离子吸附型稀土矿生物浸出技术研究进展
收稿日期: 2024-12-24
网络出版日期: 2025-03-03
基金资助
江西省千人计划(JXSQ2023201003); 鄂尔多斯市科技重大专项(2022EEDSKJZDZX014-2); 江西省技术创新引导类计划项目(20212BDH81029); 稀土产业基金(IAGM2020DB06)
Research Progress on Bioleaching Technology for Ion-Adsorption Type Rare Earth Ores
Received date: 2024-12-24
Online published: 2025-03-03
Supported by
Thousand Talents Program of Jiangxi Province, China(JXSQ2023201003); Science and Technology Major Program of Ordos City(2022EEDSKJZDZX014-2); Technological Innovation Guidance Program of Jiangxi Province(20212BDH81029); Rare Earth Industry Fund(IAGM2020DB06)
稀土需求的日益增加极大考验了稀土资源的开发, 但作为中重稀土资源主要供应链的离子吸附型稀土矿, 传统化学开采造成了严重的生态破坏. 为解决稀土开采过程中存在的污染问题, 生物浸出技术日益受到关注. 研究人员从浸取理论、工艺等方面展开了一系列探索. 本文综述了离子吸附型稀土矿中稀土元素赋存形态、浸出理论发展和稀土生物浸出过程, 包括其机理、影响因素和最新研究进展. 稀土的生物浸出受到多种因素的影响, 提高稀土的生物浸出效率, 其本质是提高微生物的活性和代谢产物的浓度, 或降低有毒物质影响. 本综述对生物浸出过程的总结和分析, 可为离子吸附型稀土矿生物绿色开采和稀土微生物开采技术的发展提供一定的支持.
赵梦飞 , 韩赫兴 , 杨幼明 , 李庭刚 . 离子吸附型稀土矿生物浸出技术研究进展[J]. 化学学报, 2025 , 83(4) : 415 -427 . DOI: 10.6023/A24120379
The growing demand for rare earth elements (REEs) has posed significant challenges to their exploitation. Traditional chemical extraction methods of ion-adsorption type rare earth ores (IAREOs), which constitute the primary supply chain for medium and heavy rare earth resources, have caused severe ecological damage. Bioleaching technology has emerged as a promising solution to address the pollution issues in rare earth mining processes. This review comprehensively examines the occurrence states of REEs in IAREOs, the evolution of REEs leaching theory, and focuses on the bioleaching process. Initially, it introduces the genesis and characteristics of different REEs occurrence states in IAREOs and describes the development of leaching theories for IAREOs. The review then systematically explores bioleaching modes, key parameters, influencing factors, and mechanisms. Different bioleaching modes have their specific advantages. In contact bioleaching, microbial activity and metabolic processes may be inhibited by the metal ions leached and the toxic compounds present in the minerals or materials. On the other hand, non-contact bioleaching could avoid this issue while it requires additional facilities and results in a high cost. The choice of bioleaching mode needs to consider factors such as the type of minerals, the types of microorganisms, and operational costs, seeking a balance among these multiple factors. The efficiency of bioleaching is jointly influenced by microbial species and their metabolic products, cultivation conditions, and mineral types. To improve the performance of the bioleaching process, it is essential to consider several physicochemical and microbial factors that affect the bioleaching efficiency of REEs. Fundamentally, improving bioleaching efficiency involves enhancing microbial activity and metabolite concentration while minimizing, or eliminating the inhibitory effects of toxic substances on microbial activity and metabolic processes. The bioleaching mechanisms of IAREOs primarily comprise acid dissolution and subsequent ion exchange mechanisms, complexation-promoted dissolution mechanisms, and intracellular uptake mechanisms. The dominant mechanisms of bioleaching change with different environmental conditions. Bioleaching is often a synergistic process involving acid dissolution and complexation, with the predominance of either process depending on the pH value of solution, the acid dissociation constants (pKa) of the functional groups, and the stability of the formed complexes. In terms of biological uptake, the overall effectiveness is determined by the dynamic balance of multiple factors, which also influences the final rare earth recovery rate obtained through cell recovery. The ecological impact of bioleaching on mining areas is thoroughly examined. Through microbial metabolism and chemical speciation transformation, bioleaching technology significantly reduces the toxicity and mobility of heavy metals in residues, thereby minimizing potential environmental hazards and laying the foundation for rapid ecological restoration. Compared to pyrometallurgical or hydrometallurgical methods, bioleaching demonstrates superior environmental and economic advantages, reducing environmental pollution and ecological risks associated with mineral extraction, while enabling rapid recovery of ecology. Finally, this review addresses current challenges in bioleaching technology and analyzes potential solutions. The summary and analysis of the bioleaching process presented in this review can provide support for the green bio-extraction of IAREOs and the development of microbial extraction technologies for REEs.
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