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一种新型的圆形方法来分析与微纳米塑料相关的挑战及其可持续修复技术。

A novel circular approach to analyze the challenges associated with micro-nano plastics and their sustainable remediation techniques.

机构信息

Resource Management Lab, Department of Environmental Science & Engineering, SRM University AP, Amaravati, India.

Department of Chemistry, Sardar Patel University, Mandi, India.

出版信息

J Environ Sci Health A Tox Hazard Subst Environ Eng. 2023;58(7):694-705. doi: 10.1080/10934529.2023.2208507. Epub 2023 May 7.

Abstract

The mismanagement of consumer-discarded plastic waste (CDPW) has raised global environmental concerns about climate change. The COVID-19 outbreak has generated ∼1.6 million tons of plastic waste per day in the form of personal protective equipment (masks, gloves, face shields, and sanitizer bottles). These plastic wastes are either combustible or openly dumped in aquatic and terrestrial environments. Open dumping upsurges emerging contaminants like micro-nano plastics (MNPs) that directly enter the ecosystem and cause severe impacts on flora and fauna. Therefore, it has become an utmost priority to determine sustainable technologies that can degrade or treat MNPs from the environment. The present review assesses the sources and impacts of MNPs, various challenges, and issues associated with their remediation techniques. Accordingly, a novel sustainable circular model is recommended to increase the degradation efficiency of MNPs using biochemical and biological methods. It is also concluded that the proposed model does not only overcome environmental issues but also provides a sustainable secondary resource to meet the sustainable development goals (SDGs).

摘要

消费者丢弃的塑料废物(CDPW)管理不善引起了全球对气候变化的环境关注。COVID-19 大流行每天以个人防护设备(口罩、手套、面罩和消毒剂瓶)的形式产生约 160 万吨塑料废物。这些塑料废物要么是可燃的,要么是露天倾倒在水和陆地环境中。露天倾倒激增了新兴污染物,如微纳米塑料(MNPs),这些污染物直接进入生态系统,对动植物造成严重影响。因此,确定能够降解或处理环境中 MNPs 的可持续技术已成为当务之急。本综述评估了 MNPs 的来源和影响、各种挑战以及与修复技术相关的问题。相应地,建议采用一种新的可持续循环模型,利用生化和生物学方法来提高 MNPs 的降解效率。结论还表明,所提出的模型不仅克服了环境问题,而且还提供了可持续的二次资源,以实现可持续发展目标(SDGs)。

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