Solid Electrolytes TRIZ Cases

A sulfide solid electrolyte material with optimized Li ion conductivity and argyrodite structure.

Composite sulfide and oxy-sulfide glass electrolytes prevent lithium dendrite penetration while maintaining high energy density in metallic anode batteries.

A solid electrolyte layer uses uneven MO2 distribution to maintain ionic conductivity in all-solid batteries.

Segmented electrode layers with vertical conductive paths resolve manufacturing difficulties while improving cycle stability.

A glass-ceramic solid electrolyte enhances ionic conductivity through specific crystalline phases.

A transverse thin film battery structure integrates anode and cathode current collectors on a substrate surface.

Directly joining adjacent current collectors in a stacked all-solid-state battery removes adhesive resistance while maintaining structural integrity.

Mesoporous carbon with a beaded structure suppresses flooding and improves current-voltage performance at high current densities.

A sulfide solid electrolyte material with a glass transition point enables high lithium ion conductivity in battery systems.

Aliovalent cation doping in NASICON electrolytes boosts room temperature ionic conductivity while preserving structural stability.

Controlled cooling of fluorinated polymer converts functional groups to ion exchange forms, suppressing membrane breakage during drying.

A polymer electrolyte copolymer enhances ion conductivity and high-voltage stability in lithium metal batteries.

A UV LED curable electrolyte formulation cures rapidly in ambient air to form a cross-linked polymer gel.

A solid state battery anode uses a porous matrix to manage lithium reactions and enhance ion conduction.

Composite ion-conducting membrane structure reduces gas crossover and maintains electrical efficiency.

Laser marking replaces printed labels on the laminated film exterior to prevent solvent-induced blurring and peeling, ensuring legibility.

A sulfide solid electrolyte manufacturing method uses a polar organic solvent admixture to synthesize stable argyrodite structures.

An oxide coating layer on the anode conductive material prevents direct electrical contact with the solid electrolyte.

Esterified PVA-polyester composite electrolytes resolve the trade-off between environmental friendliness and ionic conductivity in dry solid-state batteries.

Hierarchical pores in the membrane reduce vanadium crossover and production costs while maintaining chemical resistance for flow batteries.

Mixed hydrocarbon and ether solvent reduces residual solvent in sulfide solid electrolytes, improving lithium ion conductivity.

Tapered block copolymers decouple processing temperatures from molecular weight to enable high-performance solid-state electrolytes.

A composite electrolyte embeds functionalized nanoparticles in a polymeric ionic liquid matrix to enhance mechanical stability and ionic conductivity.

A yttria-stabilized zirconia substrate withstands high annealing temperatures to support thicker lithium cobalt oxide cathodes.

A solid state battery cell uses its housing as a current collector and a conductive pin for the opposite terminal.

A sulfide solid electrolyte material uses a surface oxide phase gradient to suppress electrolysis while maintaining ionic conductivity and adhesion.

Single lead film encompasses parallel anode and cathode leads to form a unified sealing portion via heat fusion.

Resilient contact means yield when reaction forces exceed a threshold, protecting the mechanism from damage while maintaining precise film thickness control.

Optimized monomer structure balances ion transfer efficiency with durability under strong acid radical conditions.

A gel polymer electrolyte with a fluorinated urethane-acrylate network enhances ionic conductivity in lithium secondary batteries.

A sulfonated poly(arylene ether) copolymer membrane with dense side-chain sulfonic acid groups facilitates hydrogen ion transport.

Replacing liquid electrolytes with β-Li3PS4 eliminates heat generation and flammability while achieving capacity utilization exceeding 865 mAh/g.

Polar solvents coordinate with sulfide solid electrolytes to restrain reactivity, enabling stable dispersion and high Li ion conductivity.

Plasma ion bombardment eliminates pinholes in vacuum-deposited solid state electrolyte layers, increasing breakdown voltage and ionic conductivity.

Naphthoxazine benzoxazine polymer enables stable high-temperature nonhumidified operation by preventing moisture evaporation from the electrolyte membrane.

Dual anode-protecting layers mitigate dendrite formation and unwanted electrolyte reactions, ensuring uniform ion deposition and extended cycle life.

A polymer electrolyte material with a crystalline structure and amorphous moiety enhances proton conductivity through deprotection of protective groups.

Triazine polymer membranes maintain ionic conductivity while resisting gas permeability and methanol crossover at elevated operating temperatures.

Two-step slurry preparation using specific Hansen solubility parameters to stabilize oxide active materials.

Ionomer layers containing water electrolysis catalysts and electrical conductors manage voltage reversals by generating protons to prevent anode corrosion.

Li4+xAlxSi1-xS4 sulfide solid electrolyte eliminates flammable organic solvents to enhance battery safety while maintaining high lithium ion conductivity.

Hyper-branched organic lithium additives raise electrolyte decomposition voltage to 5.5 V, preventing thermal runaway in high-voltage lithium ion batteries.

Eliminating ether bonds from the main chain prevents degradation in solid polymer fuel cells while maintaining competitive voltage performance.

A silver nanolayer buffer prevents lithium dendrite growth through solid electrolyte gaps, maximizing energy density and capacity retention.

A laminated battery design uses matching outer current collector layers to ensure stable electrical contact between power generating elements.

Doping CeF3 with La and Sr creates a Tysonite phase that maintains high fluoride ion conductivity in compressed powder form.

Cross-linked sulfonated polyarylene ether sulfone membranes improve durability and proton conductivity under high-temperature, low-humidity conditions.

An ionic conductive polymer layer on a current collector enables lithium ion transport without metallic lithium.

A polymer electrolyte membrane uses a cyclic perfluoroalkylene framework to maintain proton conductivity and mechanical strength.

Composite PBI membranes retain phosphoric acid to prevent leakage while maintaining high proton conductivity at elevated temperatures.