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Original research — experimental, observational, or case-control study. Direct primary evidence.
Environmental Sources
Marine & Wildlife
Remediation
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How many microplastic particles are present in Canadian biosolids?
Journal of Environmental Quality2023
31 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 50
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Branaavan Sivarajah,
Branaavan Sivarajah,
Jennifer F. Provencher,
Jesse C. Vermaire
Jesse C. Vermaire
David R. Lapen,
David R. Lapen,
David R. Lapen,
Jennifer F. Provencher,
Jennifer F. Provencher,
David R. Lapen,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jesse C. Vermaire
Jennifer F. Provencher,
Jesse C. Vermaire
Jesse C. Vermaire
Jesse C. Vermaire
Jesse C. Vermaire
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Sarah B. Gewurtz,
David R. Lapen,
Jennifer F. Provencher,
David R. Lapen,
Jesse C. Vermaire
Jesse C. Vermaire
David R. Lapen,
Jesse C. Vermaire
David R. Lapen,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
David R. Lapen,
David R. Lapen,
Jesse C. Vermaire
Shirley Anne Smyth,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jesse C. Vermaire
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
David R. Lapen,
David R. Lapen,
Branaavan Sivarajah,
Jennifer F. Provencher,
Branaavan Sivarajah,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
David R. Lapen,
David R. Lapen,
Jennifer F. Provencher,
David R. Lapen,
David R. Lapen,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jesse C. Vermaire
Jennifer F. Provencher,
Jennifer F. Provencher,
Jesse C. Vermaire
Summary
Researchers quantified microplastic particles in Canadian biosolids from wastewater treatment plants across multiple provinces, providing broader national estimates of microplastic concentrations that enter terrestrial ecosystems through agricultural land application.
Application of treated sewage sludge (biosolids) from wastewater treatment plants (WWTPs) to farmlands is an important pathway through which microplastic particles (MPs) enter terrestrial ecosystems. Yet, microplastic concentrations in Canadian biosolids have only been estimated in samples from four WWTPs previously. We aimed to fill this knowledge gap by quantifying microplastics in biosolids from 22 WWTPs located in nine provinces and two commercial fertilizer producers in Canada. All samples had substantial microplastic concentrations ranging from 228 to 1353 particles per gram dry weight (median = 636 particles), which are orders of magnitude greater than MPs reported from earlier investigations of biosolids from other countries. Fibers (median: 86%) were the most common type of MPs observed, followed by fragments (median: 13%). There were no statistically significant differences in the amount of microplastics observed in the biosolids from different geographical regions, WWTP types, and sludge treatment processes. This suggests that diverse combinations of local sewershed characteristics, site-specific treatment approaches, and daily flow at WWTPs may be influencing concentrations of microplastics in biosolids. Our results indicate that microplastic concentrations in biosolids are substantially higher than they are in other environmental matrices, and this has important implications to managing microplastic pollution in terrestrial ecosystems.