蓝藻介导的重金属去除机制、生物合成和去除能力综述

Q1 Environmental Science
A. Al-Amin, F. Parvin, J. Chakraborty, Yong-Ick Kim
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引用次数: 22

摘要

摘要废水中的重金属因其对人类健康的毒理学表现而备受关注,尤其是在发展中国家。与不同的传统重金属去除方法相比,蓝藻介导的重金属去除是一种潜在的方法,因为它是一种具有成本效益、原位可操作和绿色化学的方法。它们是多向金属螯合操作的优秀工具,因为它们可以通过生物吸附和生物累积同时螯合金属。生物吸附是一种细胞表面现象,而生物积累发生在细胞内部。本研究深入综述了蓝藻如何通过这两个过程从环境水体中螯合重金属离子,以及蓝藻对金属毒性的防御机制。此外,在蓝藻细胞壁的不同成分中,这种蓝绿藻主要通过胞外多糖(EPS)吸收金属离子。本文讨论了EPS生物合成的几种途径,以了解生产这种令人难以置信的聚合物的潜在工程方法,这有助于其金属离子吸附性能。此外,我们比较了不同蓝藻物种在不同环境条件下从水中螯合重金属的能力。Limnococcusp、Nostomuscorum和Synechococcus sp.PCC 7942显示出基于重金属去除、通过生物吸附和生物累积去除多种金属以及接触时间的最佳效率。最后,我们首次讨论了生物钟在蓝藻金属离子螯合过程中的应用,这可能揭示了蓝藻螯合金属离子的分子水平机制和不同的防御机制。图形摘要
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cyanobacteria mediated heavy metal removal: a review on mechanism, biosynthesis, and removal capability
ABSTRACT Heavy metal in wastewater is a crucial concern due to its toxicological manifestations on human health, particularly in developing countries. Compared to different conventional heavy metal removal methods, cyanobacteria mediated heavy metal removal is a potential method, as it is a cost-effective, in situ operable, and green chemistry approach. They are excellent tools for multidirectional metal sequestration operations as they can simultaneously sequester metal through biosorption and bioaccumulation. Biosorption is a cell surface phenomenon, whereas bioaccumulation occurs inside the cell. This study reviewed deeply how cyanobacteria sequester heavy metal ions by these two processes from an ambient water body and the defense mechanism of cyanobacteria against metal-induced toxicity. Further, among the different components of the cyanobacteria's cell wall, this blue–green algae biosorb the metal ion mainly through Exopolysaccharide (EPS). The article discusses several pathways of EPS biosynthesis to know the potential engineering approach for producing this incredible polymer, which facilitates its metal ion adsorption property. Furthermore, we compare different cyanobacterial species’ ability to sequester heavy metals from water in different environmental conditions. Limnococcussp, Nostocmuscorum, and Synechococcus sp. PCC 7942 shows optimum efficiency based on heavy metal removal, multi-metal removal by biosorption and bioaccumulation, and contact time. Finally we for the first time, discussed the circadian clock application in the cyanobacterial metal ion sequestration process, which might disclose the molecular-level mechanisms of cyanobacteria to sequester metal ions and different defense mechanisms. GRAPHICAL ABSTRACT
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来源期刊
Environmental Technology Reviews
Environmental Technology Reviews Environmental Science-Water Science and Technology
CiteScore
6.90
自引率
0.00%
发文量
8
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