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Advanced oxidation processes for the elimination of microplastics from aqueous systems: Assessment of efficiency, perspectives and limitations

The Science of The Total Environment 2022 99 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 60 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Maocai Shen, Tong Hu, Maocai Shen, Maocai Shen, Yaxin Zhang, Yaxin Zhang, Biao Song, Biao Song, Tong Hu, Tong Hu, Biao Song, Maocai Shen, Maocai Shen, Maocai Shen, Biao Song, Maocai Shen, Biao Song, Biao Song, Guangming Zeng Biao Song, Maocai Shen, Maocai Shen, Maocai Shen, Biao Song, Biao Song, Biao Song, Biao Song, Biao Song, Biao Song, Biao Song, Biao Song, Chengyun Zhou, Chengyun Zhou, Tong Hu, Guangming Zeng Guangming Zeng Guangming Zeng Guangming Zeng Guangming Zeng Guangming Zeng Yaxin Zhang, Yaxin Zhang, Yaxin Zhang, Biao Song, Guangming Zeng Yaxin Zhang, Tong Hu, Maocai Shen, Maocai Shen, Biao Song, Guangming Zeng Biao Song, Biao Song, Biao Song, Yaxin Zhang, Yaxin Zhang, Biao Song, Biao Song, Guangming Zeng Guangming Zeng Guangming Zeng Maocai Shen, Chengyun Zhou, Guangming Zeng Guangming Zeng Tong Hu, Tong Hu, Chengyun Zhou, Chengyun Zhou, Chengyun Zhou, Tong Hu, Tong Hu, Maocai Shen, Guangming Zeng Guangming Zeng Yaxin Zhang, Guangming Zeng Guangming Zeng Guangming Zeng Guangming Zeng Maocai Shen, Maocai Shen, Maocai Shen, Biao Song, Maocai Shen, Maocai Shen, Maocai Shen, Guangming Zeng Biao Song, Guangming Zeng Yaxin Zhang, Yaxin Zhang, Yaxin Zhang, Yaxin Zhang, Guangming Zeng Maocai Shen, Chengyun Zhou, Chengyun Zhou, Maocai Shen, Guangming Zeng Maocai Shen, Maocai Shen, Maocai Shen, Guangming Zeng Maocai Shen, Maocai Shen, Guangming Zeng Biao Song, Guangming Zeng Guangming Zeng Yaxin Zhang, Yaxin Zhang, Yaxin Zhang, Maocai Shen, Guangming Zeng Yaxin Zhang, Biao Song, Guangming Zeng Chengyun Zhou, Biao Song, Chengyun Zhou, Guangming Zeng Guangming Zeng Guangming Zeng

Summary

This review evaluates advanced oxidation processes as a strategy for breaking down microplastics in water systems, comparing techniques such as photocatalysis, Fenton reactions, and ozonation. Researchers found that while these methods show promise for degrading microplastics into smaller, less harmful molecules, challenges remain in scaling them for practical use. The study identifies key limitations and suggests directions for making these technologies more efficient and applicable to real-world water treatment.

Study Type Environmental

Microplastics act as a vector of heavy metals, organic pollutants, pathogens and resistance genes in the environment further aggravate the pollution of plastics. The conventional wastewater/water treatment processes can physically capture and remove most of microplastics, but the success rates varies. How to quickly remove a large amount of microplastics from aqueous system is a key research topic at present. Recently, advanced oxidation processes (AOPs) as a green elimination strategy has attracted attention because of its effective elimination, strong destruction and safety. The molecular chain of microplastics can be gradually degraded into small molecular organics until HO and CO by strong oxidizing free radical produced by AOPs. Unfortunately, problematically, the elimination of microplastics in aqueous system by AOPs is recently carried out on a laboratory scale. The application and implementation of this strategy are restricted by long reaction time, low liquid phase degradation efficiency and the formation of nanoplastics. Generally, the technology is still in its infancy, and most studies are carried out under laboratory conditions. The degradation of microplastics in aqueous system also needs appropriate conditions, but it is not always feasible under field conditions in AOPs. Although AOPs can be used as a green degradation technology to eliminate microplastics in aqueous systems in theory, it still needs to be furtherly explored in practical application. Consequently, before AOPs as a green elimination strategy is successfully applied to the effective remove microplastics, more in-depth research is still required, such as the setting from single condition to complex environment, the transfer from laboratory scale to field scale, and systematic toxicity evaluation of corresponding products.

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