Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model

Microplastics are ubiquitous in the marine environment and are now consistently found in almost all marine animals. This study examines the rate of accumulation in a modelled filter feeder (mussels) both from direct uptake of microplastics and from direct uptake in addition to trophic uptake (via co...

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Main Authors: Griffin, R.L., Green, Iain D., Stafford, Rick
Format: Article in Journal/Newspaper
Language:English
Published: 2018
Subjects:
Online Access:http://eprints.bournemouth.ac.uk/30602/
https://eprints.bournemouth.ac.uk/30602/3/Griffin-et-al-Ecological-Informatics-2018.pdf
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spelling ftunivbournem:oai:eprints.bournemouth.ac.uk:30602 2023-06-11T04:10:30+02:00 Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model Griffin, R.L. Green, Iain D. Stafford, Rick 2018-04-24 application/pdf http://eprints.bournemouth.ac.uk/30602/ https://eprints.bournemouth.ac.uk/30602/3/Griffin-et-al-Ecological-Informatics-2018.pdf en eng https://eprints.bournemouth.ac.uk/30602/3/Griffin-et-al-Ecological-Informatics-2018.pdf Griffin, R.L., Green, I. D. and Stafford, R., 2018. Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model. Ecological Informatics: An International Journal on Ecoinformatics and Computational Ecology, 45 (May), 81-84. cc_by_nc_nd_4 Article PeerReviewed 2018 ftunivbournem 2023-05-28T05:43:01Z Microplastics are ubiquitous in the marine environment and are now consistently found in almost all marine animals. This study examines the rate of accumulation in a modelled filter feeder (mussels) both from direct uptake of microplastics and from direct uptake in addition to trophic uptake (via consuming plankton which have consumed microplastic themselves). We show that trophic uptake plays an important role in increasing plastic present in filter feeders, especially when consumption of the plastic does not reduce its overall abundance in the water column (e.g. in areas with high water flow such as estuaries). However, we also show that trophic transfer increases microplastic uptake, even if the amount of plastic is limited and depleted, as long as plankton are able to reproduce (for example, as would happen during a plankton bloom). If both plankton and plastic are limited and reduced in concentration by filter feeding, then no increase in microplastic by trophic transfer occurs, but microplastic still enters the filter feeders. The results have important implications for large filter feeders such as baleen whales, basking and whale sharks, as these animals concentrate their feeding on zooplankton blooms and as a result are likely to consume more plastic than previous studies have predicted. Article in Journal/Newspaper baleen whales Bournemouth University Research Online (BURO)
institution Open Polar
collection Bournemouth University Research Online (BURO)
op_collection_id ftunivbournem
language English
description Microplastics are ubiquitous in the marine environment and are now consistently found in almost all marine animals. This study examines the rate of accumulation in a modelled filter feeder (mussels) both from direct uptake of microplastics and from direct uptake in addition to trophic uptake (via consuming plankton which have consumed microplastic themselves). We show that trophic uptake plays an important role in increasing plastic present in filter feeders, especially when consumption of the plastic does not reduce its overall abundance in the water column (e.g. in areas with high water flow such as estuaries). However, we also show that trophic transfer increases microplastic uptake, even if the amount of plastic is limited and depleted, as long as plankton are able to reproduce (for example, as would happen during a plankton bloom). If both plankton and plastic are limited and reduced in concentration by filter feeding, then no increase in microplastic by trophic transfer occurs, but microplastic still enters the filter feeders. The results have important implications for large filter feeders such as baleen whales, basking and whale sharks, as these animals concentrate their feeding on zooplankton blooms and as a result are likely to consume more plastic than previous studies have predicted.
format Article in Journal/Newspaper
author Griffin, R.L.
Green, Iain D.
Stafford, Rick
spellingShingle Griffin, R.L.
Green, Iain D.
Stafford, Rick
Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model
author_facet Griffin, R.L.
Green, Iain D.
Stafford, Rick
author_sort Griffin, R.L.
title Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model
title_short Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model
title_full Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model
title_fullStr Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model
title_full_unstemmed Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model
title_sort accumulation of marine microplastics along a trophic gradient as determined by an agent-based model
publishDate 2018
url http://eprints.bournemouth.ac.uk/30602/
https://eprints.bournemouth.ac.uk/30602/3/Griffin-et-al-Ecological-Informatics-2018.pdf
genre baleen whales
genre_facet baleen whales
op_relation https://eprints.bournemouth.ac.uk/30602/3/Griffin-et-al-Ecological-Informatics-2018.pdf
Griffin, R.L., Green, I. D. and Stafford, R., 2018. Accumulation of marine microplastics along a trophic gradient as determined by an Agent-Based Model. Ecological Informatics: An International Journal on Ecoinformatics and Computational Ecology, 45 (May), 81-84.
op_rights cc_by_nc_nd_4
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