Alkali Titanates TRIZ Cases

Powdery alkali metal titanate adsorbs radioactive strontium from wastewater, reducing radiation dose while minimizing inert waste generation.

Binder-free potassium hydrogen dititanate hydrate adsorbs cobalt ions via cation exchange.

Lithium titanate oxide negative electrode with controlled XRD peak ratios mitigates irreversible reactions during rapid cycling to maintain capacity retention.

Controlled primary particle size distribution and carbon coating enhance lithium ion input-output characteristics in secondary battery electrodes.

Controlled pore volume in monoclinic titanium dioxide improves reversible capacity while maintaining first cycle Coulomb efficiency.

Direct acid treatment of alkali metal titanate eliminates complex sol-gel steps, enabling rapid production of titania with controlled pore sizes.

Solvothermal synthesis yields Li4Ti5O12 nanoparticles with high crystallinity, avoiding high-temperature treatments that degrade nanostructure.

A lithium-transition metal composite oxide with a titanium concentration gradient suppresses cobalt elution and reduces direct current resistance.

Continuous hydrocarbon flame synthesis produces high-purity LTO nanowires for lithium ion battery anodes.

Applying a doped spinel lithium titanium oxide layer to the positive active material maintains structural integrity while preserving capacity per gram.

Orienting crystal planes via uniaxial pressing during sintering reduces grain boundary resistance and boosts lithium ion conduction rates.

Sintered lithium titanium composite oxide with nonstoichiometric titanium oxide enhances electronic conductivity.

A lithium-containing oxide coating on silicon particles enables high Li-ion conductivity.

Vibration rod mill mixing eliminates complex defibration steps to produce high-purity alkali titanate with improved heat resistance.

Lithium titanate resistive switching devices reduce stochasticity and electroforming effects in neuromorphic computing through homogeneous material structures.

A negative electrode active material comprising TiO2, Na2O, and a network-forming oxide creates crystallized glass particles coated with conductive carbon.

Low-temperature sintering of composite oxide precursors produces phase-pure lithium titanate, avoiding high-energy calcining and expensive sol-gel processes.

A surfactant-free sol-gel method synthesizes lithium-based oxide anode materials with controlled reaction stages.

Thermal reaction of stoichiometric TiO2 and Li2TiO3 composite oxides produces phase-pure lithium titanate with extremely low particle size.

Coating Li4Ti5O12 with lithium oxide resolves low conductivity bottlenecks, delivering high initial efficiency and stable capacity at fast charge rates.

Aluminum oxide and anionic surfactant layers on flaky titanate suppress paint yellowing under UV exposure while maintaining metallic luster.

A noncrystalline composite alkali metal titanate composition incorporating silica to achieve chemical stability and resistance to hygroscopicity.

Metal/non-metal co-doped LTO spheres resolve poor electronic conductivity in lithium ion battery anodes, enabling high-rate capacity.

A composite anode active material combines lithium titanium oxide and bismuth titanium oxide to enhance battery performance.

Replacing hazardous metal sodium with stable carbonate enables safe synthesis of high-capacity NaxTi4O9 electrodes for energy storage.

Limiting carbon-based conductive agents in a lithium titanium oxide anode prevents high-temperature gas generation and cell expansion.

Hydrophobic porous titanate particles improve fade resistance while preventing moisture-induced brake noise.

Hydrophobic coating on lithium titanate particles suppresses side reactions that produce carbon dioxide gas, maintaining discharge output characteristics.

Controlling atmosphere dew point during heat treatment minimizes moisture and carbon dioxide adsorption on lithium-titanate, improving battery stability.

Orthorhombic titanium oxide composite material increases energy density while preventing dendrite precipitation during rapid charge-and-discharge cycles.

Chemical etching reduces metal oxide particle size while preserving structural integrity, avoiding mechanical fractures that limit specific surface area.

A lithium titanate sintered body with controlled pore diameter and specific surface area enhances active material filling in rechargeable batteries.

Sintering lithium titanium oxide precursors controls residual lithium content in anode active materials.

Optimized orthorhombic titanium electrode structure enhances lithium ion conductivity through specific crystal alignment.

Hydrogen peroxide treatment modifies monosodium titanate surface chemistry, resolving the contradiction between dry storage safety and fast sorption kinetics.

Element selective sputtering forms a conformal titanium oxide layer on lithium titanate cores.

Substituting titanium with manganese, vanadium, or boron in lithium titanium complex oxides enhances electronic conductivity.

Novel glass frit composition in conductive paste lowers contact resistance and enhances photovoltaic efficiency of solar cells.

A charge control unit induces a second sodium insertion reaction in the Na2Ti6O13 crystal phase to increase reversible capacitance.

C10-C34 fatty acids disperse coating material on electrode surfaces via adsorption, resolving solid-state manufacturing uniformity issues.

A lead-free piezoelectric composition uses a multi-oxide composite structure to deliver stable electromechanical performance.

A lithium titanate sintered plate uses controlled porosity and fine primary grains to enhance conductivity.

Hydrothermal synthesis produces a composite adsorbent that selectively removes radioactive cesium and strontium from high-sodium seawater.

A monoclinic lithium metal oxide coating layer prevents side reactions with organic solvents to improve cycling stability and capacity retention.

Optimized lithium titanium oxide with specific sodium and potassium content reduces electric resistance to enable high-output performance.

Replacing liquid electrolytes with a solid sulfide layer eliminates gas generation and leakage risks while maintaining high conductivity.

High-density lithium metal oxide particles with controlled internal porosity reduce binder content while improving charge rates.

Lithium titanium oxide spinel achieves high capacity by controlling FWHM ratios to prevent secondary phases.

An acid anhydride coating on lithium titanium oxide absorbs moisture to prevent gas generation and side reactions during battery cycling.

Sol-gel synthesis creates nanosized monosodium titanate particles to resolve micron-scale limitations in ion exchange kinetics.