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Atmospheric microplastic input into wetlands: Spatiotemporal patterns, drivers, and unique ecological impacts

Water Research 2024 16 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 50 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Kang Li, Mengjun Zhang, Libo Xu, Libo Xu, Libo Xu, Libo Xu, Kang Li, Libo Xu, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Xinyi Bai, Matthias C. Rillig Yi Huang, Kang Li, Kang Li, Yi Huang, Kang Li, Matthias C. Rillig Libo Xu, Matthias C. Rillig Matthias C. Rillig Libo Xu, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Mengjun Zhang, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Mengjun Zhang, Mengjun Zhang, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Kang Li, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Xudong Tian, Matthias C. Rillig Libo Xu, Xudong Tian, Xinyi Bai, Xudong Tian, Libo Xu, Libo Xu, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Xinyi Bai, Matthias C. Rillig Min Hu, Kang Li, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Mengjun Zhang, Mengjun Zhang, Matthias C. Rillig Kang Li, Matthias C. Rillig Matthias C. Rillig Kang Li, Kang Li, Matthias C. Rillig Matthias C. Rillig Xinyi Bai, Xinyi Bai, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Xinyi Bai, Matthias C. Rillig Libo Xu, Libo Xu, Libo Xu, Xinyi Bai, Xinyi Bai, Matthias C. Rillig Guangbao Zhang, Kang Li, Guangbao Zhang, Guangbao Zhang, Kang Li, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Mengjun Zhang, Matthias C. Rillig Mengjun Zhang, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Guangbao Zhang, Guangbao Zhang, Matthias C. Rillig Libo Xu, Guangbao Zhang, Matthias C. Rillig Matthias C. Rillig Libo Xu, Matthias C. Rillig Kang Li, Matthias C. Rillig Matthias C. Rillig Guangbao Zhang, Kang Li, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Mengjun Zhang, Matthias C. Rillig Matthias C. Rillig Mengjun Zhang, Matthias C. Rillig Yi Huang, Guangbao Zhang, Matthias C. Rillig Yi Huang, Matthias C. Rillig Matthias C. Rillig Guangbao Zhang, Matthias C. Rillig Kang Li, Matthias C. Rillig Kang Li, Mengjun Zhang, Matthias C. Rillig Min Hu, Yi Huang, Mengjun Zhang, Mengjun Zhang, Mengjun Zhang, Matthias C. Rillig Matthias C. Rillig Yi Huang, Matthias C. Rillig Xudong Tian, Matthias C. Rillig Matthias C. Rillig Guangbao Zhang, Matthias C. Rillig Xinyi Bai, Min Hu, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Min Hu, Yi Huang, Yi Huang, Yi Huang, Yi Huang, Yi Huang, Xudong Tian, Xinyi Bai, Kang Li, Mengjun Zhang, Mengjun Zhang, Mengjun Zhang, Min Hu, Mengjun Zhang, Yi Huang, Matthias C. Rillig Yi Huang, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Yi Huang, Min Hu, Xudong Tian, Yi Huang, Yi Huang, Yi Huang, Matthias C. Rillig Yi Huang, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Yi Huang, Yi Huang, Yi Huang, Yi Huang, Min Hu, Min Hu, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Yi Huang, Matthias C. Rillig Yi Huang, Yi Huang, Min Hu, Matthias C. Rillig Min Hu, Min Hu, Min Hu, Yi Huang, Matthias C. Rillig Matthias C. Rillig Min Hu, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Yi Huang, Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig Matthias C. Rillig

Summary

Researchers monitored atmospheric microplastic deposition across 11 cities along China's lower Yangtze River Basin over four seasons. They found an average deposition rate of 512 items per square meter per day, equivalent to an estimated 17.46 metric tons of plastic annually entering the surveyed wetlands. Vehicle density and the textile industry were identified as primary drivers, and experiments showed that deposited microplastics altered moss bacterial communities, suggesting ecological impacts on wetland ecosystems.

Study Type Environmental

Wetlands are major microplastic sinks with a large atmospheric input. However, many details of such deposited atmospheric microplastics entering into wetlands remain unclear, including temporal patterns of input and ecological effects. We monitored the aerial microplastics during four seasons in eleven economically developed cities along the lower reaches of the Yangtze River Basin, China. The average microplastic deposition rate was 512.31 items m d, equivalent to an annual contribution of 17.46 metric tons of plastic to the surveyed wetlands with a total area of 1652 km. These microplastics were predominantly composed of polyamide and polyethylene terephthalate with 61.85 ± 92.29 µm sized pellets, and we obtained similar results for microplastics intercepted on moss in wetlands. Microplastic input varied between wet and dry periods, primarily influenced by wind, rainfall and ozone concentration. Civilian vehicle density and textile industry were the primary socioeconomic factors driving microplastic deposition. Further indoor microcosm experiments revealed that moss phyllosphere bacterial community structure and function were influenced by microplastic abundance and size, exemplifying the unique ecological risks of aerially deposited microplastics to wetlands. These results indicate that mosses and their phyllosphere microbiota could serve as bio-indicators of aerial microplastic characteristics and impacts.

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