Seabed microplastics in the European continental shelf: Unravelling physical and biological transport pathways and reciprocal fauna–Polymer relationships

Marine sediments are recognized as major sinks for microplastics, including remote areas which were previously considered “plastic-free”. The understanding of microplastic dynamics in marine sediments is however limited due to the numerous pelagic and benthic pathways involved, and how these are inf...

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Veröffentlicht in:Environmental pollution (1987) 2025-01, Vol.365, p.125392, Article 125392
Hauptverfasser: Pantó, G., Vanreusel, A., Vercauteren, M., Asselman, J., Van Colen, C.
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container_issue
container_start_page 125392
container_title Environmental pollution (1987)
container_volume 365
creator Pantó, G.
Vanreusel, A.
Vercauteren, M.
Asselman, J.
Van Colen, C.
description Marine sediments are recognized as major sinks for microplastics, including remote areas which were previously considered “plastic-free”. The understanding of microplastic dynamics in marine sediments is however limited due to the numerous pelagic and benthic pathways involved, and how these are influenced by physico-chemical interactions with the particles. European continental shelves border densely populated areas and face a high risk of microplastic contamination. In this study we quantified microplastics in soft-sediments of European coastal seas and characterized their polymer composition separating surface sediments from deeper layers. We then analyzed the influence of water column and sediment properties on spatial variability of seabed microplastics and investigated the relationship with macrofauna communities. A higher proportion of negatively buoyant polymers in surface sediments (0–1 cm) across stations was explained by seawater salinity and sediment microalgal detritus, highlighting the role of riverine input and possibly the formation of hetero-aggregates in defining polymer deposition. Additionally, we found that seawater temperature influenced polymer composition in deeper sediment layers (0–3 cm), likely together with biological activities performed by macrobenthos such as ingestion and burial. Finally, we demonstrate that seabed microplastics contribute to the spatial variability in macrobenthos, highlighting that marine ecosystem functioning effects of microplastic pollution are likely mediated via the benthos. [Display omitted] •River proximity and polymer density explain spatial variability in microplastics•Phytodetritus aggregates can influence polymer composition in shelf sediments•Seabed microplastics partly explain spatial distribution of shelf benthos
doi_str_mv 10.1016/j.envpol.2024.125392
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ispartof Environmental pollution (1987), 2025-01, Vol.365, p.125392, Article 125392
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subjects Animals
Aquatic Organisms
benthic organisms
Biological Transport
continental shelf
detritus
Ecosystem
Environmental Monitoring
Europe
fauna
Geologic Sediments - chemistry
ingestion
marine ecosystems
microalgae
microplastics
Microplastics - analysis
physiological transport
Plastics - analysis
pollution
Polymers
riparian areas
risk
salinity
seawater
Seawater - chemistry
sediments
temperature
Water Pollutants, Chemical - analysis
title Seabed microplastics in the European continental shelf: Unravelling physical and biological transport pathways and reciprocal fauna–Polymer relationships
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