Ballistic Behavior of High Hardness Perforated Armor Plates Against 7.62 Mm Armor Piercing Projectile
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Date
2014
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Elsevier Ltd.
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Abstract
In this paper, some of the important defeating mechanisms of the high hardness perforated plates against
7.62 x 54 armor piercing ammunition were investigated. The experimental and numerical results identified
three defeating mechanisms effective on perforated armor plates which are the asymmetric forces
deviates the bullet from its incident trajectory, the bullet core fracture and the bullet core nose erosion.
The initial tests were performed on the monolithic armor plates of 9 and 20 mm thickness to verify the
fidelity of the simulation and material model parameters. The stochastic nature of the ballistic tests on
perforated armor plates was analyzed based on the bullet impact zone with respect to holes. Various scenarios including without and with bullet failure models were further investigated to determine the
mechanisms of the bullet failure. The agreement between numerical and experimental results had significantly increased with including the bullet failure criterion and the bullet nose erosion threshold into the
simulation. As shown in results, good agreement between Ls-Dyna simulations and experimental data
was achieved and the defeating mechanism of perforated plates was clearly demonstrated.
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Keywords
Perforated plates, Ballistic simulation, High hardness armor, Johnson–Cook material model, Armor piercing bullet
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Citation
Kılıç, N., Bedir, S., Erdik, A., Ekici, B., Taşdemirci, A. & Güden, M. (2014). Ballistic behavior of high hardness perforated armor plates against 7.62 mm armor piercing projectile. Materials and Design, 63, 427-438. http://dx.doi.org/10.1016/j.matdes.2014.06.030
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OpenCitations Citation Count
66
Source
Materials and Design
Volume
63
Issue
Start Page
427
End Page
438
SCOPUS™ Citations
89
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Web of Science™ Citations
67
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Page Views
930
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Downloads
1741
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