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Remote, but Not Isolated—Microplastics in the Sub-surface Waters of the Canadian Arctic Archipelago
Frontiers in Marine Science2021
12 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 35
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Kirstie Jones-Williams,
Kirstie Jones-Williams,
Kirstie Jones-Williams,
Kirstie Jones-Williams,
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Victoria L. Peck,
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Clara Manno,
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
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
Clara Manno,
Kirstie Jones-Williams,
Victoria L. Peck,
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Victoria L. Peck,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Victoria L. Peck,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Victoria L. Peck,
Tamara S. Galloway
Victoria L. Peck,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Victoria L. Peck,
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
Tamara S. Galloway
Clara Manno,
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
Clara Manno,
Tamara S. Galloway
Tamara S. Galloway
Clara Manno,
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
Summary
Microplastics were found in subsurface waters throughout the remote Canadian Arctic Archipelago, indicating that plastic pollution has reached even the most isolated polar regions. Increasing Arctic shipping routes may be introducing additional local sources of plastic contamination to these pristine environments.
As the remote Canadian Arctic Archipelago (CAA) becomes increasingly connected to the rest of the world, there is an impetus to monitor the possible impact of this connectivity. The potential for increases in localised sources of plastic pollution resulting from the increasing navigability of the remote north has yet to be explored. Here we investigate microplastic samples which were collected aboard the Canadian Coast Guard Ship (CCGS) Amundsen in the summer of 2018 using the underway pump and a filtration system with Fourier transform infrared analysis. We investigate the character, abundance, and distribution of microplastic particles and fibres in the sub-surface waters across the Canadian Arctic and add to the limited dataset on plastic pollution in this region. We find that there are low concentrations of microplastics ranging from 0 to 0.282 n L –1 (average 0.031 ± 0.017 n L –1 ), comprising 71% polyester and acrylics. We investigate the size distribution of retained particles and fibres on three different filter mesh sizes connected to the underway pump (300, 100, and 50 μm) and find that a 300 μm mesh and a 100 μm mesh retain only 6 and 56%, respectively, of the total particles and fibres. We explore the role of shipping as a potential source of textile fibres and we suggest that future monitoring of plastics in the Canadian Arctic should use the current shipping fleet to monitor its own plastic footprint, utilising the underway pump and mesh sizes < 100 μm.