Electrolyte Holding Means TRIZ Cases

Segmented thermoplastic adhesive bonds on a fuel cell frame member expand independently during heating to join the separator without inducing structural distortion.

An eggshell membrane insulates porous electrodes to harvest energy from water penetration, bypassing dam infrastructure.

Baffle plates regulate back pressure within manifold assemblies to deliver consistent gas flow, preventing overheating from uneven distribution.

Porous carbon nanomaterials on bipolar plates increase electroactive surface area, resolving low current density limits in flow battery systems.

Surface functional groups on a composite electrolyte membrane improve phosphoric acid retention, resolving leakage issues in high-temperature fuel cells.

Dynamic slurry circulation replaces static electrodes, resolving the trade-off between high surface area and active substance transfer.

A reinforced membrane with a cellular structure filled with ion-conducting material to enhance durability.

Plugging porous substrate pores with a hydroxide-ion conductive compound prevents zinc dendrite intrusion and short circuits in secondary zinc batteries.

A porous bipolar plate moves liquid from anode to cathode via capillary forces, preventing electrode dry-out during high current operation.

A reinforced solid polymer electrolyte composite membrane integrates a porous reinforcing member to support peroxide decomposition catalysts.

Segmented crease portions relax thermal expansion stress between ceramic and metal plates, preventing joint breakage in solid oxide fuel cells.

A reinforced matrix uses a porous aluminum support and tape-cast lithium aluminate to provide structural integrity.

Segmented reinforcing members distribute pressure across the polymer electrolyte membrane, resolving stress concentration at corner portions.

Extraction of plasticizer from UHMWPE filler mixtures controls pore size distribution, resolving dimensional instability at elevated temperatures.

Fuel cell stack electrolyte flow channels break liquid into droplets to increase ionic resistance, eliminating leakage currents from shared headers.

Hot pressing transfers catalyst layers directly onto phosphoric acid-doped polybenzimidazole membranes for fuel cell assembly.

Varying connection member thicknesses adjust clamping pressure to reduce contact resistance and prevent component damage in fuel cell stacks.

Specific vinylidene fluoride copolymer end groups resolve poor dissolution trade-offs while maintaining thermal stability.

A porous boron phosphate matrix layer retains phosphoric acid electrolyte, preventing catalyst poisoning and gas delivery blockage caused by oxide dissolution.

Anodic oxidation creates a porous inorganic ion conductive membrane that prevents fuel leakage during high-temperature operation.

A fuel cell separator uses a titanium layer on a metal substrate to enhance surface properties.

A composite polymer membrane resolves mechanical strength versus thermal stability contradictions by preventing short circuits and degradation.

Segmented electrolyte membranes balance proton conductivity and mechanical strength to resolve swelling issues in solid polymer fuel cells.

A water insoluble additive comprising a metal oxide cross-linked matrix with covalently attached proton-conducting groups enhances ion-exchange membrane performance.

Plugging porous substrate pores with layered double hydroxide blocks zinc dendrite penetration while maintaining hydroxide ion conductivity.

A lithium ion flow battery uses a multi-layer sandwich composite structure to adjust reaction chamber dimensions.

Intramolecular hydrogen bonding in superacid groups enhances proton conductivity at low relative humidity, reducing cathode flooding and operational costs.