High‐performance hybrid composite to resist AK‐47 hard steel bullets and its efficacy to stop shrapnels under improvised explosive device blast

Abstract This investigation highlights a hybrid composite for bullet and blast protection. The front face of the hybrid composite was made of silicon carbide (SiC), the middle layer of aluminium (Al) Honeycomb and the back face made of para‐aramid fibre—polyetherketoneketone polymer composite, and fabricated by using high temperature epoxy adhesive. The bullet and blast energy were absorbed essentially due to the material configuration of the hybrid composite. SiC forms a hard face layer with high temperature resistance, which absorbs blast energy, blunt shrapnels and resists high temperature. Al Honeycomb absorbs a large amount of energy by deforming itself, and the back layer of polymer composite stops shrapnels. For ballistic tests, a single layer of SiC was used. For the blast test, four layers of SiC were used. The experimental results of ballistic tests proved that the material has been successful in stopping a 7.62 mm hard steel bullet with a speed of 710 m/s fired from a distance of 10 m, which conforms to NIJ level III+. The modified hybrid composite has been successfully tested to withstand improvised explosive device blasts up to 10 kg TNT with 10% shrapnels, with a standoff distance of 5 m, conforming to Level 4 protection specified in STANAG 4569.

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Publication Details

Journal
International Journal of Applied Ceramic Technology
Published
2025-10-26
DOI
https://doi.org/10.1111/ijac.70098
Primary Topic
Structural Response to Dynamic Loads
Type
article
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article

High‐performance hybrid composite to resist AK‐47 hard steel bullets and its efficacy to stop shrapnels under improvised explosive device blast

Jithin Joshi, M. Govindaraju, Kumbhar Avinash Suresh, Shantanu Bhowmik
International Journal of Applied Ceramic Technology
Structural Response to Dynamic Loads
article

High‐performance hybrid composite to resist AK‐47 hard steel bullets and its efficacy to stop shrapnels under improvised explosive device blast

Jithin Joshi, M. Govindaraju, Kumbhar Avinash Suresh, Shantanu Bhowmik
article en

Abstract

Abstract This investigation highlights a hybrid composite for bullet and blast protection. The front face of the hybrid composite was made of silicon carbide (SiC), the middle layer of aluminium (Al) Honeycomb and the back face made of para‐aramid fibre—polyetherketoneketone polymer composite, and fabricated by using high temperature epoxy adhesive. The bullet and blast energy were absorbed essentially due to the material configuration of the hybrid composite. SiC forms a hard face layer with high temperature resistance, which absorbs blast energy, blunt shrapnels and resists high temperature. Al Honeycomb absorbs a large amount of energy by deforming itself, and the back layer of polymer composite stops shrapnels. For ballistic tests, a single layer of SiC was used. For the blast test, four layers of SiC were used. The experimental results of ballistic tests proved that the material has been successful in stopping a 7.62 mm hard steel bullet with a speed of 710 m/s fired from a distance of 10 m, which conforms to NIJ level III+. The modified hybrid composite has been successfully tested to withstand improvised explosive device blasts up to 10 kg TNT with 10% shrapnels, with a standoff distance of 5 m, conforming to Level 4 protection specified in STANAG 4569.

International Journal of Applied Ceramic TechnologyVol. 23(1)
Amrita Vishwa Vidyapeetham (IN)
Openalex Percentile: Top 68%
Structural Response to Dynamic Loads
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