Seabirds in crisis: Plastic ingestion induces proteomic signatures of multiorgan failure and neurodegeneration

Understanding plastics' harmful impacts on wildlife would benefit from the application of hypothesis agnostic testing commonly used in medical research to detect declines in population health. Adopting a data-driven, proteomic approach, we assessed changes in 745 proteins in a free-living nonmodel organism with differing levels of plastic exposure. Seabird chicks heavily affected by plastic ingestion demonstrated a range of negative health consequences: Intracellular components that should not be found in the blood were frequently detected, indicative of cell lysis. Secreted proteins were less abundant, indicating that the stomach, liver, and kidneys are not functioning as normal. Alarmingly, these signatures included evidence of neurodegeneration in <90-day-old seabird chicks with high levels of ingested plastic. The proteomic signatures reflect the effects of plastic distal to the site of exposure (i.e., the stomach). Notably, metrics commonly used to assess condition in wildlife (such as body mass) do not provide an accurate description of health or the impacts of plastic ingestion.

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Publication Details

Journal
Science Advances
Published
2025-03-12
DOI
https://doi.org/10.1126/sciadv.ads0834
Citations
19
Primary Topic
Microplastics and Plastic Pollution
Type
article
Field-Weighted Citation Impact
9.57
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article

Seabirds in crisis: Plastic ingestion induces proteomic signatures of multiorgan failure and neurodegeneration

Alix M. de Jersey, Jennifer L. Lavers, Richard Wilson, Graeme R. Zosky et al.
19 citations
Science Advances
Microplastics and Plastic Pollution
9.57
article

Seabirds in crisis: Plastic ingestion induces proteomic signatures of multiorgan failure and neurodegeneration

Alix M. de Jersey, Jennifer L. Lavers, Richard Wilson, Graeme R. Zosky, Jack Rivers‐Auty, Alexander L. Bond
article en
19 citations

Abstract

Understanding plastics' harmful impacts on wildlife would benefit from the application of hypothesis agnostic testing commonly used in medical research to detect declines in population health. Adopting a data-driven, proteomic approach, we assessed changes in 745 proteins in a free-living nonmodel organism with differing levels of plastic exposure. Seabird chicks heavily affected by plastic ingestion demonstrated a range of negative health consequences: Intracellular components that should not be found in the blood were frequently detected, indicative of cell lysis. Secreted proteins were less abundant, indicating that the stomach, liver, and kidneys are not functioning as normal. Alarmingly, these signatures included evidence of neurodegeneration in <90-day-old seabird chicks with high levels of ingested plastic. The proteomic signatures reflect the effects of plastic distal to the site of exposure (i.e., the stomach). Notably, metrics commonly used to assess condition in wildlife (such as body mass) do not provide an accurate description of health or the impacts of plastic ingestion.

Science AdvancesVol. 11(11)
University of Tasmania (AU), Natural History Museum (GB), Charles Sturt University (AU), Tharawal Aboriginal (AU), Tasmanian Land Conservancy (AU)
Life below water
Openalex Percentile: Top 1%
Microplastics and Plastic Pollution
9.57
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