Development of an anisotropic co-rotational beam model including variable cross-section
The aim of this article is to expand the general approach of the flexible beam model to consider tapered geometry and anisotropic properties by updating the cross-sectional stiffness matrix. The advantage of this approach is that continuously variable cross-section, as well as irregular axes on the...
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rr-article-197049702022-01-31T00:00:00Z Development of an anisotropic co-rotational beam model including variable cross-section Hyeongmin Moon (8064818) Haeseong Cho (12495499) Stephanos Theodossiades (1247457) Taeseong Kim (5516717) geometric nonlinearity co-rotational method anisotropic beam sectional stiffness taper effect warping effect The aim of this article is to expand the general approach of the flexible beam model to consider tapered geometry and anisotropic properties by updating the cross-sectional stiffness matrix. The advantage of this approach is that continuously variable cross-section, as well as irregular axes on the cross-sections, are considered simultaneously by the co-rotational method. Anisotropic and isotropic cantilevered beam cases are simulated. A static force or moment is applied as the external load. NREL 5 MW wind turbine blade is analyzed as a practical example. The results are compared against the existing literature and ABAQUS model, and they show excellent agreement. 2022-01-31T00:00:00Z Text Journal contribution 2134/19704970.v1 https://figshare.com/articles/journal_contribution/Development_of_an_anisotropic_co-rotational_beam_model_including_variable_cross-section/19704970 CC BY-NC 4.0 |
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geometric nonlinearity co-rotational method anisotropic beam sectional stiffness taper effect warping effect |
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geometric nonlinearity co-rotational method anisotropic beam sectional stiffness taper effect warping effect Hyeongmin Moon Haeseong Cho Stephanos Theodossiades Taeseong Kim Development of an anisotropic co-rotational beam model including variable cross-section |
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The aim of this article is to expand the general approach of the flexible beam model to consider tapered geometry and anisotropic properties by updating the cross-sectional stiffness matrix. The advantage of this approach is that continuously variable cross-section, as well as irregular axes on the cross-sections, are considered simultaneously by the co-rotational method. Anisotropic and isotropic cantilevered beam cases are simulated. A static force or moment is applied as the external load. NREL 5 MW wind turbine blade is analyzed as a practical example. The results are compared against the existing literature and ABAQUS model, and they show excellent agreement. |
format |
Default Article |
author |
Hyeongmin Moon Haeseong Cho Stephanos Theodossiades Taeseong Kim |
author_facet |
Hyeongmin Moon Haeseong Cho Stephanos Theodossiades Taeseong Kim |
author_sort |
Hyeongmin Moon (8064818) |
title |
Development of an anisotropic co-rotational beam model including variable cross-section |
title_short |
Development of an anisotropic co-rotational beam model including variable cross-section |
title_full |
Development of an anisotropic co-rotational beam model including variable cross-section |
title_fullStr |
Development of an anisotropic co-rotational beam model including variable cross-section |
title_full_unstemmed |
Development of an anisotropic co-rotational beam model including variable cross-section |
title_sort |
development of an anisotropic co-rotational beam model including variable cross-section |
publishDate |
2022 |
url |
https://hdl.handle.net/2134/19704970.v1 |
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1797457763090038784 |