Solid Electrolytes TRIZ Cases

Sodium silicate glass ceramics replace flammable liquid solvents with safe solid-state operation while maintaining high energy density.

A liquid-impermeable solid electrolyte separator isolates titanium niobium oxide anodes from cathode electrolytes to maintain ionic conductivity.

Aerosol ball-milling modifies fluoride nanoparticle surfaces to boost ionic conductivity in solid electrolytes.

Thermal crystallization of amorphous solid-electrolyte layers bonds electrode bodies, preventing active-material cracking and reducing interface resistance.

An optimized lithium storing layer between the anode and solid electrolyte prevents dendrite formation while maintaining high coulomb efficiency.

Low conductivity covering material on lithium composite oxide suppresses electron transfer at the electrode surface.

A heatable garment integrates an explosion-proof battery with a heating layer via a high-specific-heat covering layer.

A sheet-form electrode integrates a porous supporting layer to enhance mechanical flexibility and maintain structural integrity during operation.

A ceramic-polymer nanocomposite solid-state electrolyte embeds LLZO nanoparticles in a plasticized polymer matrix to boost ionic conductivity.

Y2O3 nucleation agent drives uniform crystallization in LAGP glass-ceramic solid electrolytes.

Parallel inner electrodes in a tubular outer cathode increase contact area for high battery rate while adjustable capacity balance prevents short circuits.

A crosslinked polybenzoxazine electrolyte membrane maintains structural integrity while enabling proton conduction in fuel cell applications.

A nitrile copolymer binder composition with optimized iodine value improves electrode flexibility in all-solid-state batteries.

Dry mixing and calendaring of sulfide particles with TFE polymer avoids solvent reactivity issues while maintaining high ionic conductivity.

A polymer electrolyte composition using alkali metal salts with lipophilic anions enhances ionic conductivity and mechanical stability.

Thickened inner edge on the plate-shaped insulating member absorbs pressing distortion between electrode collectors.

Crosslinked polymer solid electrolytes eliminate flammable solvents to prevent fires while maintaining efficient ion conduction.

A block copolymer electrolyte with ion conductive and non-conductive domains enhances lithium battery performance.

An ion conducting polymer coating on porous carbon suppresses polysulfide elution and improves battery life time by enhancing lithium ion conductivity.

Heat-treated sulfide glass ceramics containing Li, A, and X dopants achieve high lithium ion conductivity while maintaining chemical stability.

A functional layer composition uses specific organic particles to form a stable coating on battery electrodes.

A lithium titanium oxide particle layer coats the positive electrode active material surface to form a protective buffer.

Hybrid electrolyte system prevents lithium deposit growth and improves cycling lifetime in lithium metal batteries.

Rounded solid electrolyte layers prevent active material detachment and short circuits in high energy density batteries.

A metal coating on the anode active material detects states via discharge curves, resolving complex pressure sensor requirements.

An inorganic protective layer blocks harmful species transport between electrodes, reducing active lithium loss and increasing cycle life.

A solid state battery system adjusts cathode active material layer thickness to maximize energy density.

Sulfonated multiblock copolymer balances proton conductivity with mechanical integrity by separating sulfonic acid groups into distinct hydrophilic domains.

Direct coating of catalyst layers onto porous polymer sheets forms integrated membranes without decal transfer.

Controlling the molar ratio of lithium hydroxide to halides allows drying at 200°C or less while maintaining high lithium halide concentration.

Dissolved polymer binders reduce interface resistance and moisture sensitivity, maintaining high ion conductivity in all-solid state secondary batteries.

A single-layer pulp paper combines modified starch with polyelectrolytes to reduce internal resistance while maintaining isolation performance.

Glass additives in LLTO electrolytes improve grain boundary conductivity and chemical stability.

A solid electrolyte formed by polymerizing zwitterionic monomers in solvent-free ionic liquid.

Synthesizing magnesium hexafluorophosphate salts with specific ligands prevents anode passivation and thermal runaway in battery systems.

Indium selenide doping stabilizes sulfide solid electrolytes against atmospheric degradation while maintaining high lithium ion conductivity.

A porous conductive cathode structure incorporates sulfur into its backbone and pores to support active material injection.

Water-soluble polymer binders coat silicon particles to form conductive electrode layers.

Integrates a moisture absorbing film with the solid state battery laminate to eliminate gaps and reduce moisture entry.

Segmented heating prevents coarse particles in garnet solid electrolytes, reducing grain boundary resistance and enhancing bulk lithium ion conductivity.

A composite separator integrates solid inorganic lithium-ion conductors to replace liquid electrolyte within the battery cell structure.