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Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Environmental Sources Sign in to save

Microplastic accumulation in a Zostera marina L. bed at Deerness Sound, Orkney, Scotland

Marine Pollution Bulletin 2020 128 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 55 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Mark G.J. Hartl Angela Capper, Angela Capper, Mark G.J. Hartl K. L. Jones, Angela Capper, Mark G.J. Hartl Mark G.J. Hartl Michael Bell, Mark G.J. Hartl Angela Capper, Angela Capper, Angela Capper, Angela Capper, Mark G.J. Hartl Angela Capper, Angela Capper, Angela Capper, Mark G.J. Hartl Mark G.J. Hartl Mark G.J. Hartl Mark G.J. Hartl Mark G.J. Hartl Mark G.J. Hartl Mark G.J. Hartl

Summary

Researchers conducted the first known study of microplastic contamination within a seagrass bed, examining a Zostera marina meadow in Orkney, Scotland. Microplastics were found in 94% of sediment, seagrass blade, water, and biota samples, with fibers making up more than half of all particles detected. The study confirmed that seagrass beds accumulate microplastics and that particles adhere directly to seagrass blades.

Study Type Environmental

Seagrasses have global distribution and are highly productive and economically valuable habitats. They are sensitive and vulnerable to a range of human-induced pressures, including ongoing exposure to marine litter, such as microplastic particles (<5 mm). In this study, a Zostera marina bed in Deerness Sound, Orkney was selected to determine whether microplastics accumulate in seagrass beds and adhere to seagrass blades. Sediment, seagrass blade, biota and seawater samples were collected. 280 microplastic particles (0.04 to 3.95 mm (mean = 0.95 mm ± 0.05 SE)) were observed in 94% of samples collected (n = 111). These were visually categorised into type (fibre, flake, fragment) and colour, and 50 were successfully identified as plastic using ATR-FTIR. Fibres contributed >50% of the total microplastics observed across all samples. This is the first known study on Z. marina to describe microplastic loading within a seagrass bed and to identify microplastic adherence to seagrass blades.

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