Cells TRIZ Cases

A rotatable fluid head ejects liquid and gaseous streams to clean semiconductor workpieces.

Segmented bipolar plates with tailored channel geometries achieve homogeneous temperature distribution and reduce mechanical stress on the cell.

An electrical arc discharge system synthesizes carbon materials within a reaction chamber using high-voltage electrodes.

An electron charged packed bed converts carbon dioxide to methane using halophile microorganisms under anaerobic conditions.

A capillary electrophoresis apparatus integrates a thermostatic device to stabilize the temperature of the capillary array and optical detection unit.

Protonated aromatic hydrocarbons suppress dendritic growth in non-aqueous electrodeposition by adsorbing at high-energy cathode sites, enabling smooth deposits.

Electroconductive bolts replace welded anode mounts, enabling on-site catalyst replacement without specialized facilities.

Porous substrate enhances mass transport of gaseous reactants to membrane electrode assembly, overcoming low solubility limitations in liquid environments.

An electrolytic cell with an ion conductive membrane regenerates alkali metals and sulfur from polysulfides.

Replacing aqueous solutions with low vapor pressure ionic liquids eliminates solvent evaporation and precipitation while maintaining long-term stability.

An electrochemical cell reduces carbon dioxide at the cathode while co-oxidizing an alcohol at the anode to generate multiple chemical products.

A plasma generator uses a variable short-circuit to compensate for microwave attenuation during propagation.

A substrate plating method uses reverse electrolytic processing to remove accelerator from the surface before final deposition.

An oxide adhesion layer prevents chromium diffusion into glass seals, maintaining bonding strength.

External non-contact detection prevents dry-boiling and corrosion by maintaining accurate electrolyte levels without direct component exposure.

Adjusting electrolyte pH minimizes bromide impurities, eliminating complex distillation towers while achieving 99.999 mass% purity.

Periodic current reversal across zinc-plated electrodes prevents degradation and reduces zinc consumption during salt water electrolysis.

RF transient sensor coupled to a threshold comparator detects voltage changes at the electrostatic chuck electrode.

Three-stage inspection determines leakage levels to prevent plating failures while maintaining high throughput.

Circulation pump moves catholyte through capacitive separator to extract hydrogen gas from liquid electrolyte.

Dynamic control circuit distributes inrush current across multiple water electrolysis cells to prevent deterioration from rapid solar power changes.

Pin-and-slot engagement aligns transport rails automatically, eliminating cumbersome installation tools and reducing downtime during maintenance.

Forced cooling cracks deposited films to discharge fine particles, resolving the reliability versus productivity contradiction.

A folded electrode device pierces an insulation sheet to connect analytes directly to transducer electrodes.

Optimized target geometry reduces current fluctuations to enable small-capacity power supplies while maintaining film uniformity.

A solid electrolyte membrane with a concave portion isolates the contact surface to deposit metal ions precisely on the substrate.

A manifold-compatible electrolytic ozone cell uses a coplanar interface to merge fluidic and electrical pathways.

A plating-deplating waveform removes residual from electroplating contact pins through controlled voltage pulses.

A redox ion exchange membrane uses reversible reduction and oxidation reactions to transport protons or anions.

A monolithic clamping plate houses a resistive heating element to generate heat via the Joule effect for electrochemical units.

An electrochemical reactor uses a forward osmosis membrane to concentrate CO2 conversion products in situ, eliminating energy-intensive post-treatment steps.

Dynamic pressure control prevents membrane stretching by maintaining a stable differential between the anode chamber and ionically resistive element manifold.

Solid oxide electrolysis stacks generate ammonia synthesis gas by burning produced hydrogen with air, eliminating costly air separation units.

A carrier-attached ultra-thin copper foil uses a release layer containing a copper-containing organic compound with a copper-nitrogen bond to enable separation.

A semiconductor photoanode coated with nanoscopic material captures water vapor from ambient air to generate hydrogen gas.

Interfacial electrofabrication forms freestanding biopolymer membranes using distal electrodes and electrolyte interfaces.

Strategic port placement generates shear flow that removes accumulated air bubbles, preventing membrane fouling and maintaining plating quality.

A modular fuel cell unit uses a pressure maintenance device to ensure consistent contact pressure across segmented modules.

Insulating end pieces compress the assembly via threaded rods, protecting fragile ceramic membranes from breakage during manufacturing.

A water electrolysis shutdown method releases cathode pressure and circulates water to lower anode hydrogen concentration.

A reactor system maintains electrical connectivity during electrochemical expansion of parent materials to produce expanded nanosheets.

A solid polymer electrolysis system converts carbon dioxide into hydrocarbons using controlled voltage and temperature settings.

An electrode rack moves electrodes into hollow parts to coat interiors, reducing the complexity of separate coating machines.

A drying module sprays gas to dry substrates while supplying liquid to the tank wall, capturing floating particles and preventing contamination.

Edge detection sensors measure substrate sides to correct center position and rotation angle, eliminating complex notch configurations.

Sulfur dioxide serves as an anode depolarizer in saline water electrolysis, preventing chlorine evolution and precipitation while reducing energy consumption.

A frequency adjusting apparatus uses a pattern mask with alternately displaced holes and individual shutters to control ion beam irradiation time for precise element tuning.