Electrolytes TRIZ Cases

A fluorocarbonate electrolyte forms a silicon-containing film on the anode to reduce internal resistance.

Borate-based alkali-free glass sealant accommodates thermal expansion mismatches to prevent crack formation in solid oxide fuel cells.

Functionalized ionic liquids solvate polysulfide anions, preventing shuttling and enhancing electrochemical stability in lithium-sulfur batteries.

A three-methylene spacer between silicon and oxygen atoms in organosilicon electrolytes protects molecular integrity.

Introducing a brominated flame retardant into the electrolyte suppresses fire propagation without degrading electrochemical stability.

A solid oxide electrolyte structure embeds a metal support to enhance mechanical strength and thermal conductivity.

Cerium cations decompose peroxides via redox cycling, resolving membrane durability limits caused by oxidative degradation.

Amorphous matrix coating reduces grain boundary resistance in solid electrolytes, enabling high ionic conductivity at lower sintering temperatures.

Composite electrolyte additives form protective electrode films to suppress gas generation and swelling during high-temperature cycling.

A lithium-garnet composite ceramic electrolyte incorporates a lithium tungstate minor phase to enhance grain boundary bonding and inhibit dendrite growth.

Fluoroethylene carbonate electrolyte prevents resistive film formation to extend cycle life in fast charging lithium ion batteries.

Low-temperature sintering of lithium salt-ceramic composites achieves high ionic conductivity exceeding 10^-4 S/cm while reducing processing costs.

A solid oxide fuel cell system uses a start burner to generate inert gas for electrode protection.

A seal member mediates between adjacent fuel and air manifold openings to prevent mixing while maintaining efficient counter-flow energy production.

A liquid electrolyte combines a lithium salt with a perfluoropolyether polymer to form a stable conductive solution.

A lithium-ion electrode mixture layer incorporates high-dielectric solid oxide particles to stabilize thermal properties.

Vinylene carbonate additives form a stable coating layer on electrodes, preventing internal resistance increase during high-temperature cycling.

Multicomponent rare earth doping stabilizes the cubic phase in scandia-zirconia, preventing conductivity drops in reducing atmospheres.

Aluminum-doped garnet ceramic solid electrolyte prevents lithium dendrite formation to ensure all-solid-state battery safety.

A lithium-ion conducting glass ceramic featuring a garnet-like crystal phase and an amorphous proportion of at least 5 wt.-%.

Asymmetric borates form protective films on metal surfaces, preventing corrosion and enabling stable operation at voltages up to 5.0V.

Amplifier cathode supplies oxygen ions to oxidize carbonaceous deposits on the anode, restoring power output in liquid-hydrocarbon solid oxide fuel cells.

Segmenting fuel cell strips into separable bundles allows targeted replacement of defective sections, reducing waste and extending component lifespan.

A non-aqueous electrolytic solution combines glyme and cyclic phosphazene solvents to ensure homogeneous mixing.

A cyano-containing electrolyte additive forms an ionic conductive film on the electrode interface.

Segmented Ag brazing and glass joints prevent gas leakage while maintaining high joining strength in solid oxide fuel cell stacks.

Composite electrolyte with cyclic carbonate and sulfone derivative raises flash point above 85°C while maintaining lithium ion mobility.

Solder film acts as a vapor barrier on external electrodes, blocking moisture entry through minute voids.

Mixing a highly polar solvent with a fluorinated base dissolves excess lithium bis(oxalate)borate to suppress oxidative decomposition.

A solid electrolyte fuel cell uses a contaminant trap portion to adsorb oxidizer gas impurities before they reach the cathode.

A solid oxide fuel cell metal support uses a porous buffer area filled with low thermal conductivity material to manage heat distribution.

Methyl 3,3,3-trifluoropropionate combined with phosphazene compounds creates a nonaqueous electrolyte solution.