Electrolyte Holding Means TRIZ Cases

Phosphazenium-based ionomers form alkaline anion exchange membranes with enhanced solvent processability.

Polyamidic acid derivatives provide high proton conductivity and flexibility in solid polymer fuel cell membranes.

Underground caverns store redox flow battery electrolytes, eliminating complex pipework and multiple above-ground tanks.

Porous electrolyte supply and collector materials prevent flooding and dry out by managing shunt migration in fuel cell stacks.

Independent reaction regions eliminate voltage differences that cause electrochemical corrosion and shorten service life.

Macro porous support scaffold strengthens thin solid state ionic conductive membranes to prevent electrolyte crossover and extend battery lifetime.

Integrated barrier layers in a permeable membrane move cathode water to the anode, eliminating external condensers that increase device complexity.

A temperature-dependent ion-permeable membrane interrupts ion transport between electrodes when hazardous heat levels are reached.

A porous nanoweb with high melting point holds ionomer to lower ohmic loss while maintaining mechanical strength for long-term proton conductivity.

A polymer electrolyte membrane combines a fluorinated polymer with basic polymer particles to enhance chemical stability and mechanical strength.

A cathode electrolyte preparation method for redox flow batteries using vanadium pentoxide reduction with specific organic additives.

Partition plates segment electrolyte tanks to form stable concentration gradients in redox flow batteries.

A perfluorocarbon electrolyte polymer minimizes terminal C-H bonds through controlled fluorination and hydrolysis processes.

Segmenting the membrane into functional layers resolves the trade-off between ion conductivity and dimensional stability under low humidity.

Stable zirconium oxide bonds in polymer fibers improve diaphragm wettability, reducing hydrogen leakage and ensuring long-term gas separation.

Bicomponent fiber reinforcement maintains proton conductivity and mechanical strength in solid polymer fuel cell electrolyte membranes.

Yttria-stabilized zirconia rods reinforce the molten carbonate electrolyte matrix, preventing cracking and sealing loss during thermal cycling.

Segmented multilayer membranes integrate nanofiber-supported catalysts to resolve durability trade-offs, extending lifespan under RH cycling.

Microchannel array in porous electrolyte reduces carbon monoxide poisoning and eliminates humidification needs.

Bipolar plates with higher bending stiffness protrude over membrane electrode assemblies to prevent electrical contact between adjacent units.

A catalyst coated membrane uses silver nano-particles and a poly(arylene) ionomer to form an ultra-thin cathode layer.

Differentiating resin melting points in the fuel cell frame prevents gas flow path clogging during thermal pressing assembly.

An embedded reinforcement frame integrates within a fuel cell electrolyte membrane to provide structural support.

A cascaded electrochemical hydrogen pump recycles exhaust gas back into the fuel inlet stream.

Lignin-based electrolytes decouple energy capacity from power equipment, solving high material costs in long-duration grid storage.

Separator plate elastic protrusions and elastomer absorb manufacturing tolerances while maintaining necessary linear pressure.

Electrospun polymeric fiber mats reinforce proton conducting membranes, reducing water swelling and extending membrane lifetime during hydration cycling.

A proton exchange membrane incorporates catalytically active metal oxide particles to decompose hydrogen peroxide radicals within fuel cell assemblies.

Hyper-branched polymers with dendritic structures maintain proton conduction at high temperatures without humidification, resolving moisture evaporation issues.

Macrocyclic ligands stabilize metal complexes against acid and heat, resolving the contradiction between catalyst activity and structural integrity.

Fluorinated proton conductive polymer maintains electrical conductivity at 80°C and 40% relative humidity while preventing catalyst layer flooding.

Oxazine stabilizers cross-link polyazole membranes to boost mechanical strength and proton conductivity, solving high-temperature durability issues.

Segmented block copolymer electrolyte maintains high proton conductivity under low humidity while preserving mechanical strength and chemical stability.

Resin frame inner extension uses uneven adhesive surfaces to fix weak membrane bonding and ensure reliable sealing.

Integrating electrolyte and reinforcing particles into the matrix slurry prevents cracking from thermal expansion differences during fuel cell operation.

A membrane electrode assembly with a porous reinforcing layer containing conductive fibers enhances mechanical strength and dimensional stability.

An electrochemical pump separates hydrogen from fuel cell exhaust streams for recycling into the inlet.

Condensation zone recovers evaporated electrolyte while edge seal materials inhibit oxygen reduction to prevent corrosion.

A catalyzed interconnect with a metallic substrate and offset fin design enhances geometrical surface area for internal reforming.

Undoped polymer membranes sandwiched between dopant-loaded gas diffusion electrodes maintain conductivity through reservoir redistribution.

A support film featuring a sticky surface layer affixes to hydrocarbon-based polymer electrolyte membranes during thermal lamination.

Dynamic purging power adjustments based on accumulated radical inhibitors reduce proton transfer resistance and prevent performance degradation.

A dual polymer binder system resolves cracking risks by varying molecular weights to improve electrolyte matrix flexibility and tensile strength.

Aprotic organic solvents dissolve fluorinated ion exchange polymers, eliminating alcohol-based viscosity and safety hazards.

Fluorinated polyolefin separators with inorganic particles reduce costs and maintain stability against harsh electrolytes.

A MEMS-based phosphoric acid fuel cell integrates electrodes and electrolyte into a single porous support structure.

Segmented hydrophobic and hydrophilic blocks in a branched multi-block copolymer reduce water uptake and swelling while sustaining proton conductivity.

A glass proton conductor uses nano channels to localize protons in structured water regions.

A multilayer electrolyte reinforced composite membrane uses film stretching and impregnation to create a three-layer structure.

Incorporating MnO2 or TiO2 inhibitors into LiAlO2 matrices prevents particle growth, reducing large pore formation and maintaining electrolyte retention.