Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel
This work studies the synergies arising from the unique intraply-interlayer dual hybridization of unidirectional cross-ply Ultra-High Molecular Weight Polyethylene (UHMWPE) fiber ballistic panels with composite layers of woven mixed UHMWPE-Carbon (PE-C) on low velocity impact performance with focus...
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sg-ntu-dr.10356-1704102023-09-11T08:18:00Z Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel Zulkifli, Faiz Stolk, Jan Heisserer, Ulrich van der Kamp, Mirre Lim, Jacob Song Kiat Hu, Matthew Xiao School of Materials Science and Engineering Temasek Laboratories @ NTU Engineering::Materials UHMWPE Fiber Carbon Fiber This work studies the synergies arising from the unique intraply-interlayer dual hybridization of unidirectional cross-ply Ultra-High Molecular Weight Polyethylene (UHMWPE) fiber ballistic panels with composite layers of woven mixed UHMWPE-Carbon (PE-C) on low velocity impact performance with focus on back face signature (BFS) changes. Force-displacements curves reveal the unique responses of these hybrid panels upon impact. Our results showed that a front or back-facing PE-C hybrid panel resulted in a substantial 26–29% reduction in BFS relative to the neat PE panel, whereas only a 19% and 10% reduction for the front and back C hybrid panel, respectively. The mixed PE-C composite layers proved to be superior when compared to homogeneous C composite layers in their ability to survive impact without catastrophic failure, thus more effectively contributing to the energy absorption and BFS reduction. Economic Development Board (EDB) This study was supported by DSM Singapore Industrial Pte Ltd and Economic Development Board of Singapore (Grant Ref Number M4062094.070). 2023-09-11T08:18:00Z 2023-09-11T08:18:00Z 2023 Journal Article Zulkifli, F., Stolk, J., Heisserer, U., van der Kamp, M., Lim, J. S. K. & Hu, M. X. (2023). Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel. Applied Composite Materials, 30(2), 323-337. https://dx.doi.org/10.1007/s10443-022-10077-6 0929-189X https://hdl.handle.net/10356/170410 10.1007/s10443-022-10077-6 2-s2.0-85143230148 2 30 323 337 en M4062094.070 Applied Composite Materials © 2022 The Author(s), under exclusive licence to Springer Nature B.V. All rights reserved. |
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Engineering::Materials UHMWPE Fiber Carbon Fiber Zulkifli, Faiz Stolk, Jan Heisserer, Ulrich van der Kamp, Mirre Lim, Jacob Song Kiat Hu, Matthew Xiao Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel |
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This work studies the synergies arising from the unique intraply-interlayer dual hybridization of unidirectional cross-ply Ultra-High Molecular Weight Polyethylene (UHMWPE) fiber ballistic panels with composite layers of woven mixed UHMWPE-Carbon (PE-C) on low velocity impact performance with focus on back face signature (BFS) changes. Force-displacements curves reveal the unique responses of these hybrid panels upon impact. Our results showed that a front or back-facing PE-C hybrid panel resulted in a substantial 26–29% reduction in BFS relative to the neat PE panel, whereas only a 19% and 10% reduction for the front and back C hybrid panel, respectively. The mixed PE-C composite layers proved to be superior when compared to homogeneous C composite layers in their ability to survive impact without catastrophic failure, thus more effectively contributing to the energy absorption and BFS reduction. |
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School of Materials Science and Engineering |
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School of Materials Science and Engineering Zulkifli, Faiz Stolk, Jan Heisserer, Ulrich van der Kamp, Mirre Lim, Jacob Song Kiat Hu, Matthew Xiao |
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Article |
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Zulkifli, Faiz Stolk, Jan Heisserer, Ulrich van der Kamp, Mirre Lim, Jacob Song Kiat Hu, Matthew Xiao |
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Zulkifli, Faiz |
title |
Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel |
title_short |
Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel |
title_full |
Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel |
title_fullStr |
Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel |
title_full_unstemmed |
Unique synergy for low velocity impact deformation reduction in Dyneema®-carbon intraply-interlayer hybrid composite panel |
title_sort |
unique synergy for low velocity impact deformation reduction in dyneema®-carbon intraply-interlayer hybrid composite panel |
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2023 |
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https://hdl.handle.net/10356/170410 |
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1779156771750805504 |