Cells TRIZ Cases

Segmented magnets in a folded serpentine design minimize hot spots and uneven erosion rates during large-area flat panel sputtering.

A cross flow manifold combines upward and lateral electrolyte flows to generate shearing force on the substrate.

A power supply system samples actual output and adjusts settings to maintain consistent energy delivery.

An inclined diaphragm with a silicon seal and annular flow passage discharges anode air bubbles, preventing solution mixing and reducing additive consumption.

Electrodeposited iridium oxide on porous titanium prevents substrate corrosion while maintaining catalytic activity at high temperatures.

Segmented bipolar plates with preassembled frames reduce mechanical stresses and defects during manufacturing while ensuring high planarity.

Plasma electrolysis carbonizes oil shale without steam, reducing energy use.

Glass support elements transition between solid and viscous states to maintain membrane electrode assembly contact during operation.

A magnet unit uses extending and projecting magnetic pole portions to form folded shape portions on the target surface.

A hydrogen evolution assisted electroplating nozzle deposits copper tracks rapidly using coaxial electrolyte flow.

A molten salt eutectic process extracts lithium from spodumene ores through direct electroplating of lithiated transition metal oxides.

Matching rinse agent pH to the electroplating solution prevents contaminant precipitation on seals and contacts, reducing maintenance downtime.

Segmented mount and self-service actuator enable precise anode repositioning without blocking potroom traffic.

A capacitor switch network manages power distribution to multiple electrolysis cells.

Boron addition refines tantalum grain structure, stabilizing plasma discharge and reducing burn-in time.

Automated motion control and solution recycling prevent pinholes and pits while reducing labor intensity in brush plating.

Electrochemical process recovers high-purity lead from battery paste using an aluminum cathode and organic sulfonic acid solvent.

Humidifying carbon dioxide feed gas before high-temperature electrolysis boosts carbon monoxide production efficiency while reducing energy losses.

A secondary weir positioned below a primary weir manages plating solution overflow to ensure uniform radial fluid exit paths.

Complexation agents associate with acids or bases under electrical potential, eliminating continuous reagent replenishment needs.

Water flow through electrode holes cools the cell, preventing proton exchange membrane damage from heat.

A hydrogen generating fuel cell uses an ultraviolet radiation source to ionize water between porous electrodes.

A catechol-based surfactant enables homogeneous nano-catalyst deposition within solid oxide electrochemical cell pores.

Deposition electrolytic cells store zinc in alkaline electrolytes, resolving low energy density and high weight issues in compressed gas storage.

Ni-Fe battery electrodes catalyze hydrogen evolution to extend operational time beyond charge capacity limits.

Segmented redox flow cells decouple hydrogen and oxygen evolution reactions to extend grid storage duration beyond six hours.

Dynamic current density adjustment compensates for differing reduction potentials to maintain uniform alloy composition.

One-sided water addition and gas re-circulation eliminate complex balance of plant equipment while maintaining membrane hydration.

Converging internal side walls maintain laminar flow through the electrolytic cell, reducing scale deposition and electrical resistance.

Composite anion-exchange membranes reduce hydrogen leakage while sustaining durability exceeding 1000 hours.

Molten carbonate electrolyzer separates fuel cell exhaust into oxygen and carbon dioxide, eliminating air separation units.

Segmented active area regions in electrolysis cells optimize current distribution, reducing power losses during high-output hydrogen production.

Molten carbonate electrolysis produces doped carbon nanotubes and graphene, solving high-cost scaling limits of conventional synthesis.

A hybrid electrolysis system recovers waste thermal energy from a low-temperature PEM subsystem to power a high-temperature SOEC unit.

This device eliminates external reformers by using a protective barrier layer that filters contaminants while allowing internal steam-driven reforming reactions.

Independent power supply units adjust current during entry, immersion, and exit to resolve coating thickness variations caused by electrical resistance changes.

Oxide catalyst layers on a nickel substrate reduce overpotential while maintaining corrosion resistance in alkaline environments.

Optical and eddy current sensors detect tin-silver alloy buildup on substrate holders to prevent electroplating contamination.

A segmented dark room shield rotates with a sputtering target to distribute material deposition evenly across its surface.

Segmented membrane-electrode assembly with a wire-form counter electrode resolves manufacturing complexity to produce high-concentration ozonized water.

A water electrolysis device uses circulating supercapacitive particles at the positive electrode to enable high-rate hydrogen generation.

Molten salt electrolysis converts coal char into graphite deposits, reducing energy consumption and enabling high-volume production at lower temperatures.

Segmented electrolysis recovers pure iron and sulfuric acid from sulfate wastes, resolving low space-time yield and high energy consumption.

An integrated flow channel device merges water and gas pathways within an ion-exchange membrane electrolysis cell.

Acidic cyanide-free electrolyte deposits silver-rich alloys with uniform composition across wide current density ranges.

A porous cathode with an inserted conducting structure expands the surface area for metal oxide reduction.

A liquid electrolyte system controls electrode composition and temperature for ammonia production.

Reducing substrate magnetic field strength resolves crystal growth non-uniformity in thin LaB6 films, improving electron generation efficiency.