Interactions of microplastics with heavy metals in the aquatic environment: Mechanisms and mitigation

IF 9.1 Q2 ENGINEERING, ENVIRONMENTAL
Atta Rasool, Jan Halfar, Kateřina Brožová, Kristina Čabanová, Jitka Chromíková, Petra Malíková, Oldřich Motyka, Eva Pertile, Silvie Drabinová, Silvie Heviánková
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引用次数: 0

Abstract

Microplastics (MPs) and heavy metals (HMs) are significant pollutants in aquatic ecosystems, posing substantial risks to both environmental and human health. Despite growing research interest, the quantitative understanding of MPs-HMs interactions remains limited due to methodological inconsistencies and insufficient cross-study data synthesis. This review presents a data-driven and mechanistic evaluation of these interactions, focusing on sorption and desorption mechanisms and the impact of key physicochemical parameters, including pH, salinity, temperature, and dissolved organic matter. Experimental data are analyzed to reveal trends in adsorption capacity across different polymers, particle sizes, and metal species. The review also synthesizes toxicological effects on aquatic organisms and humans and assesses recent advances in modeling and remediation approaches. Hybrid techniques integrating conventional and emerging technologies show promise for the simultaneous removal of MPs and HMs, though challenges persist for large-scale implementation. By linking quantitative trends with mechanistic insights, this review identifies critical knowledge gaps, outlines directions for future experimental validation, and supports the development of standardized protocols for environmental monitoring, risk assessment, and remediation.

Abstract Image

水生环境中微塑料与重金属的相互作用:机制和缓解
微塑料(MPs)和重金属(HMs)是水生生态系统中的重要污染物,对环境和人类健康构成重大风险。尽管研究兴趣日益浓厚,但由于方法不一致和交叉研究数据合成不足,对MPs-HMs相互作用的定量理解仍然有限。本文综述了这些相互作用的数据驱动和机制评价,重点关注吸附和解吸机制以及关键物理化学参数(包括pH,盐度,温度和溶解有机质)的影响。实验数据进行分析,以揭示趋势的吸附能力跨越不同的聚合物,颗粒大小,和金属物种。该综述还综合了对水生生物和人类的毒理学影响,并评估了模拟和补救方法的最新进展。结合传统技术和新兴技术的混合技术有望同时去除MPs和HMs,尽管大规模实施仍然存在挑战。通过将定量趋势与机制见解联系起来,本综述确定了关键的知识差距,概述了未来实验验证的方向,并支持制定环境监测、风险评估和补救的标准化方案。
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来源期刊
Journal of hazardous materials advances
Journal of hazardous materials advances Environmental Engineering
CiteScore
4.80
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