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Microplastics in urban water cycles: Looking for a more scientific approach for sampling and characterization in wastewater and drinking water treatment plants

The Science of The Total Environment 2024 9 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 45 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Francesco Regoli Lucia Pittura, Francesco Regoli Lucia Pittura, Lucia Pittura, Francesco Regoli Alessia Foglia, Alessia Foglia, Francesco Regoli Alessia Foglia, Alessia Foglia, Stefania Gorbi, Lucia Pittura, Lucia Pittura, Massimiliano Sgroi, Alessia Foglia, Alessia Foglia, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Lucia Pittura, Francesco Regoli Lucia Pittura, Lucia Pittura, Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Alessia Foglia, Veronica Vivani, Francesco Regoli Massimiliano Sgroi, Francesco Regoli Francesco Regoli Massimiliano Sgroi, Francesco Regoli Veronica Vivani, Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Lucia Pittura, Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Anna Laura Eusebi, Stefania Gorbi, Lucia Pittura, Francesco Regoli Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Lucia Pittura, Francesco Regoli Anna Laura Eusebi, Stefania Gorbi, Lucia Pittura, Lucia De Simoni, Francesco Regoli Stefania Gorbi, Francesco Regoli Lucia De Simoni, Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Stefania Gorbi, Lucia Pittura, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Anna Laura Eusebi, Anna Laura Eusebi, Francesco Regoli Francesco Regoli Francesco Regoli Anna Laura Eusebi, Francesco Regoli Francesco Regoli Francesco Fatone, Francesco Regoli Francesco Regoli Stefania Gorbi, Francesco Regoli Francesco Regoli Francesco Regoli Stefania Gorbi, Stefania Gorbi, Francesco Fatone, Anna Laura Eusebi, Francesco Regoli Stefania Gorbi, Francesco Regoli Francesco Regoli Lucia Pittura, Francesco Regoli Stefania Gorbi, Francesco Regoli Francesco Regoli Francesco Regoli Francesco Regoli Lucia Pittura, Francesco Regoli Francesco Fatone, Francesco Fatone, Francesco Regoli Francesco Regoli Francesco Fatone, Francesco Regoli Stefania Gorbi, Francesco Fatone, Stefania Gorbi, Francesco Regoli Francesco Regoli Stefania Gorbi, Francesco Regoli Anna Laura Eusebi, Francesco Regoli Francesco Regoli Anna Laura Eusebi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Stefania Gorbi, Lucia Pittura, Francesco Regoli Lucia Pittura, Stefania Gorbi, Francesco Regoli Lucia Pittura, Francesco Regoli Francesco Regoli Francesco Regoli Stefania Gorbi, Stefania Gorbi, Lucia Pittura, Stefania Gorbi, Lucia Pittura, Francesco Regoli

Summary

Researchers monitored microplastics in urban water cycles across three drinking water plants and two wastewater treatment plants using a self-designed large-volume sampler that collected up to 1,000 liters per sample. Raw drinking water and wastewater contained 2 or more microplastic particles per liter, highlighting contamination across the urban water system.

Study Type Environmental

Specific campaigns to detect microplastics (MPs) in the urban water cycle were carried out in three drinking water plants and two wastewater treatment plants. A self-designed sampler for MPs detection in water matrices was in this study preliminary validated and then tested in long term campaigns sampling up to 1000 L. Raw drinking water and wastewater show microplastics (MPs) concentrations of 2-11 and of 480-801 MPs/m, respectively, and MPs removals of 47-78 % and of 84-98 %, correspondingly. Specific roles of chemical and physical conventional processes in microplastics removals were investigated. Solid-liquid separation, flotation and filtration are the main processes for achieving high microplastics removal. Regarding concentrated matrices, MPs concentrations in sludge samples varied in the range of 5000-500,000 MPs/m. Finally, shapes, size classes and polymers' typologies were investigated in the extracted MPs. The detected sizes are mainly 0.5-0.1 mm in drinking waters while 5-1 mm in wastewaters. Wastewaters were predominated by synthetic fibers (polyester type), while drinking waters were mainly characterized by fragments and the fibers were mostly of natural origin. Finally, the results of this study supported best practices and guidelines for a representative assessment of MPs in water (sampling methods, extraction procedures, characterization and quantification).

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