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.