Non-Metal Conductors TRIZ Cases

See how acidic-basic surface modification of polymer nanofibers resolves the ion conductivity v

Carbon-based fillers in electroconductive and elastic polymers create conductive fibers that resist stress and stay flexible for sensor textiles.

A dual-crystalline polymer PTC layer with metallic filler cuts resistance drift after thermal shock while preserving low-temperature battery protection.

A fluorinated Li-Ti-M solid electrolyte uses a controlled XRD peak ratio to raise ionic conductivity while retaining oxidation resistance.

Multi-cation chloride solid electrolytes balance Li-ion conductivity with humidity stability, avoiding conductivity loss and heat recovery steps.

Multi-cation chloride solid electrolytes improve humidity stability and reduction resistance while preserving Li-ion conduction in solid-state batteries.

Electro-thermal re-orientation plus charged gas activation turns dielectric materials conductive without additives, reducing complexity.

Oxygen-added multi-cation chloride electrolyte preserves Li-ion conductivity under humid conditions while avoiding heat treatment and added cost.

Multi-cation chloride solid electrolytes use added anions and metallic salts to retain Li-ion conductivity while improving humidity and reduction stability.

Hydrocarbon-modified MXene particles and films suppress conductivity loss at high temperature through surface terminals and organic-compound heating.

A high-permittivity dispersion medium helps MXene compositions resist oxidation and retain conductivity for stable conductive films.

Adding MxZr2(PO4)y to the solid electrolyte layer improves ion transport, helping all-solid-state batteries raise conductivity without losing safety.

A 3D porous red phosphorus-carbon anode improves conductivity, lithium wettability, and cycle stability while retaining high capacity.

A foamed porous ion conductive layer with hygroscopic halide or sulfide electrolyte boosts conductivity and stability for faster solid-state battery charging.

Laser-induced graphene turns insulating glass fiber mesh conductive, enabling voltage-based sterilization without losing filtration strength.

Linker-bound sulfonic acid groups boost proton conduction in fuel cell catalyst layers while reducing ink nozzle clogging.

A dual-phase lithium ion conductor achieves high conductivity below 600°C, limiting electrode-oxygen reactions in solid-state batteries.

Ammonium-containing complex metal halides enable solid electrolytes with lower synthesis temperatures, improved ionic conductivity, and less moisture risk.

Inert-gas heat treatment replaces vacuum tubes and ball mills to produce halides with high ionic conductivity at lower cost.

A lanthanum- and rare-earth-doped ceria interlayer boosts oxide ion conductivity at the electrode interface, enabling lower-temperature operation.

A doped phosphate ceramic forms superconducting quantum wells to achieve room-temperature superconductivity without high-pressure operation.

Separated RPCVD deposition zones and near-substrate reagent mixing cut carbon and oxygen impurities while maintaining fast, uniform film growth.

A Taylor-flow co-precipitation route builds a Ni-rich core and Mn-rich shell cathode to raise capacity while preserving cycling stability.

Low-temperature deposited nitrogen-rich solid electrolyte improves Li-ion conduction while limiting interfacial degradation and unwanted reactions.

Electrospun Na-Cr-Ti-Mn phosphate carbon cathodes improve conductivity and cycling stability while removing collectors, binders, and added carbon.

Hydrophobic-hydrophilic resin architecture improves anion conductivity, gas permeability, and water uptake in membranes and catalyst binders.

Separate RPCVD deposition zones and premixed ammonia with Group IIIA reagents cut carbon and oxygen impurities while maintaining low-temperature film growth.

Nitrogen doping in lutetium hydride shifts superconductivity toward room temperature at lower pressure, improving practical operating conditions.

Biomass-derived carbide granules cut grounding material weight and CO2 emissions while maintaining the resistance reduction effect of coke.

Biomass-derived carbide granules cut CO2 emissions and material weight while maintaining grounding resistance reduction near coke-based fill.

An amorphous Li-Al-F phase boosts ionic conductivity and particle deformability, improving bonded interfaces in compacted solid electrolytes.

A solid electrolyte around a metal interconnect lowers resistance in scaled semiconductor wiring while keeping adjacent metal layers insulated.

A conductive diamond electrode cleans optical windows during operation by electrolytically oxidizing organic fouling into CO2.

Specific dopant ratios in a garnet solid electrolyte suppress grain-boundary impurities, maintaining ion conduction while limiting leakage and short-circuit risk.

A low-temperature amorphous nitrogen-rich lithium electrolyte improves ionic conductivity while limiting interface degradation and cost.

Columnar Li-Nb/Ta oxyhalide crystals limit heat-driven element evaporation and preserve lithium-ion conductivity in solid-state batteries.

Ion movement in a solid electrolyte raises electron concentration in a metal interconnect, helping offset resistance growth as semiconductor lines shrink.

Larger adduct ions expand the fluorite lattice in a composite fluoride electrolyte, improving fluoride ion conduction at lower temperatures.

A Li-Al fluorine-chlorine/bromine electrolyte avoids hydrogen sulfide release while preserving high lithium-ion conductivity for battery charging and safety.

Mechanochemical ball milling forms halide materials faster while suppressing residual single cationic halides that reduce lithium ion conductivity.

A sulfur-free Li-Zr-Y-Nb/Ta halide electrolyte boosts lithium-ion conductivity while avoiding hydrogen sulfide risks in solid-state batteries.

Lowering internal cell pressure limits current collector corrosion and reaction non-uniformity, improving all-solid-state battery cycle life.

Fluorine-based solid electrolyte chemistry suppresses oxidative decomposition during charging while maintaining lithium-ion conductivity and limiting resistance rise.

Inert-gas heat treatment at 200-650°C produces conductive halides for solid electrolytes without vacuum tubes or ball mills.

A phosphate cathode paired with anatase TiO2 raises solid-state battery energy density while preserving stable, safer charge-discharge behavior.

A sputtered apatite-type oxide film on metal, ceramic, or composite substrates solves silicon-only orientation limits for thin solid electrolytes.

A halide solid electrolyte replaces sulfide chemistry to maintain lithium ion conductivity while avoiding hydrogen sulfide generation in all-solid-state batteries.

Controlled doping plus ball milling and annealing gives lithium chloride higher ion conductivity and lower activation energy for solid electrolytes.

A halide glass-ceramic solid electrolyte improves cathode interface uniformity and ionic conductivity without toxic sulfides or high-temperature sintering.

Metal nanoparticles bonded to semiconductor sidewalls raise electrical conductivity and Seebeck coefficient while limiting thermal conductivity.

Heat-treating LiCl and YCl3 in an inert gas at 200-650°C produces chloride solid electrolytes with high ionic conductivity and simpler scale-up.

A tetrahedral anionic framework without dihedral planes improves room-temperature ion diffusion and conductivity in solid-state batteries.

Replacing acrylonitrile-butadiene rubber with a metallocene-catalyzed olefin copolymer eliminates thermo-oxidative degradation while maintaining strippability.