On wind-driven mid-latitude convection in ocean general circulation models

[Abstract]: Several computational experiments were carried out with a state-of-the-art ocean general circulation model to identify the northward directed Ekman transport of Antarctic and Subantarctic origin surface water as a mechanism which forces mid-latitude convection. The results indicate that...

Full description

Bibliographic Details
Main Author: Ribbe, Joachim
Format: Article in Journal/Newspaper
Language:unknown
Published: 1999
Subjects:
Online Access:https://research.usq.edu.au/item/9xvyy/on-wind-driven-mid-latitude-convection-in-ocean-general-circulation-models
https://research.usq.edu.au/download/8ed7949a84c850953ab27363eb8b339740b80a3643c06785d38439a566308ccc/57465/Ribbe_Tellus.pdf
id ftusqland:oai:research.usq.edu.au:9xvyy
record_format openpolar
spelling ftusqland:oai:research.usq.edu.au:9xvyy 2023-05-15T13:43:56+02:00 On wind-driven mid-latitude convection in ocean general circulation models Ribbe, Joachim 1999 application/pdf https://research.usq.edu.au/item/9xvyy/on-wind-driven-mid-latitude-convection-in-ocean-general-circulation-models https://research.usq.edu.au/download/8ed7949a84c850953ab27363eb8b339740b80a3643c06785d38439a566308ccc/57465/Ribbe_Tellus.pdf unknown https://research.usq.edu.au/download/8ed7949a84c850953ab27363eb8b339740b80a3643c06785d38439a566308ccc/57465/Ribbe_Tellus.pdf Ribbe, Joachim. 1999. "On wind-driven mid-latitude convection in ocean general circulation models." Tellus Series A: Dynamic Meteorology and Oceanography. 51, pp. 505-516. Southern Ocean ocean modelling water mass formation convection Antarctic Circumpolar Current Subantarctic Front mixing Ekman transport article PeerReviewed 1999 ftusqland 2023-02-06T23:49:47Z [Abstract]: Several computational experiments were carried out with a state-of-the-art ocean general circulation model to identify the northward directed Ekman transport of Antarctic and Subantarctic origin surface water as a mechanism which forces mid-latitude convection. The results indicate that the wind-driven transport of water in the surface layer is most efficient at increasing the depth of convection in the southeast region of the ocean basin investigated. To the north of the latitude of maximum wind stress at about 50o S, a deepening of the convectively mixed layer of more than 300 m is simulated if the wind forcing is doubled. In the real ocean, this identified mechanism of Ekman transport of cold and fresh water across the path of the Antarctic Circumpolar Current may contribute to the formation of Subantarctic Mode Water observed to the north of the Subantarctic Front of the Southern Ocean. Article in Journal/Newspaper Antarc* Antarctic Southern Ocean University of Southern Queensland: USQ ePrints Antarctic Southern Ocean The Antarctic
institution Open Polar
collection University of Southern Queensland: USQ ePrints
op_collection_id ftusqland
language unknown
topic Southern Ocean
ocean modelling
water mass formation
convection
Antarctic Circumpolar Current
Subantarctic Front
mixing
Ekman transport
spellingShingle Southern Ocean
ocean modelling
water mass formation
convection
Antarctic Circumpolar Current
Subantarctic Front
mixing
Ekman transport
Ribbe, Joachim
On wind-driven mid-latitude convection in ocean general circulation models
topic_facet Southern Ocean
ocean modelling
water mass formation
convection
Antarctic Circumpolar Current
Subantarctic Front
mixing
Ekman transport
description [Abstract]: Several computational experiments were carried out with a state-of-the-art ocean general circulation model to identify the northward directed Ekman transport of Antarctic and Subantarctic origin surface water as a mechanism which forces mid-latitude convection. The results indicate that the wind-driven transport of water in the surface layer is most efficient at increasing the depth of convection in the southeast region of the ocean basin investigated. To the north of the latitude of maximum wind stress at about 50o S, a deepening of the convectively mixed layer of more than 300 m is simulated if the wind forcing is doubled. In the real ocean, this identified mechanism of Ekman transport of cold and fresh water across the path of the Antarctic Circumpolar Current may contribute to the formation of Subantarctic Mode Water observed to the north of the Subantarctic Front of the Southern Ocean.
format Article in Journal/Newspaper
author Ribbe, Joachim
author_facet Ribbe, Joachim
author_sort Ribbe, Joachim
title On wind-driven mid-latitude convection in ocean general circulation models
title_short On wind-driven mid-latitude convection in ocean general circulation models
title_full On wind-driven mid-latitude convection in ocean general circulation models
title_fullStr On wind-driven mid-latitude convection in ocean general circulation models
title_full_unstemmed On wind-driven mid-latitude convection in ocean general circulation models
title_sort on wind-driven mid-latitude convection in ocean general circulation models
publishDate 1999
url https://research.usq.edu.au/item/9xvyy/on-wind-driven-mid-latitude-convection-in-ocean-general-circulation-models
https://research.usq.edu.au/download/8ed7949a84c850953ab27363eb8b339740b80a3643c06785d38439a566308ccc/57465/Ribbe_Tellus.pdf
geographic Antarctic
Southern Ocean
The Antarctic
geographic_facet Antarctic
Southern Ocean
The Antarctic
genre Antarc*
Antarctic
Southern Ocean
genre_facet Antarc*
Antarctic
Southern Ocean
op_relation https://research.usq.edu.au/download/8ed7949a84c850953ab27363eb8b339740b80a3643c06785d38439a566308ccc/57465/Ribbe_Tellus.pdf
Ribbe, Joachim. 1999. "On wind-driven mid-latitude convection in ocean general circulation models." Tellus Series A: Dynamic Meteorology and Oceanography. 51, pp. 505-516.
_version_ 1766195239716913152