Oil Spill Modeling in Sea Ice Covered Ocean

The ongoing reduction in extent and thickness of sea ice in the Arctic allows the expansion of shipping activity and oil exploration in the high north, and with that a potential increased risk of oil spill in ice covered areas. This thesis asses the response of two oil-in-ice surface drift models im...

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Main Author: Martins de Aguiar, Victor Cesar
Format: Master Thesis
Language:English
Published: The University of Bergen 2021
Subjects:
Online Access:https://hdl.handle.net/11250/2762638
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spelling ftunivbergen:oai:bora.uib.no:11250/2762638 2023-05-15T15:09:36+02:00 Oil Spill Modeling in Sea Ice Covered Ocean Martins de Aguiar, Victor Cesar 2021-06-30T22:00:27Z application/pdf https://hdl.handle.net/11250/2762638 eng eng The University of Bergen https://hdl.handle.net/11250/2762638 Copyright the Author. All rights reserved topaz sea ice oil modeling 756213 Master thesis 2021 ftunivbergen 2023-03-14T17:43:51Z The ongoing reduction in extent and thickness of sea ice in the Arctic allows the expansion of shipping activity and oil exploration in the high north, and with that a potential increased risk of oil spill in ice covered areas. This thesis asses the response of two oil-in-ice surface drift models implemented in an open-source Lagrangian framework and forced by four dif- ferent ice-ocean products (RIOPS, TOPAZ4 real-time forecast system, TOPAZ4 reanalysis and SVIM). Both approaches were evaluated over three sets of simulations: (I) a field experiment conducted in the Barents Sea marginal ice zone in 2009; (II) observed trajectories of buoys in the ice pack and in the Barents Sea marginal ice zone; and (III) stochastic simulations (960 runs, from 1998 to 2017) to reproduce a hypothetical oil spill in the Kara Sea. Results from experiments (I) and (II) indicate that the two drift models provide similar response both in the ice pack and the marginal ice zone under the same forcing. It was also found that finer horizontal resolution ice-ocean products (RIOPS and SVIM) did not reproduce better the ob- served drifts. The experiment (III) revealed that the sea ice concentration (%) field dictates the spread, the predominant direction of trajectories and the distance (km) traveled by the cloud of particles (SVIM: -1.41 km/% and TOPAZ4 reanalysis: -1.24 km/%). Master's Thesis in Meteorology and Oceanography GEOF399 MAMN-GEOF Master Thesis Arctic Barents Sea ice pack Kara Sea Sea ice ice covered areas University of Bergen: Bergen Open Research Archive (BORA-UiB) Arctic Barents Sea Kara Sea
institution Open Polar
collection University of Bergen: Bergen Open Research Archive (BORA-UiB)
op_collection_id ftunivbergen
language English
topic topaz
sea ice
oil modeling
756213
spellingShingle topaz
sea ice
oil modeling
756213
Martins de Aguiar, Victor Cesar
Oil Spill Modeling in Sea Ice Covered Ocean
topic_facet topaz
sea ice
oil modeling
756213
description The ongoing reduction in extent and thickness of sea ice in the Arctic allows the expansion of shipping activity and oil exploration in the high north, and with that a potential increased risk of oil spill in ice covered areas. This thesis asses the response of two oil-in-ice surface drift models implemented in an open-source Lagrangian framework and forced by four dif- ferent ice-ocean products (RIOPS, TOPAZ4 real-time forecast system, TOPAZ4 reanalysis and SVIM). Both approaches were evaluated over three sets of simulations: (I) a field experiment conducted in the Barents Sea marginal ice zone in 2009; (II) observed trajectories of buoys in the ice pack and in the Barents Sea marginal ice zone; and (III) stochastic simulations (960 runs, from 1998 to 2017) to reproduce a hypothetical oil spill in the Kara Sea. Results from experiments (I) and (II) indicate that the two drift models provide similar response both in the ice pack and the marginal ice zone under the same forcing. It was also found that finer horizontal resolution ice-ocean products (RIOPS and SVIM) did not reproduce better the ob- served drifts. The experiment (III) revealed that the sea ice concentration (%) field dictates the spread, the predominant direction of trajectories and the distance (km) traveled by the cloud of particles (SVIM: -1.41 km/% and TOPAZ4 reanalysis: -1.24 km/%). Master's Thesis in Meteorology and Oceanography GEOF399 MAMN-GEOF
format Master Thesis
author Martins de Aguiar, Victor Cesar
author_facet Martins de Aguiar, Victor Cesar
author_sort Martins de Aguiar, Victor Cesar
title Oil Spill Modeling in Sea Ice Covered Ocean
title_short Oil Spill Modeling in Sea Ice Covered Ocean
title_full Oil Spill Modeling in Sea Ice Covered Ocean
title_fullStr Oil Spill Modeling in Sea Ice Covered Ocean
title_full_unstemmed Oil Spill Modeling in Sea Ice Covered Ocean
title_sort oil spill modeling in sea ice covered ocean
publisher The University of Bergen
publishDate 2021
url https://hdl.handle.net/11250/2762638
geographic Arctic
Barents Sea
Kara Sea
geographic_facet Arctic
Barents Sea
Kara Sea
genre Arctic
Barents Sea
ice pack
Kara Sea
Sea ice
ice covered areas
genre_facet Arctic
Barents Sea
ice pack
Kara Sea
Sea ice
ice covered areas
op_relation https://hdl.handle.net/11250/2762638
op_rights Copyright the Author. All rights reserved
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