Rajput Priyadarshani, Singh Abhishek, Mandzhieva Saglara, Ghazaryan Karen, Minkina Tatiana, Rajput Vishnu D
Academy of Biology and Biotechnology, Southern Federal University, Rostov-On-Don, Russia.
Faculty of Biology, Yerevan State University, 0025, Yerevan, Armenia.
Environ Geochem Health. 2025 Jun 9;47(7):255. doi: 10.1007/s10653-025-02553-2.
The mining sector is mostly responsible for the extensive environmental problem of soil contamination caused by lead, zinc, iron, manganese, and copper. Some examples of primary sources are processes involving in mining activities, manufacturing, processing, waste management, and atmospheric sediments. The main environmental and health impacts of contamination include soil degradation and pollution that affect the ecosystem and impose health risks. Therefore, the present work comprehensively evaluated the mining-related heavy metals contamination levels, and soils affected by mining activities. The recent methodological approaches such as nanotechnology were critically discussed to cope with mining contamination. Currently, nanotechnology has grown into a major driver of a paradigm shift, transitioning from conventional to advanced, especially in the field of sustainable remediation of toxic elements. In the present study, data from 2000-2025 (25 January 2025) were retrieved from the Scopus database, and the analyses of obtained dataset were performed through the R-Studio-Biblioshiny software tool. Therefore, the current review offers an important contribution, which includes a bibliometric analysis that makes it easy to understand the current state of mining pollution, worldwide research trends, knowledge gaps existing, and challenges for future research. Furthermore, this review also discussed the number of recent studies that delve into cutting-edge approaches to manage and remediate mineral waste, implement sustainable practices in the mining industry, and regulate pollution caused by heavy metals and metalloids. Insight into the current trends of heavy metals toxicity and its adverse effects on soil, plants, and humans were comprehensively explored. Additionally, review elucidates the mechanisms underlying bio-migration, uptake, and translocation of heavy metals in soil, crops, the mode of action of nanoparticle-based strategies for stabilization and remediation of mining sites.
采矿业是导致铅、锌、铁、锰和铜造成土壤污染这一广泛环境问题的主要原因。主要污染源的一些例子包括采矿活动、制造、加工、废物管理和大气沉积物中涉及的过程。污染对环境和健康的主要影响包括影响生态系统并带来健康风险的土壤退化和污染。因此,本研究全面评估了与采矿相关的重金属污染水平以及受采矿活动影响的土壤。对纳米技术等最新方法进行了批判性讨论,以应对采矿污染问题。目前,纳米技术已成为范式转变的主要驱动力,从传统技术向先进技术转变,尤其是在有毒元素的可持续修复领域。在本研究中,从Scopus数据库中检索了2000年至2025年(2025年1月25日)的数据,并通过R-Studio-Biblioshiny软件工具对获得的数据集进行了分析。因此,当前的综述做出了重要贡献,其中包括文献计量分析,便于了解全球采矿污染的现状、研究趋势、存在的知识空白以及未来研究面临的挑战。此外,本综述还讨论了近期深入研究管理和修复矿物废物的前沿方法、在采矿业中实施可持续做法以及监管重金属和类金属造成的污染的研究数量。全面探讨了重金属毒性的当前趋势及其对土壤、植物和人类的不利影响。此外,综述阐明了重金属在土壤、作物中的生物迁移、吸收和转运的潜在机制,以及基于纳米颗粒的采矿场地稳定和修复策略的作用方式。