Solid Electrolytes TRIZ Cases

A coated porous support embedded in a solid electrolyte membrane blocks lithium dendrite growth while improving membrane strength and battery life.

In-situ polymerized gel electrolyte forms a tough, non-flammable network that limits leakage while preserving battery flexibility and stability.

Multiple adjacent carbonaceous cathode regions confine polysulfides and preserve lithium ion transport, boosting Li-S capacity and cycle life.

Porous cathode channels and protective layers confine polysulfides in a cylindrical lithium-sulfur cell while preserving ion transport and cycle stability.

A sacrificial layer releases LiPON from rigid substrates, preserving thickness control while enabling flexible films and clearer material analysis.

Electrochemically generated Ti3+ removes MnO2 and V2O5 precipitates in hydrogen redox flow cells, preserving capacity and efficiency.

An inward collector layout and edge insulating layer prevent exposed electrolyte regions, suppress lithium dendrites, and improve cycle durability.

Acrylic binder chemistry with a low-dose anti-aging agent improves slurry pressability, layer adhesion, output, and high-temperature cycle life.

Semi-IPN cross-linking and flame-retardant polymer blending raise ion conductivity, mechanical stability, and voltage safety in solid-state batteries.

A porous silicon layer on a metal chalcogenide-coated collector helps lithium-ion anodes resist expansion damage while keeping high capacity.

A sulfur-heterocycle catholyte with lithium salt improves garnet separator compatibility, cuts interfacial charge transfer, and supports fast charging.

A disordered rocksalt lithium vanadium oxide anode enables fast Li-ion transport, avoids lithium plating, and extends solid-state battery cycle life.

A staged nucleophilic route forms fluorinated phosphorous compounds with high yield, fewer by-products, and milder scale-up conditions.

High-viscosity organic electrolyte layers cut solid-battery interfacial resistance and accommodate volume change to improve cycling and safety.

A low-permittivity solvent and soluble dispersant keep solid electrolytes dispersed at 20%+ solids while suppressing hydrogen sulfide emission.

Natural graphite with an amorphous carbon coating lowers anode-electrolyte resistance and stabilizes lithium-ion migration in solid-state batteries.

Selected ester solvents preserve solid electrolyte stability while maintaining slurry rheology for coating, drying, and ionic conductivity retention.

A composite solid electrolyte membrane uses filler-guided additives to ionize deposited lithium and delay dendrite growth that causes battery short-circuits.

A polythiophene and PEDOT:PSS polymer blend boosts ionic and electronic conductivity while cutting interfacial resistance in solid-state lithium batteries.

A surface coating blocks interfacial side reactions in halide solid electrolytes, preserving lithium ion conductivity and charge/discharge efficiency.

High-viscosity organic electrolytes in and around a solid electrolyte layer cut interfacial resistance and absorb volume change for safer cycling.

A lithium-ion copolyester separator film uses lithium-ion-conductive polyester chemistry to keep thin cells strong, stable, and less flammable.

A porous polymer sheet filled with polymer electrolyte enables thin solid-state battery membranes with higher strength, ion conduction, and dendrite resistance.

A freestanding sulfide glass electrolyte sheet combines high lithium-ion conductivity with dendrite blocking for safer, scalable lithium metal batteries.

OIPC ionic binders let solid-state electrodes conduct ions without flammable liquid electrolytes, improving safety and manufacturing fit.

A dual-lithium-salt electrolyte balances carbonate solvents to suppress exothermic reactions and improve NCM battery thermal stability.

A TPV electrolyte with crosslinked elastomer and thermoplastic phases improves ionic conduction, mechanical strength, and resistance to lithium dendrites.

An embedded buffer electrolyte layer lowers solid-state battery interface impedance, blocks lithium dendrites, and supports normal-condition cycling.

Composite particulates combine polymer electrolyte, active material, and inorganic particles to cut interfacial impedance while improving battery safety.

Ion-conducting polymer separators replace bulky liquid electrolyte containment in bipolar batteries, reducing shorts and leakage while keeping cells compact.

Volatile sintering aids wet grain boundaries and fill voids in solid-state electrolytes, raising density and blocking Li dendrite penetration.

Nanometer-scale ALD coatings on sintered LCO or NMC cathodes stabilize the cathode-electrolyte interface, limiting corrosion and capacity fade.

Inorganic particles in a sulfide solid electrolyte layer suppress cracks and defects, lowering resistance and improving cycle life.

A ceramic-polymer film impregnated with ionic liquid boosts room-temperature ion conductivity while maintaining thermal stability and low interfacial resistance.

Nanocrystalline M2S solid-solution cathodes improve conductivity, capacity, and cycle stability in all-solid secondary batteries.

A flame-retardant polymer and inorganic salt electrolyte improves solid-state battery safety by resisting ignition, leakage, and lithium dendrites.

A dual-porosity surface layer on an inorganic solid electrolyte cuts interfacial resistance and blocks lithium penetration for stable cycling.

A reflective backing supports thin PEMs and enables optical thickness and defect inspection during fuel cell membrane manufacturing.

A swelling interlayer with lithiating inorganic particles creates voids and resistance to block lithium dendrite growth and battery short-circuits.

A cyclic and chain nitrile electrolyte forms a stable SEI film, reducing gas generation and preserving lithium battery storage at high temperature.

A crosslinked lactone/cyclic carbonate electrolyte film boosts ionic conductivity and thermal stability while helping suppress lithium dendrite growth.

A dual-layer dry-calendered membrane uses particulate and fibrous binders to raise strength, preserve ionic conductivity, and limit side reactions.

Edge insulation on the second electrode blocks sealing-material intrusion, preserves layer integrity, and improves laminated battery volume efficiency.

A partially carbonized polyimide or polyamide binder forms conductive thick solid-state battery electrodes while limiting cracking.

Intermediate layers improve bonding between current collectors and active materials, reducing localized reactions and improving cycling.

Flame pyrolysis and field-assisted sintering simplify LTP electrolyte production while controlling grain size for stronger, conductive solids.

A LiBH4-LiX coating on anode active material limits sulfide electrolyte reduction, suppressing resistance growth and preserving cycling.

Releasable tab contacts let pouch cells disconnect from protection circuits, cutting e-waste while preserving reliable electrical connection.

Flat graphite particles aligned near the thickness direction preserve Li-ion paths and reduce electrode-electrolyte peeling in solid-state batteries.