution deposits luminescent particles within metallic layers to create detectable security features.

A two-step electrochemical process converts flexible graphite into high-purity graphene oxide nanoplatelets using continuous intercalation and oxidation.

Doped wide-bandgap semiconductor nanotubes enhance photocatalytic activity for solar fuel production.

A segmented electrochemical reactor assembly produces carbon monoxide and hydrogen using closely packed units with integrated fluid passages.

A cathode flow path plate with a hydrophilic region enhances water mobility and uniformity in carbon dioxide electrolytic devices.

Seeded epitaxial growth synthesizes high-entropy alloy shells on gold cores, resolving noble metal instability in acidic water splitting.

Segmented line structures hold elastic elements against diaphragms to compensate for thermal expansion differences between plastic and steel components.

Modular electrochemical reactors with selective catalysts reduce hydrogen formation during CO2 electrolysis for scalable production.

Piezoelectric transducers generate ultrasonic vibrations that disrupt bubble adhesion on electrodes, restoring hydrogen production throughput.

A plastic work piece uses an insulating barrier to divide segments for simultaneous electroplating of distinct surface finishes.

A dual holding system secures partial stacks independently to enable targeted cell extraction without relaxing the entire battery assembly.

A PEM electrolyzer produces pure hydrogen and oxygen from distilled water, eliminating electrolyte crystallization that clogs miniaturized supply lines.

A low-copper electrolyte induces cathodic overpotential to protect the seed layer during immersion plating.

A cathode catalyst layer incorporates a water repellent exceeding 10 vol% to improve Faraday efficiency by repelling water and reducing side reactions.

Replacing motor-driven systems, a spring-loaded plunger pump maintains stable injection pressure by eliminating torque fluctuations and frictional forces.

A regulating plate with controlled wires adjusts electric field density across a substrate during electroplating.

Reciprocating pistons pressurize generated gases within alkaline electrolysis cells, removing the need for external compression equipment.

Segmented magnets with canceling flux components suppress localized erosion, increasing target utilization efficiency.

A flame aerosol reactor deposits and sinters metal nanoparticles into nanostructured photoactive films for solar energy conversion.

Electrochemical treatment transforms fine iron particles into magnetic oxides, recovering valuable material from low-grade waste streams.