Heat in the Barents Sea: transport, storage, and surface fluxes

A column model is set up for the Barents Sea to explore sensitivity of surface fluxes and heat storage from varying ocean heat transport. Mean monthly ocean transport and atmospheric forcing are synthesised and force the simulations. Results show that by using updated ocean transports of heat and fr...

Full description

Bibliographic Details
Main Authors: L. H. Smedsrud, R. Ingvaldsen, J. E. Ø. Nilsen, Ø. Skagseth
Format: Article in Journal/Newspaper
Language:English
Published: Copernicus Publications 2010
Subjects:
G
Online Access:https://doaj.org/article/48235cfba62144d1aaabd9a85a8022eb
id ftdoajarticles:oai:doaj.org/article:48235cfba62144d1aaabd9a85a8022eb
record_format openpolar
spelling ftdoajarticles:oai:doaj.org/article:48235cfba62144d1aaabd9a85a8022eb 2023-05-15T15:10:44+02:00 Heat in the Barents Sea: transport, storage, and surface fluxes L. H. Smedsrud R. Ingvaldsen J. E. Ø. Nilsen Ø. Skagseth 2010-02-01T00:00:00Z https://doaj.org/article/48235cfba62144d1aaabd9a85a8022eb EN eng Copernicus Publications http://www.ocean-sci.net/6/219/2010/os-6-219-2010.pdf https://doaj.org/toc/1812-0784 https://doaj.org/toc/1812-0792 1812-0784 1812-0792 https://doaj.org/article/48235cfba62144d1aaabd9a85a8022eb Ocean Science, Vol 6, Iss 1, Pp 219-234 (2010) Geography. Anthropology. Recreation G Environmental sciences GE1-350 article 2010 ftdoajarticles 2022-12-30T22:30:25Z A column model is set up for the Barents Sea to explore sensitivity of surface fluxes and heat storage from varying ocean heat transport. Mean monthly ocean transport and atmospheric forcing are synthesised and force the simulations. Results show that by using updated ocean transports of heat and freshwater the vertical mean hydrographic seasonal cycle can be reproduced fairly well. Our results indicate that the ~70 TW of heat transported to the Barents Sea by ocean currents is lost in the southern Barents Sea as latent, sensible, and long wave radiation, each contributing 23–39 TW to the total heat loss. Solar radiation adds 26 TW in the south, as there is no significant ice production. The northern Barents Sea receives little ocean heat transport. This leads to a mixed layer at the freezing point during winter and significant ice production. There is little net surface heat loss annually in the north. The balance is achieved by a heat loss through long wave radiation all year, removing most of the summer solar heating. During the last decade the Barents Sea has experienced an atmospheric warming and an increased ocean heat transport. The Barents Sea responds to such large changes by adjusting temperature and heat loss. Decreasing the ocean heat transport below 50 TW starts a transition towards Arctic conditions. The heat loss in the Barents Sea depend on the effective area for cooling, and an increased heat transport leads to a spreading of warm water further north. Article in Journal/Newspaper Arctic Barents Sea Directory of Open Access Journals: DOAJ Articles Arctic Barents Sea
institution Open Polar
collection Directory of Open Access Journals: DOAJ Articles
op_collection_id ftdoajarticles
language English
topic Geography. Anthropology. Recreation
G
Environmental sciences
GE1-350
spellingShingle Geography. Anthropology. Recreation
G
Environmental sciences
GE1-350
L. H. Smedsrud
R. Ingvaldsen
J. E. Ø. Nilsen
Ø. Skagseth
Heat in the Barents Sea: transport, storage, and surface fluxes
topic_facet Geography. Anthropology. Recreation
G
Environmental sciences
GE1-350
description A column model is set up for the Barents Sea to explore sensitivity of surface fluxes and heat storage from varying ocean heat transport. Mean monthly ocean transport and atmospheric forcing are synthesised and force the simulations. Results show that by using updated ocean transports of heat and freshwater the vertical mean hydrographic seasonal cycle can be reproduced fairly well. Our results indicate that the ~70 TW of heat transported to the Barents Sea by ocean currents is lost in the southern Barents Sea as latent, sensible, and long wave radiation, each contributing 23–39 TW to the total heat loss. Solar radiation adds 26 TW in the south, as there is no significant ice production. The northern Barents Sea receives little ocean heat transport. This leads to a mixed layer at the freezing point during winter and significant ice production. There is little net surface heat loss annually in the north. The balance is achieved by a heat loss through long wave radiation all year, removing most of the summer solar heating. During the last decade the Barents Sea has experienced an atmospheric warming and an increased ocean heat transport. The Barents Sea responds to such large changes by adjusting temperature and heat loss. Decreasing the ocean heat transport below 50 TW starts a transition towards Arctic conditions. The heat loss in the Barents Sea depend on the effective area for cooling, and an increased heat transport leads to a spreading of warm water further north.
format Article in Journal/Newspaper
author L. H. Smedsrud
R. Ingvaldsen
J. E. Ø. Nilsen
Ø. Skagseth
author_facet L. H. Smedsrud
R. Ingvaldsen
J. E. Ø. Nilsen
Ø. Skagseth
author_sort L. H. Smedsrud
title Heat in the Barents Sea: transport, storage, and surface fluxes
title_short Heat in the Barents Sea: transport, storage, and surface fluxes
title_full Heat in the Barents Sea: transport, storage, and surface fluxes
title_fullStr Heat in the Barents Sea: transport, storage, and surface fluxes
title_full_unstemmed Heat in the Barents Sea: transport, storage, and surface fluxes
title_sort heat in the barents sea: transport, storage, and surface fluxes
publisher Copernicus Publications
publishDate 2010
url https://doaj.org/article/48235cfba62144d1aaabd9a85a8022eb
geographic Arctic
Barents Sea
geographic_facet Arctic
Barents Sea
genre Arctic
Barents Sea
genre_facet Arctic
Barents Sea
op_source Ocean Science, Vol 6, Iss 1, Pp 219-234 (2010)
op_relation http://www.ocean-sci.net/6/219/2010/os-6-219-2010.pdf
https://doaj.org/toc/1812-0784
https://doaj.org/toc/1812-0792
1812-0784
1812-0792
https://doaj.org/article/48235cfba62144d1aaabd9a85a8022eb
_version_ 1766341708086247424