Electrochemical lithium extraction with continuous flow electrodes DOI

Qinpeng Zhu,

Xuyu Yu,

Yize Liu

et al.

Desalination, Journal Year: 2023, Volume and Issue: 574, P. 117250 - 117250

Published: Dec. 21, 2023

Language: Английский

Synthesis and optimisation mechanism of functionalised adsorption materials for lithium-ion extraction from salt water: A review DOI

Jiewei Xu,

Xuyi Wei, Junwei Han

et al.

Separation and Purification Technology, Journal Year: 2024, Volume and Issue: 339, P. 126237 - 126237

Published: Jan. 11, 2024

Language: Английский

Citations

22

A comprehensive review of lithium extraction: From historical perspectives to emerging technologies, storage, and environmental considerations DOI Creative Commons
R.P. Krishnan, Gokul Gopan

Cleaner Engineering and Technology, Journal Year: 2024, Volume and Issue: 20, P. 100749 - 100749

Published: May 1, 2024

Lithium, a vital element in lithium-ion batteries, is pivotal the global shift towards cleaner energy and electric mobility. The relentless demand for batteries necessitates an in-depth exploration of lithium extraction methods. This literature review delves into historical evolution, contemporary practices, emerging technologies extraction. It scrutinizes environmental economic impacts, identifies research gaps, underscores sustainable extraction's imperative. examines conventional methods like spodumene mining brine extraction, highlighting their advantages challenges. Emerging technologies, particularly Direct Lithium Extraction (DLE) geothermal recovery, are evaluated potential to revolutionize industry. Environmental considerations, including water usage, chemical disposal, habitat disruption, assessed alongside implications. also critical beckoning scientific community develop solutions that meet lithium's surging while safeguarding environment. In conclusion, this emphasizes need facilitate future powered by sources transportation.

Language: Английский

Citations

22

Strategies for lithium extraction from salt lakes by nanofiltration and selective-electrodialysis and analysis of differences between the two methods DOI
Liang Guo,

Yuyang Yao,

Jingwen Xu

et al.

Desalination, Journal Year: 2024, Volume and Issue: 586, P. 117749 - 117749

Published: May 22, 2024

Language: Английский

Citations

22

Challenges and opportunities of recovering lithium from seawater, produced water, geothermal brines, and salt lakes using conventional and emerging technologies DOI Creative Commons
Hasan Nikkhah,

Deniz İpekçi,

Wenjun Xiang

et al.

Chemical Engineering Journal, Journal Year: 2024, Volume and Issue: 498, P. 155349 - 155349

Published: Aug. 30, 2024

Energy storage plays a crucial role in the modern energy landscape, with its applications spanning from renewable integration to electrification of transportation and microgrids. Lithium is key component lithium-ion batteries at core technologies. Increasing demand for lithium has challenged supply chains required rethinking how we source it. This comprehensive review presents critical holistic assessment opportunities challenges sourcing diverse feedstocks, such as seawater, geothermal, produced water (oilfield), salt lake brines. We assess various extraction technologies (precipitation, extraction, electrochemical techniques, membrane processes) considering these three feedstocks. A quantitative comparative analysis conducted across all technologies, factors cost, commercial maturity, operation duration, other relevant parameters determine most promising each feedstock while identifying remaining research technological gaps. Our reveals that Direct Extraction (DLE) characterized by higher selectivity lower environmental impact, demonstrate significant promise enhancing yields geothermal In contrast, processes are identified more suited seawater brines, offering cost-effective scalability despite fouling. Ultimately, efficient illustrated harvesting unconventional resource. The shows adsorption chemical precipitation recovery lake, oilfield brine.

Language: Английский

Citations

17

In search of nanofiltration membranes for efficient lithium extraction from carbonate-type salt lakes DOI

Ren-Jie Fan,

Chunxu Zhang, Feng Xiong

et al.

Desalination, Journal Year: 2025, Volume and Issue: unknown, P. 118596 - 118596

Published: Jan. 1, 2025

Language: Английский

Citations

3

Freeze-dried low-curvature porous structure iron phosphate electrodes for efficient lithium extraction from brine DOI
Xiaoyu Zhao,

Xiuli Song,

Muhan Li

et al.

Separation and Purification Technology, Journal Year: 2025, Volume and Issue: unknown, P. 132021 - 132021

Published: Feb. 1, 2025

Language: Английский

Citations

2

Solid membrane-based aqueous lithium extraction and adsorption: Advances, challenges, and prospects DOI
Yong Yang,

Shumin Bi,

F. Wang

et al.

Chemical Engineering Journal, Journal Year: 2025, Volume and Issue: unknown, P. 161748 - 161748

Published: March 1, 2025

Language: Английский

Citations

2

Technological tendencies for lithium production from salt lake brines: Progress and research gaps to move towards more sustainable processes DOI
Diego Fuentealba, Cherie Flores-Fernández, Elizabeth Troncoso

et al.

Resources Policy, Journal Year: 2023, Volume and Issue: 83, P. 103572 - 103572

Published: April 22, 2023

Language: Английский

Citations

40

Prussian blue analogue derived 3D hollow LiCoMnO4 nanocube for selective extraction of lithium by pseudo-capacitive deionization DOI
Bin Hu, Boshuang Zhang, Yiwen Wang

et al.

Desalination, Journal Year: 2023, Volume and Issue: 560, P. 116662 - 116662

Published: May 5, 2023

Language: Английский

Citations

39

Bifunctional Modification Enhances Lithium Extraction from Brine Using a Titanium-Based Ion Sieve Membrane Electrode DOI
Junxiang Zhang, Zeyu Cheng,

Xinbo Qin

et al.

ACS Applied Materials & Interfaces, Journal Year: 2023, Volume and Issue: 15(24), P. 29586 - 29596

Published: June 11, 2023

Salt lake brine has become a promising lithium resource, but it remains challenging to separate Li+ ions from the coexisting ions. We designed membrane electrode having conductive and hydrophilic bifunctionality based on H2TiO3 ion sieve (HTO). Reduced graphene oxide (RGO) was combined with improve electrical conductivity, tannic acid (TA) polymerized surface of enhance hydrophilicity. These bifunctional modification at microscopic level improved electrochemical performance facilitated migration adsorption. Poly(vinyl alcohol) (PVA) used as binder further intensify macroscopic hydrophilicity HTO/RGO-TA electrode. Lithium adsorption capacity modified in 2 h reached 25.2 mg g-1, more than double that HTO (12.0 g-1). The showed excellent selectivity for Na+/Li+ Mg2+/Li+ separation good cycling stability. mechanism follows exchange, which involves H+/Li+ exchange Li-O bond formation [H] layer [HTi2] HTO.

Language: Английский

Citations

34