Cells TRIZ Cases

A conductor roll balances electroplating and electrolysis to prevent copper deposition.

Varying agitation during plating forms a protective solder shell on connector pillars, preventing oxidation and moisture ingress in high-density assemblies.

Electrolyzing sodium chloride to generate chlorate in situ, then reducing it with acidic thiosulfuric acid or dithionous acid.

A cobalt-based sputtering target uses flat plate-like phases to improve ionization and pass-through flux during magnetron deposition.

A membrane electrode assembly uses lanthanum strontium cobalt ferrite electrodes with barium zirconate indium oxide electrolyte.

Anodic oxidation of hydrogen peroxide generates oxygen, water, and electricity, eliminating heavy onboard storage tanks.

Hydrolysis-resistant polyimide retaining plates integrate hermetic sealing portions within conductive vias to prevent leaks and preserve electrical performance.

A reduction flow member with varying channel heights manages fluid pressure and ensures uniform water distribution across electrolysis cell surfaces.

An electrolyser system uses an integrated gas separator with a direct cooling section to condense water vapor from the electrolysis gas.

An in situ formed solid electrolyte membrane enables distributed ammonia production by resolving low flux and catalyst poisoning issues.

Measuring inactive component concentration determines additive turnover in electrodeposition solutions.

An insulating mediator between the deposition ring and cover ring prevents electrical discharge, ensuring uniform film thickness.

An electroplating cell uses an ion selective membrane to separate compartments, increasing metal deposition rates while managing acidity levels.

An adhering portion containing chromium oxide and matching metal particles bonds alloy members while blocking diffusion into glass seals.

An asymmetric electromagnet coil creates a non-uniform magnetic field distribution to compensate for RF-induced plasma variations.

Mechanical vibration ruptures water molecules to produce hydrogen and oxygen gases without electrolysis.

Gasket extension portion prevents screw dropout from corrosion while maintaining unobstructed cooling water flow.

An electrochemical cell separates oxygen from air using a proton transfer medium to generate oxygen-depleted inert gas for protected spaces.

Stacked semiconductor and metal layers form Schottky junctions to generate photovoltages in artificial photosynthetic units.

Reducing bead seal cross-sections guides coolant flow to prevent bypasses and ensure efficient cooling in electrochemical systems.

Segmented gas ports deliver process gas directly to the sputtering space and chamber exterior, maintaining uniform pressure during plasma ignition.

Compressing coke in a porous chamber with potential bias improves yield and reduces cost.

A three-compartment electrochemical cell reduces carbon dioxide directly from absorbent solutions to extract carboxylic acids in situ.

A hydrogen-gated magneto-ionic device employs a proton conductor to transport protons, enabling large magnetic anisotropy changes without chemical degradation.

An electrochemical device compresses hydrofluoroolefin fluid using a proton exchange membrane and electric field without mechanical moving parts.

Cascade rinsing recycles metal ions from the coating bath, reducing waste disposal costs while maintaining high electrical conductivity.

Thiol aliphatic compounds enable stable electrodeposition of silver-rich binary alloys in acidic baths.

Reversing rinse material flow in the CO2 gas supply path dissolves salt precipitation without flooding the catalyst layer, maintaining stable cell output.

Segmented electrochemical compartments with flowing redox material enable continuous hydrogen and oxygen production, eliminating batch-swing fluctuations.

A substrate processing control device selects transfer methods to maintain uniform processing states across wafers.

A layered porous transport layer uses varying substrate densities to facilitate water discharge from the cathode in electrolysis cells.

Selective anode catalyst deposition on porous transport layer surfaces reduces local current hot spots and improves cell lifetime through improved contact.

Stacked layers with cutouts create multi-channel inlets that improve fuel utilization and reduce parasitic losses in SOEC systems.

A hydraulic wedge extraction device uses opposing forces to remove short-circuiting shims from aluminum electrolysis cell conductors.

Nanotree heterostructure segments n-type and p-type nanowires with a nested conductive layer to resolve flux matching contradictions in solar water splitting.

A bioanalyzer substrate uses electrochemical decomposition to release bound analytes and regenerate the sensor matrix for repeated measurements.

A method shapes seals on electrochemical reactor components using alternating molding plates to ensure precise geometry.

A proton conducting membrane dissociates steam into hydrogen and oxygen using a DC voltage across an anode and cathode.

Guard bed extracts metal carbonyls and oils from gas stream, preventing electrode degradation and costly separation of incomplete conversion mixtures.

Removing the membrane eliminates current flow restrictions while a wick manages electrolyte distribution for high-purity gas production.

A rectangular plastic electrolytic reactor housing with integrated metal fasteners and threaded end cap anchors.

Plasma treatment activates electroless plating surfaces to strengthen adhesion with subsequent electroplating layers on fine-pitch PCBs.

Internal reinforcing members mounted to polymeric structural plates mitigate outward displacement under elevated fluid pressure.

Alternating current drives redox cycling between electrodes, amplifying analytical signals while reducing background interference for precise analyte detection.

Oblique second flow field ridges reduce membrane stress under pressure differentials while maintaining directional fluid efficiency.

A gas diffusion electrode reduces carbon dioxide to valuable chemicals using hydrogen and alkali metal bicarbonate feeds.

A shielding body moves between anode and substrate based on calculated growth coefficients to control plating conditions.

A solid polymer electrolyte membrane cell uses a specific potential window to stabilize first transition metal oxidation catalysts.