Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction

This paper examines the Sensitivity of boundary-layer (BL) frontal' features, created by differences across an ice edge and characterized by positive vertical velocity (w), to variations in geostrophic wind direction (a), particularly for flow approximately parallel to the ice edge. Notable is...

Full description

Bibliographic Details
Main Author: Glendening, John W.
Other Authors: NAVAL RESEARCH LAB MONTEREY CA
Format: Text
Language:English
Published: 1992
Subjects:
Ice
Online Access:http://www.dtic.mil/docs/citations/ADA268437
http://oai.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA268437
id ftdtic:ADA268437
record_format openpolar
spelling ftdtic:ADA268437 2023-05-15T14:55:06+02:00 Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction Glendening, John W. NAVAL RESEARCH LAB MONTEREY CA 1992-10 text/html http://www.dtic.mil/docs/citations/ADA268437 http://oai.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA268437 en eng http://www.dtic.mil/docs/citations/ADA268437 Approved for public release; distribution is unlimited. DTIC AND NTIS Meteorology Snow Ice and Permafrost *BOUNDARY LAYER *ICE *GEOSTROPHIC WIND *WIND DIRECTION *ARCTIC REGIONS *FRONTS(METEOROLOGY) VELOCITY LAYERS WATER VARIATIONS SEA BREEZE PAPER FLOW ASYMMETRY SURFACES SENSITIVITY EDGES WIND PE61153N WUDN251030 Text 1992 ftdtic 2016-02-22T07:18:54Z This paper examines the Sensitivity of boundary-layer (BL) frontal' features, created by differences across an ice edge and characterized by positive vertical velocity (w), to variations in geostrophic wind direction (a), particularly for flow approximately parallel to the ice edge. Notable is the asymmetry introduced by Coriolis/frictional forces. Thermal and mechanical differences between ice and water surfaces at an ice edge create an adjustment region. This adjustment region will be most 'frontal' in character when the resulting gradients are largest, which is most probable when advection perpendicular to the ice edge is small. Thus a geostrophic wind nearly parallel to the ice edge gives much stronger surface temperature gradients (Kantha and Mellor, 1989) and stronger jet maxima (Langland et al., 1989) than when the geostrophic wind is perpendicular ice edge. Arctic leads, Boundary layer, Mesoscale. Text Arctic Ice permafrost Defense Technical Information Center: DTIC Technical Reports database Arctic Mellor ENVELOPE(-114.944,-114.944,60.714,60.714)
institution Open Polar
collection Defense Technical Information Center: DTIC Technical Reports database
op_collection_id ftdtic
language English
topic Meteorology
Snow
Ice and Permafrost
*BOUNDARY LAYER
*ICE
*GEOSTROPHIC WIND
*WIND DIRECTION
*ARCTIC REGIONS
*FRONTS(METEOROLOGY)
VELOCITY
LAYERS
WATER
VARIATIONS
SEA BREEZE
PAPER
FLOW
ASYMMETRY
SURFACES
SENSITIVITY
EDGES
WIND
PE61153N
WUDN251030
spellingShingle Meteorology
Snow
Ice and Permafrost
*BOUNDARY LAYER
*ICE
*GEOSTROPHIC WIND
*WIND DIRECTION
*ARCTIC REGIONS
*FRONTS(METEOROLOGY)
VELOCITY
LAYERS
WATER
VARIATIONS
SEA BREEZE
PAPER
FLOW
ASYMMETRY
SURFACES
SENSITIVITY
EDGES
WIND
PE61153N
WUDN251030
Glendening, John W.
Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction
topic_facet Meteorology
Snow
Ice and Permafrost
*BOUNDARY LAYER
*ICE
*GEOSTROPHIC WIND
*WIND DIRECTION
*ARCTIC REGIONS
*FRONTS(METEOROLOGY)
VELOCITY
LAYERS
WATER
VARIATIONS
SEA BREEZE
PAPER
FLOW
ASYMMETRY
SURFACES
SENSITIVITY
EDGES
WIND
PE61153N
WUDN251030
description This paper examines the Sensitivity of boundary-layer (BL) frontal' features, created by differences across an ice edge and characterized by positive vertical velocity (w), to variations in geostrophic wind direction (a), particularly for flow approximately parallel to the ice edge. Notable is the asymmetry introduced by Coriolis/frictional forces. Thermal and mechanical differences between ice and water surfaces at an ice edge create an adjustment region. This adjustment region will be most 'frontal' in character when the resulting gradients are largest, which is most probable when advection perpendicular to the ice edge is small. Thus a geostrophic wind nearly parallel to the ice edge gives much stronger surface temperature gradients (Kantha and Mellor, 1989) and stronger jet maxima (Langland et al., 1989) than when the geostrophic wind is perpendicular ice edge. Arctic leads, Boundary layer, Mesoscale.
author2 NAVAL RESEARCH LAB MONTEREY CA
format Text
author Glendening, John W.
author_facet Glendening, John W.
author_sort Glendening, John W.
title Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction
title_short Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction
title_full Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction
title_fullStr Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction
title_full_unstemmed Boundary-Layer Structure Near an Ice Edge as a Function of Wind Direction
title_sort boundary-layer structure near an ice edge as a function of wind direction
publishDate 1992
url http://www.dtic.mil/docs/citations/ADA268437
http://oai.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA268437
long_lat ENVELOPE(-114.944,-114.944,60.714,60.714)
geographic Arctic
Mellor
geographic_facet Arctic
Mellor
genre Arctic
Ice
permafrost
genre_facet Arctic
Ice
permafrost
op_source DTIC AND NTIS
op_relation http://www.dtic.mil/docs/citations/ADA268437
op_rights Approved for public release; distribution is unlimited.
_version_ 1766326879549128704