微塑料影响土壤氮转化的关键因素和机制:综述

Shutao Wang , Wanqing Wang , Sashuang Rong , Guiming Liu , Yuxin Li , Xinxin Wang , Wei Liu
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引用次数: 0

摘要

微塑料(MPs)能深刻改变土壤中的氮转化,这是不争的事实。然而,人们对微塑料如何影响土壤氮转化过程仍然知之甚少。本综述系统分析了近年来发表的有关 MPs 对氮转化影响的文献。在回顾了 MPs 在土壤介质中的环境行为后,阐明了 MPs 影响土壤氮转化的作用机制和关键因素。MPs 的大小、形状、浓度和类型会显著改变氮转化。当 MPs 进入土壤后,它们会通过吸附污染物、释放添加剂和改变土壤理化特性,对土壤微生物的栖息地和多样性以及土壤氮的转化产生重大影响。作为有机基质,MPs 可通过促进微生物定殖直接影响微生物群落结构。此外,MPs 与细胞表面直接接触也会对土壤微生物产生毒性。与氮转化相关的微生物、关键酶和功能基因会对 MPs 的存在做出反应,从而影响氮转化过程。最后,文章提出了减轻土壤中 MPs 污染的措施。文章强调了 MPs 对土壤氮转化因子的影响,从而对 MP 污染土壤中微生物介导的氮转化过程提出了有价值的见解。它为确定受 MPs 污染土壤中的氮调节和评估生态风险提供了有用的信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Key factors and mechanisms of microplastics’ effects on soil nitrogen transformation: A review

It is indisputable that microplastics (MPs) can profoundly alter nitrogen transformation in soil. However, it remains poorly understood how MPs impact soil nitrogen processes. This review systematically analyzed literature published in recent years related to the impact of MPs on nitrogen transformation. After reviewing the environmental behavior of MPs in soil media, the mechanisms of action and key factors of MPs’ effects on soil nitrogen transformation are elucidated. The size, shape, concentration, and type of MPs significantly alter nitrogen transformation. When MPs enter the soil, they can significantly affect the habitat and diversity of soil microorganisms and the transformation of soil nitrogen by adsorbing pollutants, releasing additives, and altering the physicochemical characteristics of the soil. As organic substrates, MPs can directly affect microbial community structure by promoting microbial colonization. Besides, MPs can also be toxic to soil microorganisms by coming into direct contact with cell surfaces. Microorganisms, key enzymes, and functional genes associated with nitrogen transformation respond to the presence of MPs, thereby affecting the nitrogen conversion process. At the last, measures to mitigate soil MPs contamination are suggested. The article highlights the effects of MPs on soil nitrogen transformation factors, leading to valuable insights into microbially-mediated nitrogen transformation processes in MP-contaminated soils. It offers useful information for determining nitrogen regulation and assessing ecological risks in soils contaminated by MPs.

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