Cells TRIZ Cases

An asymmetric separator design reduces waviness on the porous support while maintaining high ion conductivity and gas separation properties.

Segmented channel arrays distribute electrolyte uniformly, resolving flow non-uniformity and membrane contact risks in three-chamber cells.

An integrated system merges desulfurization and carbon dioxide capture using sodium reagents and chilled ammonia absorption.

Segmented columnar bases minimize thermal stress cracking during CVD coating, ensuring high conductivity and durability.

Ultrasonic cavitation eliminates bubbles in electroplating solution, preventing pore formation in copper lines and boosting semiconductor yield.

Antimony-doped tin plating deposits a 97.6% tin alloy coating to eliminate conductive whisker growth in lead-free electronics.

External plasma generation eliminates toroidal magnetic constraints, enabling four-times higher deposition rates over larger substrate areas.

A porous cleaning disc retains and delivers chemical agents via centrifugal force to remove tin-silver metal deposits from wafer plating assemblies.

A hydrogen-permeable membrane vents accumulated gas to relieve internal pressure without causing electrolyte leakage from the electrochemical cell.

A gas diffusion layer buffers the proton exchange membrane during electrode deposition to enhance mechanical stability and electrical performance.

Volatilizing organic layers from nanocrystals reduces activation energy and resistance in electrolyzers.

An electrochemical device produces carbon monoxide and hydrogen using a metal chamber enclosing a ceramic reactor.

An inclined guide rail portion positions the magnet farther from target edges, reducing localized erosion and increasing usage efficiency.

Molten salt electrolytes enable efficient electrochemical decarboxylation of carboxylic acids into hydrocarbons.

Position-dependent repulsive forces in the cushion material prevent excessive pressure on the ion exchange membrane, reducing voltage loss.

Thermotropic ionic liquid crystal molecules conduct ions via direct cation hopping in their mesomorphic state.

High-concentration halide ions in the catholyte prevent dissolution of solid alkali ion conductive electrolyte membranes, maintaining structural stability.

An electrolysis unit adjusts electric potential to adsorb and release carbon dioxide from gas flowing through an intake unit.

A Z-scheme microbial photoelectrochemical system integrates a bio-photoanode with a semiconductor photocathode to generate hydrogen from wastewater.

Trace zirconium and aluminum oxides in the gallium oxide zinc oxide target inhibit nodule formation and abnormal electrical discharge during deposition.

Heating the electrolyte to 35-45°C prevents precipitate accumulation on the electrode surface, maintaining high faradaic efficiency during continuous operation.

Magneto-elastic anisotropy in pulse plated writer poles minimizes domain lock up and side track erasure.

Alternating aluminum cathode and zinc anode plates with apertures increase surface area to resolve low efficiency in salt water electrolysis.

A Cu-Ni-Si alloy plate uses a controlled nickel gradient to enhance solder wettability and electrical connection reliability.

A load testing device generates hydrogen via electrolysis and distributes it to multiple portable tanks for simultaneous filling.

Electrochemical cell uses quantum imprinted nanomaterials to convert carbon dioxide into methanol.

Amorphous metallic electrocatalytic materials with mesopores enable efficient electron transfer through a core-shell architecture.

A Helper Membrane raises faradaic efficiency above 50% and current density to 20 mA/cm2, overcoming low conversion limits.

Shielding walls guide fluid mixtures to prevent current flow from anodes, eliminating oxidative dissolution and ensuring uniform film thickness.

A wind power generator integrates a cooler to supply waste heat for seawater desalination and hydrogen electrolysis.

Single inlet ports distribute electrolyte to sub-chambers, reducing device complexity and manufacturing costs.

A porous separator with a 150 μm support balances mechanical strength and ionic conductivity below 0.1 ohm·cm².

A resilient gasket with a tapered thickness gradient provides durable sealing pressure across flange interfaces.

Series-connected segmented electrodes overcome sheet resistance losses during scale-up, enabling efficient hydrogen production without membrane separators.

Cathode-side circulation lines enable precise H2 to CO ratio control for Fischer-Tropsch efficiency.

An electrochemical cell reduces graphene oxide on non-conductive porous substrates to create conductive composites.

A continuous composite cell component merges bipolar plates and flowfields to eliminate interface resistance.

Mechanical, thermal, and coagulation stages dry hydrogen for storage without complex single-unit designs.

Sulfonated polybenzimidazole membrane electrolyzers produce dry hydrogen gas without external hydration systems.

An integrated Ni-Fe battery-electrolyser system produces hydrogen gas using charged electrodes as catalysts.

A film-forming metal solution uses a nonionic surfactant to transport metal ions through solid electrolyte membranes.

Segmented separators with ion exchange membranes hold separate alkaline and acidic environments, boosting solar-to-fuel conversion efficiency to 10%.

A membrane electrode assembly uses thickened metal meshes to replace separate flow channel layers in electrolysis systems.

A metallic mesh electrode supported by a web and rib grid structure distributes mechanical pressure across the cell.

A solid polymer electrolyte cell removes organic and inorganic pollutants from wastewater without liquid supporting electrolytes.

An electrochemical cell co-produces metal and chlorine gas using a porous separator to isolate compartments.

A hot tile sputtering system uses a graphite sheet to manage thermal gradients and prevent ceramic target cracking during deposition.

Dynamic movable masks adapt to carrier bending to prevent particle contamination and back sputtering.

A tubular reactor converts steam to hydrogen electrochemically without electricity input.

Platinum-coated titanium electrodes extend electrode life and maintain constant temperature in the electrolysis cell.