Spatial Patterns of Plastic Debris along Estuarine Shorelines
Environmental Science & Technology2010
1202 citations
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Score: 60
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Tamara S. Galloway
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Mark A. Oakley Browne,
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Mark A. Oakley Browne,
Tamara S. Galloway
Mark A. Oakley Browne,
Tamara S. Galloway
Tamara S. Galloway
Mark A. Oakley Browne,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Richard C. Thompson,
Richard C. Thompson,
Richard C. Thompson,
Richard C. Thompson,
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
Mark A. Oakley Browne,
Mark A. Oakley Browne,
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
Richard C. Thompson,
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
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
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
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
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Richard C. Thompson,
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Tamara S. Galloway
Summary
Researchers mapped plastic debris distribution along an estuary in the UK and found that microplastics made up 65% of all debris collected. Wind patterns and water flow influenced where plastics accumulated, with downwind locations acting as collection points, and the study used infrared spectroscopy to identify the specific types of polymers present.
The human population generates vast quantities of waste material. Macro (>1 mm) and microscopic (<1 mm) fragments of plastic debris represent a substantial contamination problem. Here, we test hypotheses about the influence of wind and depositional regime on spatial patterns of micro- and macro-plastic debris within the Tamar Estuary, UK. Debris was identified to the type of polymer using Fourier-transform infrared spectroscopy (FT-IR) and categorized according to density. In terms of abundance, microplastic accounted for 65% of debris recorded and mainly comprised polyvinylchloride, polyester, and polyamide. Generally, there were greater quantities of plastic at downwind sites. For macroplastic, there were clear patterns of distribution for less dense items, while for microplastic debris, clear patterns were for denser material. Small particles of sediment and plastic are both likely to settle slowly from the water-column and are likely to be transported by the flow of water and be deposited in areas where the movements of water are slower. There was, however, no relationship between the abundance of microplastic and the proportion of clay in sediments from the strandline. These results illustrate how FT-IR spectroscopy can be used to identify the different types of plastic and in this case was used to indicate spatial patterns, demonstrating habitats that are downwind acting as potential sinks for the accumulation of debris.