Self-driven lithium extraction by directional liquid transport nonwoven

Fluorine‐Rich Supramolecular Nano‐Container Crosslinked Hydrogel for Lithium Extraction with Super‐High Capacity and Extreme Selectivity

“…[19] Currently, using the adsorption technology to extract lithium from lithium-containing solutions has attracted increasing attention owing to its high efficiency, low cost and environmental friendliness. [20] Several types of lithium adsorbents, such as crown ether based-polymers, [21][22][23] ion imprinted adsorbents, [24][25][26] crystal materials with sub-nanoscale ion channels [27][28][29][30] have been developed to selectively capture lithium ions from aqueous solution. For example, Christopher M. Bates et al prepared a class of 12-crown-4functionalized (12C4) polymers, which captured sodium ions due to the matched cavity of 12C4 with the ionic radius of the sodium, achieving a relative selective separation of lithium/sodium.…”

Unraveling the Li+ desorption behavior and mechanism of Li4Ti5O12 with different facets to enhance lithium extraction

“…Notably, its comparatively low concentrations and ion competition in salt lakes make Li + recovery extremely difficult. 2 Through scientic research efforts, solvent extraction, 3 membrane separation, 4 and adsorption 5 technologies have been developed for lithium recovery. Due to the advantages of high Li + selectivity, ease of operation, and cost-effectiveness, among these approaches, the adsorption method is considered a viable technique.…”

Fluorine‐Rich Supramolecular Nano‐Container Crosslinked Hydrogel for Lithium Extraction with Super‐High Capacity and Extreme Selectivity

“…[19] Currently, using the adsorption technology to extract lithium from lithium-containing solutions has attracted increasing attention owing to its high efficiency, low cost and environmental friendliness. [20] Several types of lithium adsorbents, such as crown ether based-polymers, [21][22][23] ion imprinted adsorbents, [24][25][26] crystal materials with sub-nanoscale ion channels [27][28][29][30] have been developed to selectively capture lithium ions from aqueous solution. For example, Christopher M. Bates et al prepared a class of 12-crown-4functionalized (12C4) polymers, which captured sodium ions due to the matched cavity of 12C4 with the ionic radius of the sodium, achieving a relative selective separation of lithium/sodium.…”

“…Currently, using the adsorption technology to extract lithium from lithium‐containing solutions has attracted increasing attention owing to its high efficiency, low cost and environmental friendliness [20] . Several types of lithium adsorbents, such as crown ether based‐polymers, [21–23] ion imprinted adsorbents, [24–26] crystal materials with sub‐nanoscale ion channels [27–30] have been developed to selectively capture lithium ions from aqueous solution. For example, Christopher M. Bates et al.…”