Comparison of the Uptake of Tire Particles via Suspension and Surface Deposit Feeding in the Estuarine Amphipod <i>Corophium volutator</i>
Environmental Science & Technology2025
2 citations
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Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Penelope K. Lindeque
Charlotte Woodhouse,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Penelope K. Lindeque
Charlotte Woodhouse,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Charlotte Woodhouse,
Charlotte Woodhouse,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Geoffrey D. Abbott,
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Geoffrey D. Abbott,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Geoffrey D. Abbott,
Penelope K. Lindeque
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Charlotte Woodhouse,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Tamara S. Galloway,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Matthew Cole,
Tamara S. Galloway,
Penelope K. Lindeque
Matthew Cole,
Tamara S. Galloway,
Tamara S. Galloway,
Penelope K. Lindeque
Summary
Researchers exposed a common estuarine amphipod to tire wear particles at environmentally relevant concentrations and compared how much the animals consumed through two different feeding methods. They found that suspension feeding resulted in significantly higher ingestion of tire particles compared to surface deposit feeding, with particles also adhering to antennae and other body parts. The study helps clarify how bottom-dwelling coastal organisms encounter and take in tire-derived microplastic pollution.
Tire particles have been reported as a major source of microplastic pollution for aquatic environments, but interactions between biota and tire particles remain uncertain. In this study, we exposed the estuarine amphipod <i>Corophium volutator</i> to environmentally relevant concentrations of tire particles to quantify the ingestion and adherence of tire particles via two different feeding modes: suspension feeding and surface deposit feeding. <i>C. volutator</i> were placed into exposure treatments relevant to each feeding mode, dosed with tire particles (0.1 g/L). In both treatments, tire particles were found to be adhered and ingested by all individuals. In the suspension feeding treatment, individuals ingested significantly higher numbers of tire particles compared to the surface deposit treatment and controls (GLMM, <i>p</i> < 0.001). <i>C. volutator</i> had significantly higher numbers of adhered particles to the antenna compared to other body parts (Kruskal-Wallis, df = 6, <i>p</i> < 0.001). The impact of anthropogenic particle adherence upon biota is poorly elucidated, but an array of adverse outcome pathways are postulated based on existing literature. The outcomes of this study will help to elucidate the exposure of biota to tire particles in benthic estuarine and coastal environments.