Evidence for floatation or near floatation in the mouth of Kamb Ice Stream, West Antarctica, prior to stagnation

Ice‐penetrating radar profiles reveal distinctive internal structure within the flat ice terrains that bound the lower reaches of the now stagnant Kamb Ice Stream, West Antarctica; slightly warped but continuous upper layers overlie extensive deep line diffractors located at a uniform depth several...

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Published in:Journal of Geophysical Research - Earth Surface Vol. 111; no. F1; pp. F01005 - n/a
Main Authors: Catania, G. A., Conway, H., Raymond, C. F., Scambos, T. A.
Format: Journal Article
Language:English
Published: Washington, DC American Geophysical Union 01-03-2006
Blackwell Publishing Ltd
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Abstract Ice‐penetrating radar profiles reveal distinctive internal structure within the flat ice terrains that bound the lower reaches of the now stagnant Kamb Ice Stream, West Antarctica; slightly warped but continuous upper layers overlie extensive deep line diffractors located at a uniform depth several hundreds of meters above the bed. On the basis of their orientation and morphology we interpret the line diffractors to be the tips of basal crevasses. At the boundary between these terrains and the inter–ice stream ridges, internal layers are strongly downwarped, and the deepest layers are truncated at the bed. Results from simple kinematic ice flow modeling indicate that the observed layer pattern requires a cumulative basal melt of 120–350 m over a time period that is less than 300 years. Fields of basal crevasses are typically observed in ice shelves; however, isolated basal crevasses can also be found in grounded ice when the subglacial water pressure is close to overburden. On the basis of the presence of these crevasses we argue that these terrains were once floating or near floating in the past. We combine model results with estimates of recent ice thickness change to suggest that floatation was transitory and the region may have become fully grounded roughly 200 years prior to stagnation of Kamb Ice Stream.
AbstractList Ice‐penetrating radar profiles reveal distinctive internal structure within the flat ice terrains that bound the lower reaches of the now stagnant Kamb Ice Stream, West Antarctica; slightly warped but continuous upper layers overlie extensive deep line diffractors located at a uniform depth several hundreds of meters above the bed. On the basis of their orientation and morphology we interpret the line diffractors to be the tips of basal crevasses. At the boundary between these terrains and the inter–ice stream ridges, internal layers are strongly downwarped, and the deepest layers are truncated at the bed. Results from simple kinematic ice flow modeling indicate that the observed layer pattern requires a cumulative basal melt of 120–350 m over a time period that is less than 300 years. Fields of basal crevasses are typically observed in ice shelves; however, isolated basal crevasses can also be found in grounded ice when the subglacial water pressure is close to overburden. On the basis of the presence of these crevasses we argue that these terrains were once floating or near floating in the past. We combine model results with estimates of recent ice thickness change to suggest that floatation was transitory and the region may have become fully grounded roughly 200 years prior to stagnation of Kamb Ice Stream.
Author Conway, H.
Raymond, C. F.
Catania, G. A.
Scambos, T. A.
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  givenname: G. A.
  surname: Catania
  fullname: Catania, G. A.
  email: gcatania@utig.ig.utexas.edu
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  surname: Conway
  fullname: Conway, H.
  organization: Department of Earth and Space Sciences, University of Washington, Washington, Seattle, USA
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  surname: Raymond
  fullname: Raymond, C. F.
  organization: Department of Earth and Space Sciences, University of Washington, Washington, Seattle, USA
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  givenname: T. A.
  surname: Scambos
  fullname: Scambos, T. A.
  organization: National Snow and Ice Data Center, University of Colorado, Colorado, Boulder, USA
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Issue F1
Keywords ice streams
grounding line
ice-penetrating radar
Internal layer
models
orientation
overburden
morphology
thickness
kinematics
water pressure
Floating ice
Modeling
Ice stream
ice shelves
depth
ground ice
Internal structure
Ice shelf
polar regions
melts
radar methods
Language English
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1998; 27
2004; 42
1984; 42
2005; 110
2002; 296
2000; 46
1991; 96
1984; 89
2003; 36
1999; 286
1988; 11
1988; 34
2006
2005
1994
2001; 29
2004; 428
2001; 47
1976; 6
1998; 44
1994; 40
2001; 106
1969; 8
2001; 294
1979; 24
1982; 28
1993; 39
1973; 20
2000; 105
1958; 47
2000; 31
2002; 107
1998; 103
2005; 50
1999; 398
2001; 77
2003; 301
1983; 29
1989; 35
1998; 282
1996; 42
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Snippet Ice‐penetrating radar profiles reveal distinctive internal structure within the flat ice terrains that bound the lower reaches of the now stagnant Kamb Ice...
Ice-penetrating radar profiles reveal distinctive internal structure within the flat ice terrains that bound the lower reaches of the now stagnant Kamb Ice...
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SubjectTerms Antarctica
Cryosphere
Earth sciences
Earth, ocean, space
Exact sciences and technology
Geographic Location
Glaciology
grounding line
Ice streams
ice-penetrating radar
Modeling
Remote sensing
Title Evidence for floatation or near floatation in the mouth of Kamb Ice Stream, West Antarctica, prior to stagnation
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