Title of article :
Finite Element Simulationon Damage and Fracture Properties of a Ring Cut from Filament-Wound Pipes with and without Delamination
Author/Authors :
Ahmad Zaidi, A.M. Universiti Tun Onn Hussein Malaysia - Faculty of Mechanical and Manufacturing Engineering, Malaysia , Abdul Hamid, H. The University of Manchester - School of MACE, Uk , Ghazali, M.I. Universiti Tun Onn Hussein Malaysia - Faculty of Mechanical and Manufacturing Engineering, Malaysia , Abdul Rahman, I. Universiti Tun Onn Hussein Malaysia - Faculty of Civil and Environmental Engineering, Malaysia , Mahzan, S. Universiti Tun Onn Hussein Malaysia - Faculty of Mechanical and Manufacturing Engineering, Malaysia , Yusof, M.S. Universiti Tun Onn Hussein Malaysia - Faculty of Mechanical and Manufacturing Engineering, Malaysia
From page :
61
To page :
66
Abstract :
The technological advances in various industries have increased the demands on new engineered material tremendously since conventional materials such as steel, failed to perform in severe conditions. Nowadays, composite materials especially fibre-reinforced plastic composites (FRP) are broadly being used in many engineering fields to manufacture critical components with high stress concentration, exposure to extreme surrounding or weight constraint. However, they often suffer from a characteristic weakness, i.e. they are prone to interlaminar damage, often in a form delamination. In order to assess the development and the consequences of such damage, interlaminar fracture properties are essential. In this study, the ring cut specimen from filament-wound pipes with and without delamination was modelled and simulated based on experimental work using finite element modelling to further assist the identification and determination of the fracture properties. Investigation also involves the effect of the delamination length to the Energy Release Rate, G. Comparison between 23mm delamination of simulation and experimental results from [7] is presented.
Keywords :
fibre , reinforced plastic composites , finite element , energy release rate
Journal title :
International Journal of Integrated Engineering
Journal title :
International Journal of Integrated Engineering
Record number :
2565308
Link To Document :
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