Energies · 2023 · 19 citations · 40 references
Solvent ExtractionChemical EngineeringLithium RecoveryEngineeringBrine MiningLi-ion Battery MaterialsDirect Lithium RecoveryBattery AdditivesLithium-ion BatteryEnergy StorageAnalytical ChemistryElectrochemical Energy StorageBatteriesChemistryMineral ProcessingComparative StudyBrine Simulated SolutionsElectrochemistry
Oil (and natural gas) field brines can be considered promising sources of lithium for the sustainable supply of a growing market. To date, many materials have been developed for direct lithium recovery from brines, but most often these materials have been tested under various conditions, what makes it impossible to compare them. The aim of this research is to provide knowledge that would enable the comparison and selection of effective sorbents for different types of brines. For this purpose, an eight-step experimental protocol was employed. The recovery tests started with a pure lithium solution (300 mg/kg), and then other salts were gradually added, resulting in a brine containing Li+ (220 mg/kg), Na+ (7.21 wt%), Ca2+ (3.0 wt%) and Mg2+ (1000 mg/kg). For selected cases, the effect of pH was also investigated. Fifty materials (including ion exchange resins, organophosphate extractants, mineral adsorbents) were examined, for which the distribution coefficient and lithium recovery were determined. Moreover, for the most promising materials, lithium over magnesium selectivity and lithium ion capacity were determined. Only γ-Al2O3, TiO2 and MnOx-based powders keep their effectiveness in ultra-high salinity ranges and in the presence of high concentrations of Ca2+ and Mg2+ in alkaline solution.
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Camille Grosjean, Pamela Herrera Miranda, Marion Perrin et al. · Renewable and Sustainable Energy Reviews · 2012 · 801 citations
Electric Battery, Electrical Engineering, Electric Vehicle Industry +11
Recovery of lithium from Uyuni salar brine
Jeon Woong An, Dong Jun Kang, Khuyen Thi Tran et al. · Hydrometallurgy · 2012 · 480 citations