Stability and accuracy of numerical boundary conditions in aeroelastic analysis

This paper analyses the accuracy and numerical stability of coupling procedures in aeroelastic modelling. A two-dimensional model problem assuming unsteady inviscid flow past an oscillating wall leads to an even simpler one-dimensional model problem. Analysis of different numerical algorithms shows...

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Main Author: Giles, M
Format: Journal article
Published: 1997
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author Giles, M
author_facet Giles, M
author_sort Giles, M
collection OXFORD
description This paper analyses the accuracy and numerical stability of coupling procedures in aeroelastic modelling. A two-dimensional model problem assuming unsteady inviscid flow past an oscillating wall leads to an even simpler one-dimensional model problem. Analysis of different numerical algorithms shows that in general the coupling procedures are numerically stable, but care is required to achieve accuracy when using very few time steps per period of natural oscillation of the structure. The relevance of the analysis to fully three-dimensional applications is discussed. © 1997 by John Wiley and Sons, Ltd.
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spelling oxford-uuid:838bd126-0145-415a-805e-89cdefe8c3c12022-03-26T21:44:48ZStability and accuracy of numerical boundary conditions in aeroelastic analysisJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:838bd126-0145-415a-805e-89cdefe8c3c1Symplectic Elements at Oxford1997Giles, MThis paper analyses the accuracy and numerical stability of coupling procedures in aeroelastic modelling. A two-dimensional model problem assuming unsteady inviscid flow past an oscillating wall leads to an even simpler one-dimensional model problem. Analysis of different numerical algorithms shows that in general the coupling procedures are numerically stable, but care is required to achieve accuracy when using very few time steps per period of natural oscillation of the structure. The relevance of the analysis to fully three-dimensional applications is discussed. © 1997 by John Wiley and Sons, Ltd.
spellingShingle Giles, M
Stability and accuracy of numerical boundary conditions in aeroelastic analysis
title Stability and accuracy of numerical boundary conditions in aeroelastic analysis
title_full Stability and accuracy of numerical boundary conditions in aeroelastic analysis
title_fullStr Stability and accuracy of numerical boundary conditions in aeroelastic analysis
title_full_unstemmed Stability and accuracy of numerical boundary conditions in aeroelastic analysis
title_short Stability and accuracy of numerical boundary conditions in aeroelastic analysis
title_sort stability and accuracy of numerical boundary conditions in aeroelastic analysis
work_keys_str_mv AT gilesm stabilityandaccuracyofnumericalboundaryconditionsinaeroelasticanalysis