Ballistic limit prediction on nacre shell using numerical simulation approach

An investigation has been carried out to predict the ballistic limit velocity for blunt and hemispherical projectile using mesh sensitivity technique analysis. The finite element simulation is done using ANSYS Explicit Dynamics software. The Drucker-Prager material model is employed to predict the b...

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Main Authors: Abdul Rahman, Muhammad Faisal, Kamarudin, Kamarul Azhar, Dahlan, Hendery, Mohamed Hattab, Mohamed Nasrul
Format: Article
Language:English
Published: FAZ Publishing 2020
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Online Access:http://eprints.uthm.edu.my/6392/1/AJ%202020%20%28836%29.pdf
http://eprints.uthm.edu.my/6392/
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spelling my.uthm.eprints.63922022-01-30T08:30:10Z http://eprints.uthm.edu.my/6392/ Ballistic limit prediction on nacre shell using numerical simulation approach Abdul Rahman, Muhammad Faisal Kamarudin, Kamarul Azhar Dahlan, Hendery Mohamed Hattab, Mohamed Nasrul TA Engineering (General). Civil engineering (General) An investigation has been carried out to predict the ballistic limit velocity for blunt and hemispherical projectile using mesh sensitivity technique analysis. The finite element simulation is done using ANSYS Explicit Dynamics software. The Drucker-Prager material model is employed to predict the ballistic limit velocity since it is suitable for brittle material properties. Meshing with various cube element sizes are used to predict the ballistic limit velocity for projectiles. The initial impact velocity is set at 50m/s to obtain the graph of residual velocity against a number of the element for the blunt and hemispherical projectile. The stable mesh sizing for blunt projectile is taken at residual velocity of 43.82m/s, while the stable mesh sizing for hemispherical projectile is taken at residual velocity of 44.47m/s. The results of ballistic limit velocity for blunt and hemispherical projectiles are 7.5m/s and 12.5m/s respectively. The ballistic limit velocity for hemispherical projectile is 10% higher than the blunt projectile, due to the hemispherical projectile tensile damage whereas the blunt projectile created a shear failure. FAZ Publishing 2020 Article PeerReviewed text en http://eprints.uthm.edu.my/6392/1/AJ%202020%20%28836%29.pdf Abdul Rahman, Muhammad Faisal and Kamarudin, Kamarul Azhar and Dahlan, Hendery and Mohamed Hattab, Mohamed Nasrul (2020) Ballistic limit prediction on nacre shell using numerical simulation approach. Advanced Research in Natural Fibers, 2 (1). pp. 25-29. ISSN 2682-7409
institution Universiti Tun Hussein Onn Malaysia
building UTHM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tun Hussein Onn Malaysia
content_source UTHM Institutional Repository
url_provider http://eprints.uthm.edu.my/
language English
topic TA Engineering (General). Civil engineering (General)
spellingShingle TA Engineering (General). Civil engineering (General)
Abdul Rahman, Muhammad Faisal
Kamarudin, Kamarul Azhar
Dahlan, Hendery
Mohamed Hattab, Mohamed Nasrul
Ballistic limit prediction on nacre shell using numerical simulation approach
description An investigation has been carried out to predict the ballistic limit velocity for blunt and hemispherical projectile using mesh sensitivity technique analysis. The finite element simulation is done using ANSYS Explicit Dynamics software. The Drucker-Prager material model is employed to predict the ballistic limit velocity since it is suitable for brittle material properties. Meshing with various cube element sizes are used to predict the ballistic limit velocity for projectiles. The initial impact velocity is set at 50m/s to obtain the graph of residual velocity against a number of the element for the blunt and hemispherical projectile. The stable mesh sizing for blunt projectile is taken at residual velocity of 43.82m/s, while the stable mesh sizing for hemispherical projectile is taken at residual velocity of 44.47m/s. The results of ballistic limit velocity for blunt and hemispherical projectiles are 7.5m/s and 12.5m/s respectively. The ballistic limit velocity for hemispherical projectile is 10% higher than the blunt projectile, due to the hemispherical projectile tensile damage whereas the blunt projectile created a shear failure.
format Article
author Abdul Rahman, Muhammad Faisal
Kamarudin, Kamarul Azhar
Dahlan, Hendery
Mohamed Hattab, Mohamed Nasrul
author_facet Abdul Rahman, Muhammad Faisal
Kamarudin, Kamarul Azhar
Dahlan, Hendery
Mohamed Hattab, Mohamed Nasrul
author_sort Abdul Rahman, Muhammad Faisal
title Ballistic limit prediction on nacre shell using numerical simulation approach
title_short Ballistic limit prediction on nacre shell using numerical simulation approach
title_full Ballistic limit prediction on nacre shell using numerical simulation approach
title_fullStr Ballistic limit prediction on nacre shell using numerical simulation approach
title_full_unstemmed Ballistic limit prediction on nacre shell using numerical simulation approach
title_sort ballistic limit prediction on nacre shell using numerical simulation approach
publisher FAZ Publishing
publishDate 2020
url http://eprints.uthm.edu.my/6392/1/AJ%202020%20%28836%29.pdf
http://eprints.uthm.edu.my/6392/
_version_ 1738581487151742976
score 13.211869