Cells TRIZ Cases

Reciprocating paddle motion maintains uniform ion supply during high-current density plating, preventing convex bump formation.

A segmented electroforming system uses separate anode and cathode tanks with recirculation to control metal layer deposition.

Segmented cathode baskets with standardized connectors resolve static configuration limits, enabling scalable production of reduced metallic products.

Compliant cantilever springs stabilize binding loads during thermal expansion, reducing structural depth and increasing electrode area.

Hydraulic jets deliver microscale particles directly onto workpiece surfaces, eliminating continuous bath stirring and reducing process energy consumption.

Counterbore isolation prevents tray warpage during heating, maintaining substrate temperature control accuracy in vacuum processing.

A bag-shaped membrane pack in a circulation tank separates electrolyte solution from large gas bubbles to purify hydrogen output.

An electrolytic bath uses ion exchange membranes to boost acid water conductivity without resin.

Active quantum chemistry applies specific electromagnetic energies to drive chemical reactions through direct electron excitation.

Filling gaps with a conductive medium enables loop detection to stop gold plating, ensuring uniform thickness without mechanical lead wire removal.

Nanostructured cobalt oxide nanoflowers deposit onto conducting substrates via aerosol-assisted chemical vapor deposition to form thin film electrodes.

Solid oxide electrochemical gas separator cells remove oxygen from air using DC voltage to generate oxygen-depleted gas.

Segmentation and dimensionality change enable high concentration without extreme voltages, replacing laborious filtration steps.

Sealed nanopores prevent gas invasion while maintaining high porosity, improving heat insulation and swing characteristics.

A dual-membrane on-line generator isolates eluent channels from regeneration zones to produce stable acid or alkali solutions.

Additive manufactured nickel alloy electrodes with structured surfaces enhance catalytic activity in alkaline electrolysis systems.

Optical probes measure substrate reflectivity during deposition to enable dynamic power and position adjustments, ensuring uniform thickness and fill rate.

A reversible electrochemical cell uses a porous layer to immobilize liquid electrolytes between gas diffusion electrodes.

A hydrogen recovery unit recycles unutilized hydrogen from exhaust gases in an ore reduction furnace, mitigating heat loss and energy demand.

Modular hydrogen generation cores use bypass circuits to isolate faults, ensuring reliable industrial production without storage risks.

Adjusting magnet loop distances compensates for target erosion, ensuring uniform layer thickness while reducing eddy current losses.

Low pressure water sealing container monitors hydrogen discharge pressure for precise leakage detection.

Direct water electrolysis eliminates complex recombination and nitrogen oxide byproducts while enabling precise voltage-controlled gas ratios.

Smaller nickel particles in the second region enhance gas supply and electrode activity, resolving temperature drop issues that reduce reaction efficiency.

Offset hole patterns in stacked plates create a linear flow path that reduces polarization resistance and improves gas distribution homogeneity.

Lead compounds enable zinc powder to precipitate thallium, avoiding manganese dioxide formation and eliminating separate purification stages.

Differentiated plating hardness prevents crimp cracking while connection part wear resistance maintains electrical reliability.

An electrolytic cell with ion-selective membranes transports lithium ions to form hydroxide.

A substrate attachment device uses linear pushing to lock retaining members securely.

Oxygen-stable electronic oxides and stabilized zirconia composites eliminate reductant gas requirements, resolving anode degradation and safety hazards.

Segmented pressure monitoring distinguishes external and cross leakage in water electrolyzers using controlled valve states.

A convex anisotropic high resistance ionic current source redistributes ionic current density across a substrate.

Vertically oriented inert anodes reduce greenhouse gas emissions while maintaining high aluminum production rates.

Electrolytic bromine generation dissolves gold from refractory ores, and alkaline cathode conditions precipitate the metal to reduce chemical consumption.

A fill cycle counter and controller deactivate hydrogen storage containers after predetermined usage limits.

Integrates a cooling fluid flow channel into an anode separator surface, eliminating dedicated plates to reduce temperature unevenness and device complexity.

Insulating pipes prevent short circuits while adjustable nozzles maintain uniform oxide thickness on complex aluminium sections.

A segmented electrolysis cell frame places distribution channels on one surface and sealing structures on the opposite side.

Cathode releases anode catalytic material into the electrolyte for deposition on the anode surface.

A cation exchange membrane with 80 to 98 mol% potassium ions and 2 to 20 mol% sodium ions prevents swelling and elongation, eliminating pre-swelling operations.

Electrochemical cell converts supercritical hydrogen sulfide into elemental sulfur and hydrogen via proton exchange membrane electrolysis.

Staggered current operation maintains stable pH levels while minimizing waste from discarded sanitizer.

Rotatable peripheral targets in a sputtering apparatus distribute particles uniformly, reducing device complexity and cost.

Ag-decorated BiVO4-TiO2 ternary nanocomposites reduce electron-hole recombination and boost photocurrent density under visible light.

Infiltrating metal oxide precursors into nickel oxide electrodes forms uniform alloy catalysts that boost carbon dioxide conversion rates.

Replacing pressure-driven methods, this electrochemical process removes hydrogen at lower pressures to reduce mechanical stress and energy consumption.

Electrolytic reduction of titanium oxide in molten calcium chloride forms an oxycarbide intermediate for metal recovery.

A hydrogen production system guides steam uniformly into multiple cell stacks using a carrier gas and flow regulation devices, preventing steam starvation.

Estimates electrolyzer membrane resistance and capacitance using voltage decay data during current shutdown.