Zirconium Compounds TRIZ Cases

A zirconium coating formed on cathode particle surfaces and inner interfaces suppresses cracking and fine powder, preserving capacity and cycle life.

A core-shell lithium supplement boosts lithium-ion migration while limiting cathode slurry viscosity, improving battery energy density and cycle life.

A lithium-rich core and lower-lithium surface help garnet ceramic sheets resist air-induced impurity phases while maintaining solid-electrolyte conductivity.

A core-shell lithium supplement boosts cathode-side lithium release while preserving slurry stability, conductivity, and battery cycle life.

A zirconium coating on cathode particle surfaces and inner interfaces suppresses cracking and fine powder while preserving battery capacity and cycle life.

Controlled metal ion occupancy in a hexagonal halide solid electrolyte opens lithium conduction paths while preserving battery stability.

A zirconium coating at outer surfaces and primary-particle interfaces suppresses cathode cracking and fine powder while preserving capacity.

A garnet oxide ceramic powder with added compounds enables dense, high-conductivity sintering at lower temperatures while limiting lithium volatilization.

Porous multi-metal oxide nanotubes help PEM membranes retain conductivity and stability at low humidity while resisting radical-driven degradation.

A zirconium-lined sintering container and acid-alcohol cleaning suppress powder passivation, improving ionic conductivity and cycling.

An iodine-free halide coating layer suppresses oxidative decomposition and electron transfer while preserving ion conductivity in solid batteries.

Flux and reactive sintering create dense lithium-stuffed garnet films with fine grains, improving conductivity and stability in solid-state batteries.

Partial sulfur substitution in a halide solid electrolyte improves lithium-ion conductivity, moisture stability, and particle contact in secondary batteries.

A dense lithium garnet layer plus a porous ionic-liquid layer helps solid-state battery interfaces resist diffusion and cycling damage.

Ga-substituted garnet oxide with LiF or fluoride secondary phases improves Li+ conductivity in solid electrolytes for safer all-solid-state batteries.

A molten salt route forms phase-pure cubic LLZO nanoparticles at lower temperature and shorter time while avoiding dopant-driven impurities.

A single-solvent garnet electrolyte precursor balances metal solubility and uniform deposition to improve lithium-ion conduction and reduce byproducts.

A thick nickel-containing anode and controlled electrolyte ratio suppress co-sintering warpage and residual stress while preserving fuel cell output.

Fine-grain lithium-stuffed garnets use reactive and field-assisted sintering to improve conductivity, connectivity, and solid-state battery compatibility.

An inorganic coating on lithium metal oxide improves cathode dispersibility and lowers internal resistance for longer-lasting lithium secondary batteries.

A dual-perovskite electrode composition reduces ohmic resistance and prevents air electrode peeling from thermal expansion mismatch.

Dual metal oxide ALD coatings on solid-state electrolyte particles improve conductivity and interfacial stability while lowering sintering temperature.

Ceria- and scandia-stabilized zirconia electrolytes raise electronic conductivity to limit oxygen precipitation and air electrode delamination in SOECs.

Reactive and flux sintering form dense lithium-stuffed garnet thin films with higher conductivity, stability, and resistance to lithium dendrites.

Lattice doping in a garnet solid-state electrolyte lowers sintering temperature while preserving lithium-ion conductivity and limiting interface side reactions.

Heating garnet solid electrolytes at 250-500°C removes LiOH and Li2CO3 surface layers, lowering lithium interface resistance and raising current density.

A zirconium-lined container and acid-alcohol cleaning suppress passivation on solid-state electrolyte powder, lowering impedance and improving cycling.

A Li-Bi composite oxide enables low-temperature liquid-phase sintering, preserving Li and raising solid electrolyte density and ionic conductivity.

Porous multi-metal oxide nanotubes improve low-humidity proton conductivity while scavenging radicals to protect PEM fuel cell membranes.

Lithium zirconate composite particles with dispersed silicon suppress electrolyte side reactions, cut storage gas generation, and preserve battery capacity.

A surface coating on LLZO ceramic particles enables cold-pressed solid electrolytes with fast Li-ion transport and low grain-boundary resistance.

A 3D acid-salt modification layer on garnet solid electrolytes lowers interfacial impedance and suppresses lithium dendrite growth.

A sulfur-free Li-M-O-X electrolyte uses tuned molar ratios to maintain lithium-ion conductivity while avoiding hydrogen sulfide release.

A cerium-aluminum-zirconium oxide friction modifier helps asbestos-free brake pads keep high μ, resist fade, and stabilize braking.

Controlled zirconia particle aggregation enables thinner honeycomb catalyst layers with low pressure loss and stable exhaust purification at high heat.

Controlled pore size and volume in zirconia powder enable pressureless low-temperature sintering with high density and stronger sintered bodies.

Crystalline barium sulfate binding and silicon-containing particles replace fragile pores, producing stronger, more stable barium compound structures.

Mixed metal dodecaborides replace diamond to avoid graphitization while delivering superhard, oxidation-resistant cutting and abrasive materials.

Repeated energy pulses heat target films above and below the Curie temperature while electric or magnetic fields reorient dipoles in one process.

Surfactant exfoliation followed by covalent surface modification limits nanoplatelet aggregation while supporting barrier and mechanical properties in polymers.