GEODYNAMIC THERMAL RUNAWAY WITH MELTING

The authors consider the penetration of a solid medium by a foreign body which is large enough for frictional heating to melt the medium and maintain a thin liquid layer ahead of the body. This study is motivated by the possibility of the Earth's core having been formed by liquid iron diapirs m...

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Main Authors: Ockendon, J, Tayler, A, Emerman, S, Turcotte, D
Format: Journal article
Language:English
Published: 1985
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author Ockendon, J
Tayler, A
Emerman, S
Turcotte, D
author_facet Ockendon, J
Tayler, A
Emerman, S
Turcotte, D
author_sort Ockendon, J
collection OXFORD
description The authors consider the penetration of a solid medium by a foreign body which is large enough for frictional heating to melt the medium and maintain a thin liquid layer ahead of the body. This study is motivated by the possibility of the Earth's core having been formed by liquid iron diapirs melting their way through the solid, deformable mantle. The principal results are the existence of a critical size for the body for the motion to be maintained under gravity and the ease with which an immiscible liquid body can penetrate at constant velocity compared to a solid one.
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spelling oxford-uuid:db702f2b-b4de-42b8-940e-7f1a7f38f9fa2022-03-27T09:10:33ZGEODYNAMIC THERMAL RUNAWAY WITH MELTINGJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:db702f2b-b4de-42b8-940e-7f1a7f38f9faEnglishSymplectic Elements at Oxford1985Ockendon, JTayler, AEmerman, STurcotte, DThe authors consider the penetration of a solid medium by a foreign body which is large enough for frictional heating to melt the medium and maintain a thin liquid layer ahead of the body. This study is motivated by the possibility of the Earth's core having been formed by liquid iron diapirs melting their way through the solid, deformable mantle. The principal results are the existence of a critical size for the body for the motion to be maintained under gravity and the ease with which an immiscible liquid body can penetrate at constant velocity compared to a solid one.
spellingShingle Ockendon, J
Tayler, A
Emerman, S
Turcotte, D
GEODYNAMIC THERMAL RUNAWAY WITH MELTING
title GEODYNAMIC THERMAL RUNAWAY WITH MELTING
title_full GEODYNAMIC THERMAL RUNAWAY WITH MELTING
title_fullStr GEODYNAMIC THERMAL RUNAWAY WITH MELTING
title_full_unstemmed GEODYNAMIC THERMAL RUNAWAY WITH MELTING
title_short GEODYNAMIC THERMAL RUNAWAY WITH MELTING
title_sort geodynamic thermal runaway with melting
work_keys_str_mv AT ockendonj geodynamicthermalrunawaywithmelting
AT taylera geodynamicthermalrunawaywithmelting
AT emermans geodynamicthermalrunawaywithmelting
AT turcotted geodynamicthermalrunawaywithmelting