author_facet Griewank, P. J.
Notz, D.
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Notz, D.
author Griewank, P. J.
Notz, D.
spellingShingle Griewank, P. J.
Notz, D.
The Cryosphere
A 1-D modelling study of Arctic sea-ice salinity
Earth-Surface Processes
Water Science and Technology
author_sort griewank, p. j.
spelling Griewank, P. J. Notz, D. 1994-0424 Copernicus GmbH Earth-Surface Processes Water Science and Technology http://dx.doi.org/10.5194/tc-9-305-2015 <jats:p>Abstract. We use a 1-D model to study how salinity evolves in Arctic sea ice. To do so, we first explore how sea-ice surface melt and flooding can be incorporated into the 1-D thermodynamic Semi-Adaptive Multi-phase Sea-Ice Model (SAMSIM) presented by Griewank and Notz (2013). We introduce flooding and a flushing parametrization which treats sea ice as a hydraulic network of horizontal and vertical fluxes. Forcing SAMSIM with 36 years of ERA-interim atmospheric reanalysis data, we obtain a modelled Arctic sea-ice salinity that agrees well with ice-core measurements. The simulations thus allow us to identify the main drivers of the observed mean salinity profile in Arctic sea ice. Our results show a 1.5–4 g kg−1 decrease of bulk salinity via gravity drainage after ice growth has ceased and before flushing sets in, which hinders approximating bulk salinity from ice thickness beyond the first growth season. In our simulations, salinity interannual variability of first-year ice is mostly restricted to the top 20 cm. We find that ice thickness, thermal resistivity, freshwater column, and stored energy change by less than 5% on average when the full salinity parametrization is replaced with a prescribed salinity profile.</jats:p> A 1-D modelling study of Arctic sea-ice salinity The Cryosphere
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title A 1-D modelling study of Arctic sea-ice salinity
title_unstemmed A 1-D modelling study of Arctic sea-ice salinity
title_full A 1-D modelling study of Arctic sea-ice salinity
title_fullStr A 1-D modelling study of Arctic sea-ice salinity
title_full_unstemmed A 1-D modelling study of Arctic sea-ice salinity
title_short A 1-D modelling study of Arctic sea-ice salinity
title_sort a 1-d modelling study of arctic sea-ice salinity
topic Earth-Surface Processes
Water Science and Technology
url http://dx.doi.org/10.5194/tc-9-305-2015
publishDate 2015
physical 305-329
description <jats:p>Abstract. We use a 1-D model to study how salinity evolves in Arctic sea ice. To do so, we first explore how sea-ice surface melt and flooding can be incorporated into the 1-D thermodynamic Semi-Adaptive Multi-phase Sea-Ice Model (SAMSIM) presented by Griewank and Notz (2013). We introduce flooding and a flushing parametrization which treats sea ice as a hydraulic network of horizontal and vertical fluxes. Forcing SAMSIM with 36 years of ERA-interim atmospheric reanalysis data, we obtain a modelled Arctic sea-ice salinity that agrees well with ice-core measurements. The simulations thus allow us to identify the main drivers of the observed mean salinity profile in Arctic sea ice. Our results show a 1.5–4 g kg−1 decrease of bulk salinity via gravity drainage after ice growth has ceased and before flushing sets in, which hinders approximating bulk salinity from ice thickness beyond the first growth season. In our simulations, salinity interannual variability of first-year ice is mostly restricted to the top 20 cm. We find that ice thickness, thermal resistivity, freshwater column, and stored energy change by less than 5% on average when the full salinity parametrization is replaced with a prescribed salinity profile.</jats:p>
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author Griewank, P. J., Notz, D.
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author_sort griewank, p. j.
container_issue 1
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description <jats:p>Abstract. We use a 1-D model to study how salinity evolves in Arctic sea ice. To do so, we first explore how sea-ice surface melt and flooding can be incorporated into the 1-D thermodynamic Semi-Adaptive Multi-phase Sea-Ice Model (SAMSIM) presented by Griewank and Notz (2013). We introduce flooding and a flushing parametrization which treats sea ice as a hydraulic network of horizontal and vertical fluxes. Forcing SAMSIM with 36 years of ERA-interim atmospheric reanalysis data, we obtain a modelled Arctic sea-ice salinity that agrees well with ice-core measurements. The simulations thus allow us to identify the main drivers of the observed mean salinity profile in Arctic sea ice. Our results show a 1.5–4 g kg−1 decrease of bulk salinity via gravity drainage after ice growth has ceased and before flushing sets in, which hinders approximating bulk salinity from ice thickness beyond the first growth season. In our simulations, salinity interannual variability of first-year ice is mostly restricted to the top 20 cm. We find that ice thickness, thermal resistivity, freshwater column, and stored energy change by less than 5% on average when the full salinity parametrization is replaced with a prescribed salinity profile.</jats:p>
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spelling Griewank, P. J. Notz, D. 1994-0424 Copernicus GmbH Earth-Surface Processes Water Science and Technology http://dx.doi.org/10.5194/tc-9-305-2015 <jats:p>Abstract. We use a 1-D model to study how salinity evolves in Arctic sea ice. To do so, we first explore how sea-ice surface melt and flooding can be incorporated into the 1-D thermodynamic Semi-Adaptive Multi-phase Sea-Ice Model (SAMSIM) presented by Griewank and Notz (2013). We introduce flooding and a flushing parametrization which treats sea ice as a hydraulic network of horizontal and vertical fluxes. Forcing SAMSIM with 36 years of ERA-interim atmospheric reanalysis data, we obtain a modelled Arctic sea-ice salinity that agrees well with ice-core measurements. The simulations thus allow us to identify the main drivers of the observed mean salinity profile in Arctic sea ice. Our results show a 1.5–4 g kg−1 decrease of bulk salinity via gravity drainage after ice growth has ceased and before flushing sets in, which hinders approximating bulk salinity from ice thickness beyond the first growth season. In our simulations, salinity interannual variability of first-year ice is mostly restricted to the top 20 cm. We find that ice thickness, thermal resistivity, freshwater column, and stored energy change by less than 5% on average when the full salinity parametrization is replaced with a prescribed salinity profile.</jats:p> A 1-D modelling study of Arctic sea-ice salinity The Cryosphere
spellingShingle Griewank, P. J., Notz, D., The Cryosphere, A 1-D modelling study of Arctic sea-ice salinity, Earth-Surface Processes, Water Science and Technology
title A 1-D modelling study of Arctic sea-ice salinity
title_full A 1-D modelling study of Arctic sea-ice salinity
title_fullStr A 1-D modelling study of Arctic sea-ice salinity
title_full_unstemmed A 1-D modelling study of Arctic sea-ice salinity
title_short A 1-D modelling study of Arctic sea-ice salinity
title_sort a 1-d modelling study of arctic sea-ice salinity
title_unstemmed A 1-D modelling study of Arctic sea-ice salinity
topic Earth-Surface Processes, Water Science and Technology
url http://dx.doi.org/10.5194/tc-9-305-2015