Cells TRIZ Cases

Segmented agitation rods boost plating-solution power at lower speeds, preventing solution scattering and reducing driving device load.

A shutter with a reduced thickness circumferential flange prevents fused seam formation between deposition material and the shadow tab mask.

A film forming apparatus incorporates a liquid discharge portion to remove electrolytic solution from the housing end face.

Segmented circulation lines with dedicated pumps optimize electrolysis output while protecting ion exchange efficiency.

An integrated electrolysis system produces formic acid by converting cathode-generated formate using anodic sulfuric acid.

A sputtering apparatus uses a dual-axis substrate holder to maintain constant particle impingement direction during deposition.

Uniform porosity in metal foam flow channels prevents reactant water restriction caused by oxygen bubble accumulation.

Conductive diamond electrodes enable electrochemical deposition and spectroscopic analysis of chemical species in complex solutions.

Segmented catalyst layers in the feeder layer suppress overvoltage by balancing electrode structure stability with hydrogen production efficiency.

Fine particles in the first electrode layer pores absorb shear stress, preventing cracks from thermal expansion differences.

Differing fastening portion widths constrain lateral movement to resolve alignment precision issues in high-throughput stacked electrode assemblies.

A buffer tank stores low-oxygen hydrogen to dilute contaminated gas, avoiding discarding high-value product and reducing nitrogen system requirements.

Thermal separation stages condense water vapor in hydrogen streams, reducing molecular sieve regeneration frequency and extending operational lifespan.

A tilted membrane and eccentric catholyte outlet direct electrolyte flow to achieve uniform deposition on substrates.

A transition metal bronze dielectric surface stabilizes generated ozone through energy absorption mechanisms.

Electrolysis of carbon feedstock gases in molten salt produces high-grade carbon materials using controlled catalyst addition and direct current density.

Auxiliary cathode redirects peripheral current to ensure uniform copper deposition, eliminating voids in narrow trenches without changing components.

Protuberances on substrates direct electrolyte flow to expel trapped air bubbles, ensuring uniform electrodeposition and reducing downtime.

Seal grooves connect to high-pressure flow fields through passageways that prevent membrane damage from rapid depressurization.

Electrochemical oxidation dissolves zinc from brass casings, recovering metals while eliminating environmental pollution.

Integrating inner and outer seal members onto one fixing ring reduces fastening tool requirements and maintenance complexity in electroplating apparatuses.

An ignitable heterogeneous stratified bonding foil generates an exothermic reaction to melt solder layers between a sputter target and backing plate.

A sputtering target deposits ZrO2-In2O3 protective films using an oxidative product phase.

Mesh structures in the electrolytic cell disperse bead and concentrate, preventing degradation during flow-through deionization.

Continuous vacuum processing eliminates hydrocarbon contamination and accommodates varying sample geometries to ensure high-quality SEM imaging.

A conductivity meter measures cleaning liquid to detect plating solution leakage on contact members.

Dual rods with asymmetric axial distances guide upper housing pressure release while keeping the lower door locked, preventing structural damage.

Close-spaced metal electrolysis plates generate hydrogen while a control system monitors parameters to prevent explosive mixture risks.

A sputtering target design uses a metal film on the side wall to seal the bonding agent and prevent particle generation during mask blank manufacturing.

Nested tubular electrodes with insulator openings enable portable hydrogen generation.

A water treatment device generates ultra-micro bubbles and strong oxidation factors through membrane-less electrolysis.

Offset distributing and converging paths in the flow passage forming member support the electrolyte membrane against high-pressure hydrogen.

A sputtering target with luminescent elements enables visual lifespan detection during separator coating.

Velocity synchronization between rolls prevents scratches on vapor-deposited layers, preserving gas-barrier integrity.

Parallel DC/DC converter modules match Joule heat with reaction heat in electrolysis stacks, preventing degradation from uneven thermal distribution.

Distinct ventilation paths prevent hydrogen gas leakage into electrical equipment chambers, reducing manufacturing complexity and cost.

A buck converter circuit regulates voltage across electrolytic cells, eliminating heavy transformers that cause power losses and heat generation.

Electron transfer to an anode replaces oxygen injection, reducing thiosulphate formation and foaming during elemental sulphur production.

An electrochemical hydrogen pump circulates gas within a controlled atmosphere furnace enclosure using applied electrical potential between electrodes.

A liquid-to-gas conversion cell employs an AI image monitoring system and a solute diminish layer to remove unwanted residues, improving energy efficiency.

A conductive collector removes contaminating elements from molten electrolyte before they reach the cathode, maintaining high purity aluminum production.

A redox device incorporates a residual gas purification unit to remove impurities from internal gases during operation.

A garnet-type solid electrolyte conducts lithium ions while blocking other atoms during molten salt electrolysis.

InGaN nanowire arrays on Si wafers optimize bandgap alignment to resolve current matching issues, achieving 26% solar-to-hydrogen efficiency.

Geometric cavities in the pressure frame enable elastic compression to compensate for machining tolerances and ensure sufficient holding force.

Austenitic stainless steel elastic bodies bias current collectors toward electrode layers, reducing electrical contact resistance at high temperatures.