Pyrolysis of hydrophilic polymers forms a conductive mixed layer on non-stoichiometric titanium particles, suppressing impurity phases during synthesis.
Granulated lithium titanate particles enable easy pulverization and uniform dispersion in battery electrodes.
A lithium niobate coating solution enhances secondary battery characteristics by reducing interface resistance between active material and solid electrolyte.
Nanoparticle suspension deposition creates dense electrode layers, eliminating high-temperature sintering and cracking in lithium ion microbatteries.
A bronze-type titanium oxide compound with chain-linked TiO6 octahedrons enables efficient lithium ion insertion and removal.
Converting ilmenite into low-cost electrode active materials resolves the contradiction between manufacturing cost and battery cycle life.
A composite positive active material combines Li2TiO3 or Li2ZrO3 with layered phases to improve ion conductivity and structural integrity.
Spray drying produces spherical lithium titanate anodes, resolving irregular morphology and enhancing charging efficiency.
Premature termination of grinding and sifting separates oxidic impurities from lithium-metal-oxygen compounds, preventing equipment abrasion contamination.
Doping iron or manganese into the spinel lattice allows larger primary particles that maintain conductivity while resolving low filling density.
A TiN coating on lithium titanium oxide particles improves charging rates and cycle stability by boosting electron conduction.
A composite electrolyte formulation combines polyvinylene difluoride with inorganic Li1.3Ti1.7Al0.3(PO4)3 particles to enhance lithium-ion conductivity.