Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea

<p>A high-resolution coupled ocean–sea ice model is set up within the Labrador Sea. With a horizontal resolution of <span class="inline-formula">1∕60</span><span class="inline-formula"><sup>∘</sup></span>, this simulation is capable of re...

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Main Authors: C. Pennelly, P. G. Myers
Format: Article
Language:English
Published: Copernicus Publications 2020-10-01
Series:Geoscientific Model Development
Online Access:https://gmd.copernicus.org/articles/13/4959/2020/gmd-13-4959-2020.pdf
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spelling doaj-b31a4727c3ef4fa387ed3d7fe5c136772020-11-25T03:34:50ZengCopernicus PublicationsGeoscientific Model Development1991-959X1991-96032020-10-01134959497510.5194/gmd-13-4959-2020Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador SeaC. PennellyP. G. Myers<p>A high-resolution coupled ocean–sea ice model is set up within the Labrador Sea. With a horizontal resolution of <span class="inline-formula">1∕60</span><span class="inline-formula"><sup>∘</sup></span>, this simulation is capable of resolving the multitude of eddies that transport heat and freshwater into the interior of the Labrador Sea. These fluxes strongly govern the overall stratification, deep convection, restratification, and production of Labrador Sea Water. Our regional configuration spans the full North Atlantic and Arctic; however, high resolution is only applied in smaller nested domains within the North Atlantic and Labrador Sea. Using nesting reduces computational costs and allows for a long simulation from 2002 to the near present. Three passive tracers are also included: Greenland runoff, Labrador Sea Water produced during convection, and Irminger Water that enters the Labrador Sea along Greenland. We describe the configuration setup and compare it against similarly forced lower-resolution simulations to better describe how horizontal resolution impacts the representation of the Labrador Sea in the model.</p>https://gmd.copernicus.org/articles/13/4959/2020/gmd-13-4959-2020.pdf
collection DOAJ
language English
format Article
sources DOAJ
author C. Pennelly
P. G. Myers
spellingShingle C. Pennelly
P. G. Myers
Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea
Geoscientific Model Development
author_facet C. Pennelly
P. G. Myers
author_sort C. Pennelly
title Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea
title_short Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea
title_full Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea
title_fullStr Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea
title_full_unstemmed Introducing LAB60: A 1∕60° NEMO 3.6 numerical simulation of the Labrador Sea
title_sort introducing lab60: a 1∕60° nemo 3.6 numerical simulation of the labrador sea
publisher Copernicus Publications
series Geoscientific Model Development
issn 1991-959X
1991-9603
publishDate 2020-10-01
description <p>A high-resolution coupled ocean–sea ice model is set up within the Labrador Sea. With a horizontal resolution of <span class="inline-formula">1∕60</span><span class="inline-formula"><sup>∘</sup></span>, this simulation is capable of resolving the multitude of eddies that transport heat and freshwater into the interior of the Labrador Sea. These fluxes strongly govern the overall stratification, deep convection, restratification, and production of Labrador Sea Water. Our regional configuration spans the full North Atlantic and Arctic; however, high resolution is only applied in smaller nested domains within the North Atlantic and Labrador Sea. Using nesting reduces computational costs and allows for a long simulation from 2002 to the near present. Three passive tracers are also included: Greenland runoff, Labrador Sea Water produced during convection, and Irminger Water that enters the Labrador Sea along Greenland. We describe the configuration setup and compare it against similarly forced lower-resolution simulations to better describe how horizontal resolution impacts the representation of the Labrador Sea in the model.</p>
url https://gmd.copernicus.org/articles/13/4959/2020/gmd-13-4959-2020.pdf
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