A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields

A sea ice model was applied to the East Greenland Sea to examine a 60-day ice advance period beginning 1 October 1979. This investigation compares model results using driving geostrophic wind fields derived from three sources. Winds calculated from sea-level pressures obtained from the National Weat...

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Bibliographic Details
Main Author: Tucker,Walter B , III
Other Authors: COLD REGIONS RESEARCH AND ENGINEERING LAB HANOVER NH
Format: Text
Language:English
Published: 1983
Subjects:
Ice
Online Access:http://www.dtic.mil/docs/citations/ADA134462
http://oai.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA134462
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spelling ftdtic:ADA134462 2023-05-15T14:29:13+02:00 A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields Tucker,Walter B , III COLD REGIONS RESEARCH AND ENGINEERING LAB HANOVER NH 1983-06 text/html http://www.dtic.mil/docs/citations/ADA134462 http://oai.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA134462 en eng http://www.dtic.mil/docs/citations/ADA134462 APPROVED FOR PUBLIC RELEASE DTIC AND NTIS Meteorology Snow Ice and Permafrost *Sea ice *Wind Greenland Sea Greenland Coastal regions Barometric pressure Motion Transport Accumulation Mathematical models Wind forcing PE61102A AST24 WU003 Text 1983 ftdtic 2016-02-19T08:56:01Z A sea ice model was applied to the East Greenland Sea to examine a 60-day ice advance period beginning 1 October 1979. This investigation compares model results using driving geostrophic wind fields derived from three sources. Winds calculated from sea-level pressures obtained from the National Weather Service's operational analysis system resulted in strong velocities concentrated in a narrow band adjacent to the Greenland coast, with moderate velocities elsewhere. The model showed excessive ice transport and thickness build-ups in the coastal region. The extreme pressure gradient parallel to the coast resulted partially from a pressure reduction procedure that was applied to the terrain-following sigma coordinate system to obtain sea-level pressures. Additional sea-level pressure fields were obtained from an independent optimal interpolation analysis that merged FGGE buoys drifting in the Arctic basin with high latitude land stations and from manual digitization of the NWS hand-analyzed Northern Hemisphere Surface Charts. Modeling results using winds from both of these fields agreed favorably. (Author) Text Arctic Basin Arctic East Greenland Greenland Greenland Sea Ice permafrost Sea ice Defense Technical Information Center: DTIC Technical Reports database Arctic Greenland
institution Open Polar
collection Defense Technical Information Center: DTIC Technical Reports database
op_collection_id ftdtic
language English
topic Meteorology
Snow
Ice and Permafrost
*Sea ice
*Wind
Greenland Sea
Greenland
Coastal regions
Barometric pressure
Motion
Transport
Accumulation
Mathematical models
Wind forcing
PE61102A
AST24
WU003
spellingShingle Meteorology
Snow
Ice and Permafrost
*Sea ice
*Wind
Greenland Sea
Greenland
Coastal regions
Barometric pressure
Motion
Transport
Accumulation
Mathematical models
Wind forcing
PE61102A
AST24
WU003
Tucker,Walter B , III
A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields
topic_facet Meteorology
Snow
Ice and Permafrost
*Sea ice
*Wind
Greenland Sea
Greenland
Coastal regions
Barometric pressure
Motion
Transport
Accumulation
Mathematical models
Wind forcing
PE61102A
AST24
WU003
description A sea ice model was applied to the East Greenland Sea to examine a 60-day ice advance period beginning 1 October 1979. This investigation compares model results using driving geostrophic wind fields derived from three sources. Winds calculated from sea-level pressures obtained from the National Weather Service's operational analysis system resulted in strong velocities concentrated in a narrow band adjacent to the Greenland coast, with moderate velocities elsewhere. The model showed excessive ice transport and thickness build-ups in the coastal region. The extreme pressure gradient parallel to the coast resulted partially from a pressure reduction procedure that was applied to the terrain-following sigma coordinate system to obtain sea-level pressures. Additional sea-level pressure fields were obtained from an independent optimal interpolation analysis that merged FGGE buoys drifting in the Arctic basin with high latitude land stations and from manual digitization of the NWS hand-analyzed Northern Hemisphere Surface Charts. Modeling results using winds from both of these fields agreed favorably. (Author)
author2 COLD REGIONS RESEARCH AND ENGINEERING LAB HANOVER NH
format Text
author Tucker,Walter B , III
author_facet Tucker,Walter B , III
author_sort Tucker,Walter B , III
title A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields
title_short A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields
title_full A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields
title_fullStr A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields
title_full_unstemmed A Comparison of Sea Ice Model Results Using Three Different Wind Forcing Fields
title_sort comparison of sea ice model results using three different wind forcing fields
publishDate 1983
url http://www.dtic.mil/docs/citations/ADA134462
http://oai.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA134462
geographic Arctic
Greenland
geographic_facet Arctic
Greenland
genre Arctic Basin
Arctic
East Greenland
Greenland
Greenland Sea
Ice
permafrost
Sea ice
genre_facet Arctic Basin
Arctic
East Greenland
Greenland
Greenland Sea
Ice
permafrost
Sea ice
op_source DTIC AND NTIS
op_relation http://www.dtic.mil/docs/citations/ADA134462
op_rights APPROVED FOR PUBLIC RELEASE
_version_ 1766303289960300544