Solid Electrolytes TRIZ Cases

Amorphous inorganic binder oxides improve discharge capacity while maintaining film strength and reducing resistance at low calcination temperatures.

A Na10MP2S12 solid electrolyte enables high-performance sodium ion conduction at 300K through a tetragonal crystal structure.

A composite electrolyte combines a plastic crystal matrix with a crosslinked polymer to achieve high ionic conductivity and mechanical strength.

Consolidating the laminate structure reduces contact resistance without requiring external pressure structures that lower energy density.

High-crystallinity carbon carriers limit hydrophilic pore flooding, maintaining power generation performance under high humidification conditions.

Amorphous MgxSiOyNz solid electrolyte enables magnesium ion transport through coordination polyhedra networks.

A lithium-rich antiperovskite compound with dopants at oxygen sites provides high ion conductivity and thermal stability.

Organic/inorganic composite porous film prevents heat shrinkage while maintaining mechanical strength and high ion conductivity.

Composite electrolyte additives create stable interfacial layers to resolve high voltage storage reliability contradictions in lithium-ion batteries.

A block copolymer electrolyte with covalently linked ion-conductive and structural domains enhances ionic conductivity.

A hybrid current collector uses a porous metal edge to absorb electrode materials during pressing.

Sulfide solid electrolyte with argyrodite structure delivers high ionic conductivity through precise halogen molar ratios.

Silver cathode catalyst layer minimizes alcohol crossover through the electrolyte membrane, stabilizing cell voltage and improving energy density.

A sodium secondary battery uses a liquid cathode with dissolved metal halides to enable rapid electrochemical reactions at room temperature.

A 3D conductive filament network within quasi-solid polymer electrodes sustains electron transport while accommodating high sulfur loading.

Block copolymer electrolytes resolve the trade-off between mechanical strength and ionic conductivity in lithium batteries.

Dynamic supramolecular polymer electrolytes enable stretchable lithium-ion batteries with high ionic conductivity.

A composite electrolyte with oxidized black phosphorus improves ionic conductivity beyond PEO limitations.

Continuous drawing of amorphous Li2O-SO3-P2O5 glass resolves the trade-off between dendrite resistance and scalable manufacturing complexity.

Inorganic acid doping of partially sulfonated polybenzimidazole resolves mechanical strength versus cell performance trade-offs for high-temperature fuel cells.

Concave and convex surface structures on positive electrode particles anchor reaction-suppressing layers during manufacturing.

Controlling D50% and D90% grain diameters in a phosphoric acid salt-based solid electrolyte suppresses short circuits while maintaining high ionic conductivity.

A polyester-based polymer composite electrolyte enhances ionic conductivity and mechanical strength in non-aqueous energy storage devices.

A segmented polymer electrolyte material combines ion exchange groups with a fluoropolymer backbone to enable high softening temperatures.

An all-solid-state battery supplies current to volatile memory during power failures.

Concave steps at the receiving part inner end and sides restrain electrode assembly movement to prevent internal short circuits during external impacts.

A thin-film battery uses a continuous metal-to-metal seal formed by passivation layers to protect internal components.

A lithium ion-conducting solid electrolyte incorporates metallic elements to enhance conductivity and denseness.

A lithium-ion conducting composite material combines Li binary salts with specific inorganic compounds to achieve high ionic conductivity.

Applying electrical potential to a MoCo-TiO2 catalyst overcomes octane rating loss by selectively removing sulfur without olefin hydrogenation.

A polymer electrolyte membrane uses bismuth cations to form ionic bonds with sulfonate anions, enhancing ion conductivity and mechanical strength.

A micro-sized secondary particle coated with solid-state electrolyte enhances lithium ion transport within the electrode structure.

Heat-treat fluorinated polymer at 140 to 160°C then rapidly cool below 110°C to form liquid composition.

A polyvinyl alcohol protective layer on the lithium metal anode reduces electrolyte reactivity and stabilizes the interface, extending cycle life.

A solid electrolyte separator isolates non-solid electrolytes from lithium titanate anodes, preventing reduction reactions and maintaining ionic conductivity.

Deforming gas-diffusion layers to tightly adhere to the frame eliminates voids between catalyst and diffusion layers.

Lithium aluminum borate compounds provide high lithium ion conductivity as solid-state electrolytes.

Porous three-dimensional current collectors enable electrolyte infiltration through open structures, resolving high resistance and uneven distribution issues.

An all-solid-state battery generates negative potential to deplete the two-dimensional electron gas in a heterostructure channel.

Curved pouch walls match electrode geometry to remove dead volumes, preventing deformation and short circuits during impact.

Varying oxygen content in the solid electrolyte layer prevents lithium ion congestion and maintains high conductivity.

Crosslinked gel electrolytes suppress dendritic growth to extend battery lifetime and stability.

Replacing oxide or sulfide anions with larger-radius ions softens the solid-state electrolyte, reducing elastic modulus to resolve high interfacial impedance.

Modified sulfide solid electrolyte glass minimizes residual lithium sulfide through precise compositional control.

A polymeric ionic liquid membrane acts as an ionic conductor and separator in lithium batteries.

Thermal cross-linking of acrylate agents creates a stable polymer gel electrolyte that suppresses lithium dendrite growth and improves oxidation stability.

Sulfide solid electrolyte layer coats oxide active material to enhance ion and electron conductivity in battery systems.

An ion-conducting protective layer stabilizes the interface between solid electrolyte and lithium anode, reducing interfacial resistance.

Winding cell units along a continuous current collector resolves low manufacturing productivity in bipolar solid-state battery production.

A solid electrolyte uses a polymer matrix and nitrile compound to inhibit lithium dendrite growth.