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A review in the current developments of genus Dehalococcoides, its consortia and kinetics for bioremediation options of contaminated groundwater

机译: Dehalococcoides 的最新进展,其财团和动力学研究受污染地下水的生物修复方法综述

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This article reviews the current developments in genus Dehalococcoides as key dechlorinating bacteria in chlorinated ethene contaminated sites. The presence of chlorinated ethenes in environment had been a concern for more than five decades as it represents significant threat to human and ecological health due to its extreme toxicity. This review elucidates the kinetics of Dehalococcoides spp. growth and compound utilization in dechlorination of chlorinated ethenes compounds. The metabolic pathways in physiology of Dehalococcoides spp. are important in the transformation of chlorinated species. The potential of isolates and its reductive dehalogenase genes are seen to infer activities of Dehalococcoides spp. that would be used to the development of engineered systems. This system is helpful in making decision on bioremediation option to treat the contaminated groundwater. Hence, the role of Dehalococcoides spp. in chlorinated ethene biodegradation is controlled by kinetics in complex ways. Therefore, intensive in-situ characterization and understanding the microbial growth on dechlorination evaluation are essential to develop a consistent and rational engineered system. This is to achieve a successful bioremediation strategies for sites contaminated with chlorinated ethenes.
机译:本文回顾了脱卤球菌属的最新进展,认为这是氯化乙烯污染场地中的关键脱氯细菌。超过五十年来,环境中一直存在着氯化乙烯,这是因为它的极高毒性对人类和生态健康构成了重大威胁。这项审查阐明了Dehalococcoides spp的动力学。氯化乙烯化合物脱氯过程中的生长和化合物利用。 Dehalococcoides spp的生理代谢途径。在氯化物种的转化中很重要。分离物及其还原性脱卤素酶基因的潜力被认为可以推断Dehalococcoides spp的活性。将用于开发工程系统。该系统有助于做出生物修复方案来处理受污染的地下水。因此,Dehalococcoides spp的作用。氯乙烯的生物降解过程通过动力学以复杂的方式控制。因此,深入的原位表征和了解脱氯评估中的微生物生长对于开发一致,合理的工程系统至关重要。这是针对被氯化乙烯污染的场所实现成功的生物修复策略。

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