Solid Electrolytes TRIZ Cases

Merging solar generation, electrochromic modulation, and battery storage reduces device area while enabling simultaneous day and night operation.

A porous ionomer containing layer with a catalyst migration impeding compound prevents platinum dissolution in fuel cells.

A polymer electrolyte composition uses a second solvent to enhance solubility and drive phase separation within the membrane structure.

Carbon nanotube binder supports layered double hydroxide particles, eliminating organic binders to boost catalytic reactivity and reduce over-voltage.

A sulfide solid electrolyte composition with specific PS43, P2S6, and P2S7 units maintains high ionic conductivity in all-solid secondary batteries.

Phase-separated adhesive layer bonds electrodes while preventing separator shrinkage at high temperatures.

Repeated activation cycles remove gas from the cell, minimizing bubbles in the polymer electrolyte to lower interfacial resistance.

Porous PTFE particles in the ionomer film create pathways that resolve low oxygen permeability, boosting cathode performance.

Segmented positive electrode layers with grooves resolve alignment precision trade-offs, reducing porosity and enhancing structural stability.

A sodium-aluminum battery employs a ceramic separator to transport ions, preventing membrane degradation at high temperatures.

Exfoliated inorganic solid electrolyte layer creates a flexible free-standing film under 5 micrometers thick.

Plasticizer with 30-130°C melting point softens separator to reduce interfacial resistance and form protective SEI layer.

A sulfide solid electrolyte glass containing a P2S4 structure resolves low conductivity and water stability issues in lithium batteries.

A fuel cell surface layer uses edge channels to divert fluid flow across the active area.

Segmented outer covers isolate gas leaks from a power generation element, enabling early breakage detection and preventing hydrogen sulfide release.

Melted solid electrolyte impregnates pores in the electrode, eliminating solvent-induced voids and reducing interfacial resistance.

Sol-gel synthesis produces dense Li(1+x)Ti(2-x)Alx(PO4)3 particles with controlled true density for improved ionic conductivity.

Stacked electrode units with different lengths form a stepped structure that maintains high electrical capacity after 500 cycles.

A lithium composite oxide features a covering material layer that suppresses side reactions at the electrode surface.

Segmented hydrophobic and hydrophilic blocks maintain mechanical strength while delivering high proton conductivity up to 120°C.

A polyarylene membrane electrode assembly enhances adhesiveness through heat processing.

A coated positive electrode particle with a reactive layer reduces interface resistance between the active material and sulfide electrolyte.

Aligning magnetic conductive tubes within electrode slurry creates continuous pathways that overcome high tortuosity in thick electrodes.

Asymmetric sulfonamide macromolecules enhance ion conductivity through direct cation hopping and structural organization.

An open pore structure in a mixed ionic-electronic conductor relieves mechanical stresses from alkali metal deposition, preventing morphological instability.

A solid electrolyte features a laser-induced amorphous surface layer on a crystalline inorganic core to boost ionic conductivity.

An asymmetric electrode laminate balances positive and negative coating areas to maximize energy performance.

Stoichiometric control during solid state reaction eliminates solvent steps to produce pure sulfidic electrolytes with high ionic conductivity.

A hybrid membrane embeds inorganic particles in a polymer matrix to conduct lithium ions while blocking water and gases.

Interdigitated cathode stripes with solid electrolyte prevent polysulfide dissolution and parasitic reactions while maintaining high ionic conductivity.

Dual-layer solid electrolytes direct metal deposition away from the separator to reduce mechanical stress and prevent internal shorts.

An insulating layer sits flush against the electrode active material to prevent short circuits.

A semi-solid polymer electrolyte with a phosphate backbone enables high ionic conductivity at room temperature.

A comb-chain crosslinked solid polymer electrolyte conducts lithium ions through a robust network structure.

A composite electrolyte combines polymer, ceramic, and dielectric materials to enhance ionic conductivity.

Cerium-based inclusion compounds in the membrane neutralize peroxide radicals, preventing voltage degradation under low humidification conditions.

A sulfide-based solid electrolyte coating 76.0% or more of composite particle surfaces reduces reaction resistance and improves ion conduction efficiency.

A sulfide solid electrolyte material achieves excellent ion conductivity through optimized crystal phase ratios.

Communication passages utilize capillary action to move water from gas channels, resolving pressure loss and non-uniform current distribution issues.

An alloying protective layer prevents dendrite growth and solid electrolyte cracking, maintaining battery durability.

Mesoporous dielectric electrolyte layers enhance ionic conductivity through dipole interactions.

A composite membrane uses a porous PTFE support filled with ion-conducting polymer to enhance mechanical durability.

Li-Sn-O-S hybrid electrolyte embeds lithium ions in a Sn-O-S matrix, boosting ionic conductivity while eliminating liquid electrolyte fire risks.

PVDF-LiTFSI-LLZTO composite electrolyte boosts ionic conductivity and mechanical strength, resolving poor electrode-electrolyte interfacial compatibility.

Titanium oxide film with hydride layer enhances contact-to-carbon electrical conductivity while resisting fluoride ion corrosion.

A sulfide solid electrolyte adopts a distorted argyrodite structure to enhance compaction properties and ionic conductivity.

A sulfide solid electrolyte material uses specific potassium and phosphorus molar fractions to enhance ion conductivity.

Actinic ray treatment modifies inorganic solid electrolyte particle surfaces to improve bonding affinity with organic binders.

An integrated acid reservoir replenishes electrolyte through a distribution channel, maintaining ionic conductivity and extending service life.

A multi-layered electrolyte membrane suppresses lithium dendrite growth and oxidative decomposition by segmenting solid and liquid electrolyte functions.