Theory of lattice Boltzmann simulations of glacier flow

Abstract A lattice Boltzmann technique for modeling Navier–Stokes fluid flow is extended to allow steady-state simulations of glaciers and other slow-flowing solids. The technique is based on a statistical mechanical representation of flowing ice as a set of particles (populations) which translate a...

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Published in:Journal of Glaciology
Main Authors: Bahr, David B., Rundle, John B.
Format: Article in Journal/Newspaper
Language:English
Published: Cambridge University Press (CUP) 1995
Subjects:
Online Access:http://dx.doi.org/10.1017/s0022143000034948
https://www.cambridge.org/core/services/aop-cambridge-core/content/view/S0022143000034948
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spelling crcambridgeupr:10.1017/s0022143000034948 2024-03-03T08:46:01+00:00 Theory of lattice Boltzmann simulations of glacier flow Bahr, David B. Rundle, John B. 1995 http://dx.doi.org/10.1017/s0022143000034948 https://www.cambridge.org/core/services/aop-cambridge-core/content/view/S0022143000034948 en eng Cambridge University Press (CUP) Journal of Glaciology volume 41, issue 139, page 634-640 ISSN 0022-1430 1727-5652 Earth-Surface Processes journal-article 1995 crcambridgeupr https://doi.org/10.1017/s0022143000034948 2024-02-08T08:38:15Z Abstract A lattice Boltzmann technique for modeling Navier–Stokes fluid flow is extended to allow steady-state simulations of glaciers and other slow-flowing solids. The technique is based on a statistical mechanical representation of flowing ice as a set of particles (populations) which translate and collide on a face-centered cubic lattice. The average trajectories of the populations give the velocities of the ice at any point in the glacier. The method has considerable advantages over other techniques, including its ability to handle complex realistic geometries without additional complications to the code Examples are presented for two-dimensional simulations. Article in Journal/Newspaper Journal of Glaciology Cambridge University Press Journal of Glaciology 41 139 634 640
institution Open Polar
collection Cambridge University Press
op_collection_id crcambridgeupr
language English
topic Earth-Surface Processes
spellingShingle Earth-Surface Processes
Bahr, David B.
Rundle, John B.
Theory of lattice Boltzmann simulations of glacier flow
topic_facet Earth-Surface Processes
description Abstract A lattice Boltzmann technique for modeling Navier–Stokes fluid flow is extended to allow steady-state simulations of glaciers and other slow-flowing solids. The technique is based on a statistical mechanical representation of flowing ice as a set of particles (populations) which translate and collide on a face-centered cubic lattice. The average trajectories of the populations give the velocities of the ice at any point in the glacier. The method has considerable advantages over other techniques, including its ability to handle complex realistic geometries without additional complications to the code Examples are presented for two-dimensional simulations.
format Article in Journal/Newspaper
author Bahr, David B.
Rundle, John B.
author_facet Bahr, David B.
Rundle, John B.
author_sort Bahr, David B.
title Theory of lattice Boltzmann simulations of glacier flow
title_short Theory of lattice Boltzmann simulations of glacier flow
title_full Theory of lattice Boltzmann simulations of glacier flow
title_fullStr Theory of lattice Boltzmann simulations of glacier flow
title_full_unstemmed Theory of lattice Boltzmann simulations of glacier flow
title_sort theory of lattice boltzmann simulations of glacier flow
publisher Cambridge University Press (CUP)
publishDate 1995
url http://dx.doi.org/10.1017/s0022143000034948
https://www.cambridge.org/core/services/aop-cambridge-core/content/view/S0022143000034948
genre Journal of Glaciology
genre_facet Journal of Glaciology
op_source Journal of Glaciology
volume 41, issue 139, page 634-640
ISSN 0022-1430 1727-5652
op_doi https://doi.org/10.1017/s0022143000034948
container_title Journal of Glaciology
container_volume 41
container_issue 139
container_start_page 634
op_container_end_page 640
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