Investigation into Damage of Woven Stuffed Shield Impacted by High-Velocity Nonmetallic Projectile

doi:10.11901/1005.3093.2015.334

Chinese Journal of Materials Research

2016, Vol. 30

Issue (5): 329-335 DOI: 10.11901/1005.3093.2015.334

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Investigation into Damage of Woven Stuffed Shield Impacted by High-Velocity Nonmetallic Projectile

GUAN Gongshun^**(

), LI Hangjie, LIU Jiahe, ZENG Ming

Department of Astronautics Engineering, Harbin Institute of Technology, Harbin 150080, China

Cite this article:

GUAN Gongshun, LI Hangjie, LIU Jiahe, ZENG Ming. Investigation into Damage of Woven Stuffed Shield Impacted by High-Velocity Nonmetallic Projectile. Chinese Journal of Materials Research, 2016, 30(5): 329-335.

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Abstract

A two-stage light gas gun is used to launch nonmetallic projectiles, which were heated cyclically before launch, impacting on woven stuffed shield. The damage model of woven stuffed shield impacted by projectiles of different materials was acquired. The effect of cyclic heating of nonmetallic projectile on the fragmentation characteristics of the projectile and the damage of woven stuffed shield was investigated. The nonmetallic projectile was heated cyclically in a temperature range of 20-150℃. Impact velocities of projectile varied in a range of 1.52-3.26 km/s. The impact angle was 0°. The results indicate that the perforation diameter of thin Al-plate impacted by ceramic projectile is smaller than that by Al-sphere when the size of the two projectiles are the same. The cyclically heated projectiles of ceramic and nylon can cause larger center impact perforations of woven stuffed bumper. Furthermore, the cyclic heating could enhance the damage capability of ceramic projectile but weaken that of nylon projectile on woven stuffed shield.

Key words: inorganic non-metallic materials non metallic projectile cyclic heating high-velocity impact woven bumper damage

Received: 11 June 2015

ZTFLH:

V423.41O347

Fund: *Supported by National Nature Science Foundation of China No.11172083

About author: **To whom correspondence should be addressed, Tel: (0451)86417978, E-mail: hitggsh@163.com

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	Gongshun GUAN
	Hangjie LI
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https://www.cjmr.org/EN/10.11901/1005.3093.2015.334 OR https://www.cjmr.org/EN/Y2016/V30/I5/329

Fig.1 Woven stuffed shield in the test

Table 1 Materials and test conditions of non metallic projectiles and woven stuffed walls

Fig.2 Damage results of woven stuffed shields impacted by high-velocity ceramic projectile (a) no cyclic heating, v_p=1.69 km/s; (b) cyclic heating, v_p=1.68 km/s; (c) no cyclic heating, v_p=3.25 km/s; (d) cyclic heating, v_p=3.01 km/s

Fig.3 Damage results of woven stuffed shields impacted by high-velocity nylon projectile (a) no cyclic heating, v_p=1.67 km/s; (b) cyclic heating, v_p=1.52 km/s; (c) no cyclic heating, v_p=3.13 km/s; (d) cyclic heating, v_p=3.05 km/s

Fig.4 Relationship between perforation size of thin AL-plate and kinetic energy (a) variation of (D_h-d_p) with E_i, (b) variation of (D_h-d_p)/d_p with E_i

Fig.5 Relationship between perforation diameter of thin AL-plate impacted by ceramic projectile and impact velocity

Fig.6 Relationship between perforation diameter of thin AL-plate impacted by nylon projectile and impact velocity

Fig.7 Relationship between damage of stuffed wall and impact velocity for ceramic projectile (a) variation of D_FLT or D_LLT with v_p, (b) variation of D_FXT or D_LXT with v_p

Fig.8 Relationship between damage of stuffed wall and impact velocity for nylon projectile (a) variation of D_FLN or D_LLN with v_p, (b) variation of D_FXN or D_LXN with v_p

Fig.9 Relationship between damage of rear wall and impact velocity for ceramic projectile (a) variation of H_BT or D_T with v_p, (b) variation of D_99T with v_p

Fig.10 Relationship between damage of rear wall and impact velocity for nylon projectile (a) variation of H_BN with v_p, (b) variation of D_99N with v_p

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