
1. 江西省科学院能源研究所
2. 江西省碳中和研究中心
Published:2022
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周建平, 艾仙斌, 石金明, et al. Research Progress of Lithium Extraction Technology and Resource Utilization of Lithium Slag from Lithium Ore[J]. 2022, (4): 71-77.
周建平, 艾仙斌, 石金明, et al. Research Progress of Lithium Extraction Technology and Resource Utilization of Lithium Slag from Lithium Ore[J]. 2022, (4): 71-77. DOI: 10.16056/j.2096-7705.2022.04.012.
双碳战略的实施,促进了新能源产业的快速发展,极大拉升了对锂资源的需求。作为锂资源重要存在形式之一的锂矿石,经提锂工艺后,产生大量锂渣,分析不同提锂工艺对锂渣性质的影响,可为锂渣资源高效综合利用提供参考。综述锂矿石提锂工艺现状,分析了不同提锂工艺产生的锂渣理化性质及其在建材、材料等领域的回收利用现状与问题。现阶段,锂矿石提锂主要采用酸法工艺,酸法工艺锂渣含有的硫元素和钠盐成分会限制锂渣的回收利用,同时对于不同工艺锂渣合成新型材料的针对性研究开展较少,相关处理方法的反应机理有待明确。针对锂渣资源化利用过程中不同提锂工艺造成锂渣理化性质不一的问题,展望未来锂产业的绿色发展需要持续优化提锂工艺,提高提锂效率,并根据锂渣性质,完善利用处理方式,拓展锂渣应用范围,提升锂渣资源化利用效果。
The implementation of dual-carbon strategy has promoted the rapid development of new energy industry and greatly increased the demand for lithium resources. As one of the important forms of lithium resources
lithium ore is produced a lot of lithium slag after lithium extraction process. The influence of different lithium extraction process on the properties of lithium slag is analyzed
which can provide a reference for efficient comprehensive utilization of lithium slag resources. The present situation of lithium extraction from lithium ore is reviewed
and the physical and chemical properties of lithium slag produced by different lithium extraction processes are analyzed. At present
the main method of extracting lithium from lithium ores is acid process
and the sulfur and sodium content in the acid process will restrict the recovery of lithium slag
at the same time
little research has been done on the synthesis of new materials from lithium slag by different processes
and the reaction mechanism of related treatment methods needs to be clarified. In view of the problem of different physicochemical properties of lithium slag caused by different extraction processes during the resource utilization of lithium slag
looking forward to the green development of lithium industry in the future
it is necessary to continuously optimize the extraction process of lithium
improve the extraction efficiency of lithium
and improve the utilization and treatment methods according to the properties of lithium slag
expand the application range of lithium slag
and improve the utilization effect of lithium slag.
锂云母中有价金属的高效提取研究[D]. 颜群轩.中南大学,2012
锂辉石提锂尾渣资源化利用实验研究[D]. 王旭.中国地质大学(北京),2021
白色超高性能混凝土的制备与性能研究[D]. 李金臻.南昌大学,2019
宜春锂云母提锂渣的火山灰活性及其对水泥混凝土性能的影响研究[D]. 毛意中.南昌大学,2017
利用氯化法锂云母提锂渣烧制轻质陶粒的研究[D]. 曾传林.南昌大学,2012
改性锂渣硅铝酸盐混凝土研究[D]. 陈鹏.重庆大学,2007
碱-矿渣-锂渣胶凝材料研究[D]. 石宁.重庆大学,2005
双碳目标下我国新能源汽车发展现状及挑战研究[J]. 赵征.商业经济,2022(08)
锂渣和钢渣对水泥浆体力学性能与微观结构的影响[J]. 李茂森;江金萍;刘怀;段平;荆武;葛文;王泽生.硅酸盐通报,2022(06)
工业废渣对水泥粉体粒度分布及性能影响的试验研究[J]. 张杰;彭丙杰;罗小东;和德亮;吴涛;胡顺忠;杨勇.新世纪水泥导报,2022(03)
利用机制砂洗砂污泥及锂云母锂渣制备免烧免蒸砖的研究[J]. 胡弦.江西建材,2022(02)
锂渣复合掺合料配比研究[J]. 季柯明;曾亮;胡彪.江西建材,2021(11)
锂辉石提锂工艺综述[J]. 米茂龙;严润华.广州化工,2021(14)
锂渣掺量对水泥基复合材料性能的影响[J]. 吕志栓;何斌;韩国旗;米红林;王晨;陈欣.科学技术与工程,2021(17)
锂云母锂渣性质及利用研究现状[J]. 陈志友;苏小琼;杨志文;肖洪旭.硅酸盐通报,2021(03)
锂尾矿资源化再利用现状与前景[J]. 张宏泉;文进;童慧;王亚名.陶瓷,2021(03)
不同种类锂渣粉对混凝土性能的影响研究[J]. 石齐;黄沙;梁建军;蔡恒袖.江西建材,2020(S1)
中国锂矿资源现状及其可持续发展策略[J]. 张苏江;张彦文;张立伟;姜爱玲;刘桂云.无机盐工业,2020(07)
含锂资源中锂的提取研究现状及展望[J]. 徐正震;梁精龙;李慧;郭佳明.矿产综合利用,2021(05)
含钾、铷、锂云母矿综合回收试验研究[J]. 牛磊.湖南有色金属,2020(01)
锂渣粉的组成及在水泥浆体中的物理与化学反应特性[J]. 李保亮;尤南乔;曹瑞林;霍彬彬;陈春;张亚梅.材料导报,2020(10)
锂渣粉制备水泥基灌浆料及其性能研究[J]. 揭晓东;石齐;鲍伟平.江西建材,2018(14)
云母浸出渣对陶瓷体白度的影响探究[J]. 郁兴国;胡玉;符龙;林诗涵;简勤勇.江西化工,2018(05)
矿石资源中锂的提取与回收研究进展[J]. 苏慧;朱兆武;王丽娜;齐涛.化工学报,2019(01)
锂渣在制备高性能混凝土中的试验研究[J]. 麻鹏飞;刘登贤;吴鑫;向鹏;罗加全.混凝土与水泥制品,2018(06)
高性能锂渣混凝土的研究及应用[J]. 刘登贤;麻鹏飞;吴鑫;陈浏全;周楷文;谭先长.混凝土与水泥制品,2018(01)
锂矿渣合成FAU/LTA共晶分子筛母液回用及其性能研究(英文)[J]. 林国;庄强;崔群;王海燕;姚虎卿.Chinese Journal of Chemical Engineering,2015(11)
锂渣合成NaX分子筛结构表征和吸附特性研究[J]. 胡昕;庄强;陈丹;崔群;王海燕.高校化学工程学报,2013(04)
锂渣利用的进展[J]. 李红英,游锦新.新疆有色金属,2003(S2)
锂渣在陶瓷釉面砖中的应用研究[J]. 刘晓莉,肖永贞,谢幸福,沈晓萍.陶瓷,1998(02)
锂渣快干铁红醇酸漆的研制[J]. 焦益民.涂料工业,1988(06)
石灰石法锂云母综合冶炼工艺流程[J]. 石颖.稀有金属,1982(03)
The use of contaminated soil and lithium slag for the production of sustainable lightweight aggregate[J]. Gao Wenbin;Jian Shouwei;Li Xiangguo;Tan Hongbo;Li Baodong;Lv Yang;Huang Jian.Journal of Cleaner Production,2022
Production of an electro-biological particle electrode (EBPE) from lithium slag and its removal performance to salicylic acid in a three-dimensional electrocatalytic biological coupling reactor (3D-EBCR)[J]. Li Xinxin;Li Xing;Feng Yan;Wang Xinwei;Suo Ning;Yang Shumin;Long Yingying;Zhang Shoubin.Chemosphere,2021
Efficient extraction of lithium from β-spodumene by direct roasting with NaF and leaching[J]. Gustavo D. Rosales;Alexander C.J. Resentera;Jorge A. Gonzalez;Rodolfo G. Wuilloud;Mario H. Rodriguez.Chemical Engineering Research and Design,2019(C)
Microstructure of ultra high performance concrete containing lithium slag[J]. Zhi-hai He;Shi-gui Du;Deng Chen.Journal of Hazardous Materials,2018
Extraction of lithium from β-spodumene using chlorination roasting with calcium chloride[J]. Lucía I. Barbosa;Jorge A. González;María del Carmen Ruiz.Thermochimica Acta,2015
Novel process for the extraction of lithium from β-spodumene by leaching with HF[J]. Gustavo D. Rosales;María del Carmen Ruiz;Mario H. Rodriguez.Hydrometallurgy,2014
Synthesis and characterization of zeolite X from lithium slag[J]. Dan Chen;Xin Hu;Lu Shi;Qun Cui;Haiyan Wang;Huqing Yao.Applied Clay Science,2012
Extraction of valuable metals from lepidolite[J]. Qunxuan Yan;Xinhai Li;Zhixing Wang;Xifei Wu;Huajun Guo;Qiyang Hu;Wenjie Peng;Jiexi Wang.Hydrometallurgy,2012
Preparation of lithium carbonate from spodumene by a sodium carbonate autoclave process[J]. Ya Chen;Qianqiu Tian;Baizhen Chen;Xichang Shi;Ting Liao.Hydrometallurgy,2011(1)
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