Solid Electrolytes TRIZ Cases

Branched ester complexing agents coordinate metal ions during liquid-phase deposition, preventing component separation and maintaining high ionic conductivity.

A hybrid solid electrolyte sheet combines a porous polymer film with a gel polymer layer to enhance mechanical flexibility.

Block copolymer electrolytes suppress lithium dendrites to prevent short circuits while maintaining high ionic conductivity at room temperature.

A negative electrode features a double-layer active material structure with a target compound to boost ionic conductivity.

Solution-based application replaces complex vapor-phase deposition to form solid electrolyte layers with improved adhesion and conductivity.

Li3PO4, Li4SiO4, and Li3BO3 composition lowers grain-boundary resistance while preventing electrode decomposition during sintering.

A solid ionically conductive polymer material incorporates charge transfer complexes positioned on monomers to enable ionic mobility.

Amorphous Li3MO4 thin film electrolyte boosts room temperature conductivity and wide temperature stability for portable electronics.

Silicon clathrate II anodes inhibit expansion by accommodating volume changes through porous cage structures.

Sodium-ion flow batteries use seawater cathodes and NASICON membranes to store electrical energy, eliminating lithium material toxicity.

A sulfonated polyphenylsulfone membrane with multiple sulfonic groups per repeating unit achieves high proton conductivity.

A multi-layer separator with solid electrolyte and anion-blocking layers prevents polysulfide diffusion, reducing capacity loss in lithium-sulfur batteries.

Dipping porous substrates into slurries merges electrode and electrolyte layers, preventing shorting while reducing interface resistance.

Composite catalyst particles with metal oxide dispersed in carbon structure prevent voltage decrease during low humidity fuel cell operation.

A cross-linked benzoxazine electrolyte membrane impregnated with phosphoric acid maintains proton conductivity and mechanical strength.

A cable-type secondary battery uses segmented electrode layers to achieve flexible structural adaptation for diverse device geometries.

A composite electrolyte membrane combines crosslinked and linear perfluorinated ionomers to deliver high proton conductivity.

Core-shell biomass carbon composites stabilize high capacity loadings, resolving cycle stability and manufacturing cost trade-offs.

Inorganic particles disperse in a sulfonate group-containing partially fluorine-based polymer to form an electrolyte membrane.

A polymer electrolyte membrane uses a brancher compound to form a network structure that enhances proton conductivity.

A foldable pouch battery case deforms under internal pressure to separate electrode tabs from leads.

Incorporating molten salt with melting point below 250°C into the electrode mixture layer enhances ionic conductivity.

A gel electrolyte layer absorbs heat at the negative electrode to prevent transfer to the positive electrode.

Lithium composite metal oxide electrolyte with controlled gallium and neodymium substitution forms a crystalline-amorphous composite structure.

A sodium ion-conductive solid electrolyte sheet uses controlled thickness and flatness parameters to enable high ionic conductivity.

A glycol-based electrolyte system enables reversible metal ion transport, eliminating flammable organic solvents to resolve safety risks and production costs.

Graded elastic modulus resin layers absorb volume change stresses to prevent cracking and maintain structural integrity in all-solid-state batteries.

A secondary battery features a round corner shape to match the curved structure of an electric device housing.

A garnet-type solid-state electrolyte enhances lithium-ion conductivity through optimized cationic valences and oxygen defects.

Camphor-based solid electrolytes resolve the trade-off between mechanical stability and ionic conductivity, enabling reliable operation from -20°C to 60°C.

A hybrid additive electrolyte forms a stable solid electrolyte interphase film, reducing solvent decomposition and improving cycling performance.

A solid electrolyte composition uses an alicyclic dispersion medium to stabilize inorganic particles and binders for uniform layer formation.

Inorganic compound particles buffer active material expansion during cycling, preventing interface peeling and extending secondary battery cycle life.

A coin battery uses laminated thin solid electrolytes compressed by elastic members to reduce internal resistance.

A hybrid fuel cell merges polymeric proton exchange membranes with an acidic liquid electrolyte layer to transport protons between electrodes.

A sulfide solid electrolyte material achieves high Li ion conductivity via mechanical milling, reducing internal resistance in lithium solid batteries.

A gelled polymer electrolyte forms on electrode surfaces through electro-grafting of ionic liquid monomers.

Segmenting the electrolyte into distinct parts resolves the trade-off between ion conductivity and reduction resistance.

Pre-formed semi-solid electrodes with distinct SEI layers increase capacity and energy density while avoiding undesirable film formation.

Mesoporous hollow carbon carriers host Pd-Pt core-shell catalysts to reduce platinum dissolution while maintaining high catalytic activity.

Lithiated phosphate electrolytes stabilize anode interfaces and reduce internal resistance in all-solid batteries.

Alkaline emulsion polymerization produces tetrafluoroethylene copolymer ionomers, eliminating hydrolysis steps and reducing process complexity.

A crystalline solid electrolyte comprising PEO6LiX complexes stabilized with nanowhiskers to enhance ionic conductivity.

Borohydride substitution in a sulfide-based solid electrolyte increases ionic conductivity sevenfold while suppressing thermal runaway risks.

Acetate coating on cathode particles lowers interfacial resistance and enhances load characteristics without complex manufacturing processes.

Roughened solid electrolyte surfaces maintain continuous electrical contact with alkali metal anodes, preventing capacity loss from interface separation.

Sequential cathode slurry dispersion prevents active material agglomeration, suppressing resistance deterioration after charge-discharge cycles.

A quasi-solid electrode material uses conductive filaments to form a 3D electron-conducting network within alkali metal battery cells.

A conductive base film with matched interatomic distances aligns positive electrode crystal orientations in solid-state batteries.