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Environmental Sources
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Microplastic shape influences fate in vegetated wetlands
Zenodo (CERN European Organization for Nuclear Research)2024
Score: 35
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Matthew Cole,
Penelope K. Lindeque
Hayley Mcilwraith,
Hayley Mcilwraith,
Hayley Mcilwraith,
Penelope K. Lindeque
Hayley Mcilwraith,
Hayley Mcilwraith,
Penelope K. Lindeque
Hayley Mcilwraith,
Hayley Mcilwraith,
Hayley Mcilwraith,
Hayley Mcilwraith,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
T.J. Tolhurst,
T.J. Tolhurst,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
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,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
T.J. Tolhurst,
T.J. Tolhurst,
T.J. Tolhurst,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Anastasia Miliou,
Anastasia Miliou,
Anastasia Miliou,
Anastasia Miliou,
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Anastasia Miliou,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Anastasia Miliou,
Matthew Cole,
Penelope K. Lindeque
Anastasia Miliou,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
T.J. Tolhurst,
Penelope K. Lindeque
T.J. Tolhurst,
T.J. Tolhurst,
T.J. Tolhurst,
T.J. Tolhurst,
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
T.J. Tolhurst,
Anastasia Miliou,
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,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Penelope K. Lindeque
Anastasia Miliou,
T.J. Tolhurst,
Matthew Cole,
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Penelope K. Lindeque
Matthew Cole,
Matthew Cole,
Penelope K. Lindeque
Matthew Cole,
Penelope K. Lindeque
Summary
Researchers investigated how vegetation structure and microplastic type influence microplastic trapping efficiency in a simulated coastal wetland using a flume experiment with branched and grassy vegetation types and a range of microplastic shapes, sizes, and polymers. They found that microplastic shape — rather than polymer type or vegetation presence — was the dominant factor determining whether particles were retained in sediment or adhered to the vegetation canopy.
Study Type
Environmental
Coastal areas are prone to plastic accumulation due to their proximity to land based sources. Coastal vegetated habitats (e.g., seagrasses, saltmarshes, mangroves) provide a myriad of ecosystem functions, such as erosion protection, habitat refuge, and carbon storage. The biological and physical factors that underlie these functions may provide an additional benefit: trapping of marine microplastics. While microplastics occurrence in coastal vegetated sediments is well documented, there is conflicting evidence on whether the presence of vegetation enhances microplastics trapping relative to bare sites. Moreover, the factors that influence the likelihood of microplastic trapping remain understudied. We aimed to investigate how vegetation structure and microplastic type influences trapping in a simulated coastal wetland. Through a flume experiment, we measured the efficiency of microplastic trapping in the presence of two types of vegetation – branched and grassy, and tested an array of microplastics that differ in shape, size, and polymer. We observed that the presence of vegetation did not affect the number of microplastics trapped but did affect location of deposition. Microplastic shape, rather than polymer, was the dominant factor in determining whether microplastics were retained in the sediment or adhered to the vegetation canopy. The outcome of this study enriches our understanding of coastal vegetation as a microplastics sink and that differences among microplastics informs where they are most likely to accumulate within a biogenic canopy. Also see: https://micro2024.sciencesconf.org/557071/document