Real-time predictions of seabird distribution improve oil spill risk assessments

Current knowledge of the distribution of sensitive seabirds is inadequate to safeguard seabird populations from impacts of oil spills in the Arctic. This gap is mainly driven by the fact that statistical models applied to survey data are coarse-scale and static with limited documentation of the dist...

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Veröffentlicht in:Marine pollution bulletin 2021-09, Vol.170, p.112625-112625, Article 112625
Hauptverfasser: Skov, Henrik, Theophilus, Teo Zhi En, Heinänen, Stefan, Fauchald, Per, Madsen, Mads, Mortensen, Jonas Brandi, Uhrenholdt, Thomas, Thomsen, Frank
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Sprache:eng
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Zusammenfassung:Current knowledge of the distribution of sensitive seabirds is inadequate to safeguard seabird populations from impacts of oil spills in the Arctic. This gap is mainly driven by the fact that statistical models applied to survey data are coarse-scale and static with limited documentation of the distributional dynamics and patchiness of seabirds relevant to risk assessments related to oil spills. This paper describes a dynamic modelling framework solution for prediction of fine-scale densities and movements of seabirds in close-to-real time using fully integrated 3-D hydrodynamic models, dynamic habitat suitability models and agent-based models. The modelling framework has been developed and validated for the swimming migration of Brünnich's Guillemot Uria lomvia in the Barents Sea. The results document that the distributional dynamics of Brünnich's Guillemot and other seabird species to a large degree can be simulated with in-situ state variables and patterns reflecting the physical meteorology and oceanography and habitat suitability. •Oil risk assessments are impeded by static and coarse-scale models for seabirds.•Dynamic modelling frameworks can provide high-resolution information.•Solution integrates 3-D hydrodynamic, habitat suitability, and agent-based models.•Validated for the swimming migration of Brünnich's Guillemot in the Barents Sea
ISSN:0025-326X
1879-3363
DOI:10.1016/j.marpolbul.2021.112625