Modelling and Analysis Library Development for Helicopter Blade and Slender Wings

In this study, we suggest a framework for optimal design of a composite wing structure with a high aspect ratio at the initial design stage. The optimization framework calculates allowances in the first ply failure, buckling failure and bearing-bypass failure, which are frequent failure modes in the...

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Main Authors: Sang Ho AHN, Jun Hwan JANG
Format: Article
Language:English
Published: National Institute for Aerospace Research “Elie Carafoli” - INCAS 2020-09-01
Series:INCAS Bulletin
Subjects:
Online Access:https://bulletin.incas.ro/files/ahn__jang__vol_12_iss_3.pdf
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spelling doaj-ffaf81a78a97437f928d671aea41fbd02020-11-25T03:19:05ZengNational Institute for Aerospace Research “Elie Carafoli” - INCASINCAS Bulletin2066-82012247-45282020-09-0112331610.13111/2066-8201.2020.12.3.1Modelling and Analysis Library Development for Helicopter Blade and Slender WingsSang Ho AHN0Jun Hwan JANG11Department of Mechanical & Automotive Engineering, Shinhan University, Korea, drshahn@naver.com2Mechanical Design Major Department of Mechanical Engineering, Yuhan University, Gyeonggi-do, Korea, bulbearj@gmail.comIn this study, we suggest a framework for optimal design of a composite wing structure with a high aspect ratio at the initial design stage. The optimization framework calculates allowances in the first ply failure, buckling failure and bearing-bypass failure, which are frequent failure modes in the wing structure, using the laminate pattern database built up through past design experiences, and optimizes the weight of the wing structure within the range of the economic minimal safety margin. In order to verify the optimization framework, finite element analysis for the wing structure of an unmanned air vehicle was configured. Subsequently, static analysis and stability analysis were performed to verify robustness and reliability of the optimization framework by entering the composite material laminate data created from the optimization framework into the finite element model of the wing of an unmanned air vehicle. The optimization framework suggested in this study is an automated algorithm that can carry out sizing of various shapes composed of composite material from the concept design stage, and thus reduce the revised and repeated design time.https://bulletin.incas.ro/files/ahn__jang__vol_12_iss_3.pdfslender wingcompositehelicopter bladedimensional reductiondimensional recovery
collection DOAJ
language English
format Article
sources DOAJ
author Sang Ho AHN
Jun Hwan JANG
spellingShingle Sang Ho AHN
Jun Hwan JANG
Modelling and Analysis Library Development for Helicopter Blade and Slender Wings
INCAS Bulletin
slender wing
composite
helicopter blade
dimensional reduction
dimensional recovery
author_facet Sang Ho AHN
Jun Hwan JANG
author_sort Sang Ho AHN
title Modelling and Analysis Library Development for Helicopter Blade and Slender Wings
title_short Modelling and Analysis Library Development for Helicopter Blade and Slender Wings
title_full Modelling and Analysis Library Development for Helicopter Blade and Slender Wings
title_fullStr Modelling and Analysis Library Development for Helicopter Blade and Slender Wings
title_full_unstemmed Modelling and Analysis Library Development for Helicopter Blade and Slender Wings
title_sort modelling and analysis library development for helicopter blade and slender wings
publisher National Institute for Aerospace Research “Elie Carafoli” - INCAS
series INCAS Bulletin
issn 2066-8201
2247-4528
publishDate 2020-09-01
description In this study, we suggest a framework for optimal design of a composite wing structure with a high aspect ratio at the initial design stage. The optimization framework calculates allowances in the first ply failure, buckling failure and bearing-bypass failure, which are frequent failure modes in the wing structure, using the laminate pattern database built up through past design experiences, and optimizes the weight of the wing structure within the range of the economic minimal safety margin. In order to verify the optimization framework, finite element analysis for the wing structure of an unmanned air vehicle was configured. Subsequently, static analysis and stability analysis were performed to verify robustness and reliability of the optimization framework by entering the composite material laminate data created from the optimization framework into the finite element model of the wing of an unmanned air vehicle. The optimization framework suggested in this study is an automated algorithm that can carry out sizing of various shapes composed of composite material from the concept design stage, and thus reduce the revised and repeated design time.
topic slender wing
composite
helicopter blade
dimensional reduction
dimensional recovery
url https://bulletin.incas.ro/files/ahn__jang__vol_12_iss_3.pdf
work_keys_str_mv AT sanghoahn modellingandanalysislibrarydevelopmentforhelicopterbladeandslenderwings
AT junhwanjang modellingandanalysislibrarydevelopmentforhelicopterbladeandslenderwings
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