Cells TRIZ Cases

Distinct particle contacts in a solid electrolyte layer enhance ion conductivity and alleviate mechanical stress within electrochemical cells.

A nickel-titanium alloy catalyst enables hydrogen production through alkaline water electrolysis.

The Solar Thermal Electrochemical Photo process lowers electrolysis potential using waste heat from photovoltaic cells, reducing CO2 emissions.

A flux-assisted calcination method synthesizes MaTibOcSd photocatalysts with enhanced crystal structure.

Integrated tank and scale measure alloy weight during deposition, eliminating transfer delays and excess precious material waste.

A crossflow electrolysis system circulates electrolyte between two reservoirs connected by a pressure-equalizing line.

An electrochemical cell converts carbon dioxide to oxalate using an anion exchange membrane for subsequent acidification.

Segmented distributor plates homogenize electrolyte flow, eliminating chaotic eddying that causes inhomogeneous layer thickness distribution.

An electrochemical plating system measures interface resistance between plated metal and electrolyte to adjust organic additive concentration dynamically.

Ultrasonic vibration refines indium target grain structure during solidification to suppress pore formation.

Spacer means between support layers maintain precise chamber dimensions, resolving seal reliability versus manufacturing precision conflicts.

Polyaluminum chloride stabilizes nonconductive particles in the plating bath, eliminating separate addition steps and enabling controlled micropore formation.

Offset identical cell frames with integrated sealing beads reduce component types and material consumption while enhancing temperature cycle stability.

A chuck plate with refrigerant ducts cools the glass substrate to minimize thermal expansion errors.

An autonomous electrochemical gas generator controls production rates via an oxygen-permeable film, removing electronic complexity from the design.

A four-volume electrochemical cell synthesizes ammonia at ambient conditions using steam and nitrogen inputs.

A membraneless 3D electrolysis cell uses separate ducts to supply reagents selectively to anode and cathode reaction zones.

A tin-gadolinium alloy electroplating bath deposits a protective layer on substrates.

Oscillating magnets sweep across targets to distribute plasma flux evenly, resolving non-uniform erosion in multi-chamber sputtering systems.

Dynamic electrolyzer rate control adjusts hydrogen output based on real-time power costs and predicted market values.

Dynamic current ramping during substrate immersion maintains uniform current density across the seed layer, preventing void formation in narrow trenches.

Opposing inlets on an ECPR chuck enable rapid fluid rinsing and gas drying, preventing oxidation and ensuring substrate reuse.

Pressurized gas simulates plating solution pressure in a hermetic space to detect leaks, preventing solution intrusion into electrical contacts.

Dynamic separator positioning manages hydraulic pressure to limit hydrogen and oxygen migration, maintaining safe gas ratios at low and high current densities.

Alternating contact states between the membrane and substrate release trapped gas by-products, suppressing pinhole defects during continuous film formation.

A sputtering apparatus with independent rotatable cathode and stage components controls particle incident angles during deposition.

Inline microfluidic sensors enable continuous monitoring, eliminating large sample extraction and reducing material costs.

Hydrophilic cathode catalyst layers retain osmotic water to maintain electrolyte membrane wetness, eliminating the need for external water trap units.

A device uses mixed metal oxide coated electrodes to generate chlorine dioxide from tap water chloride ions.

Contact columns establish connections between cooling plates and electrolyte plates in an electrolyzer cassette. This structure maintains plate alignment while enabling efficient cooling of electrolytic fluids through dedicated flow paths.

Ion source and recycle module purifies electrolyte via electromigration, eliminating carbonate contamination that compromises chromatographic reliability.

A hydrogen station safety control apparatus performs independent watchdog monitoring to cut power supply when state management abnormalities occur.

An electrolysis apparatus uses halide electrolytes to produce ammonia at temperatures below 500°C.

Segmented magnesium and ferrum anodes generate pure hydrogen and electrical power from seawater, resolving low energy density and device space constraints.

A plating apparatus supplies distinct current densities to substrate faces and applies a lower protection current after initial completion.

Aprotic solvents shift formal potentials to resolve separation complexity while mediating carbon dioxide reduction.

Replacing precious metal coatings with base metal oxides reduces manufacturing costs while maintaining catalytic activity.

A carbon dioxide electrolyser uses a shared electrolyte space between gas diffusion electrodes to transport dissolved reactants.

An accumulator transfers water to an electrolytic cell using pressure from generated gases.

An Fe-Pt sputtering target disperses low-CWI metal oxides within the alloy matrix to suppress particle generation from voids.

A liquid treatment device uses swirl flow plasma to generate hydrogen peroxide and metal ions for rapid mixing.

Galvanic connection between soluble zinc and nickel anodes prevents black passivating deposits during electrolytic deposition interruptions.

Molten salt electrolysis eliminates hazardous gas risks by producing pure anhydrous metal chlorides through controlled electrochemical dissolution.

Electrochemical acidification converts alkali metal chlorite to chlorous acid for chlorine dioxide production.

Magnetic fields deflect macroparticles onto chamber walls while guiding ions toward the substrate for high-quality coatings.

A recirculating flushing medium transports product gases from an electrolysis cell to a separating device for reuse.

An ozonator cleans the gas pathway in a hydrogen generator, eliminating bacterial growth and ensuring pure inhalable gas.

Lithium ion conductive membrane enables electrochemical nitrogen reduction to lithium nitride for subsequent ammonia generation.

A PEM electrolysis frame combines a metal core with a rubber coating to provide mechanical stability and effective sealing for high-pressure hydrogen production.