Simulation and Experimental Study of the Explosion of A Small High-Light Detonation Bomb

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In order to carry out the analysis of the use safety of a small high-light detonation bomb, a simulation model of the bomb's explosive body was established based on the LS-DYNA platform. By simulating the burst process through LS-DYNA, the fragmentation distribution pattern and velocity variation were studied, and the kill radius of the projectile was evaluated. The results show that the bullet fragmentation size distribution is not uniform, and the large mass of low-velocity fragments generated in the middle of the explosive body is the main source of kill, and the kill radius is less than 1m. This study lays a theoretical foundation for the development and application of small high-light detonation bomb, and has a certain reference value for the research and design of the same type of ammunition.

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99-106

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June 2025

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© 2025 Trans Tech Publications Ltd. All Rights Reserved

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[1] Ba Shuhong, Jiao Qingjie, Du Zhiming. Research on blinding Ammunition technology by strong light [J]. Energetic materials,2006(02):118-122.

Google Scholar

[2] Shwaery GT, Schaefer R, Grapperhaus M, et al. Non-lethal combined flash and sound pulse projector for counter-personnel and crowd control[C]. Proceedings of SPIE, 2006, 6219: 621901-621908.

DOI: 10.1117/12.663902

Google Scholar

[3] Stocker H. Non-Lethal Weapons:Opportunities for R&D [R]. Valcartier: Directorate of Science and Technology Policy, 2004.

Google Scholar

[4] N Davison. The Early History of 'Non-Lethal' Weapons[M]. Palgrave Macmillan UK, 2009.

Google Scholar

[5] Guo Sanxue. Design and Application of Prefabricated Fragments of Flash Detonation Projectile [J]. Journal of Projectiles, Arrows and Guidance JU Pinghua,2016,36(03):40-42.

Google Scholar

[6] Yu Zhi-tong, Shi Dong-mei, SHANG Chun-ming, SHI Yong-xiang, Li Wen-zhao. Simulation study on Explosion of V-grooved prefabricated fragment Fighting Section [J]. Journal of Ordnance Equipment Engineering,2019,40(04):159-162.

Google Scholar

[7] Fan Zhuangqing, Wang Weili, Huang Xuefeng, Fu Lei, Jiang Yingzi. Simulation analysis of Typical Cabin Explosion [J]. Engineering blasting,2015,21(03):13-17.

Google Scholar

[8] Zhang Guoqiang, Ma Yongzhong, Cheng Cheng, Yang Feng. Simulation of damage Radius caused by shock wave overpressure of a High-light detonation bomb [J]. Computer Simulation,2014,31(09): 19-23.

Google Scholar

[9] Zhao Zheng. Numerical Simulation of Explosive Compaction and detonation process using LS-DYNA [A]. Explosive Mechanics Committee of Chinese Society of Mechanics. Progress in computational explosion Mechanics [C]. Special Committee of Explosion Mechanics of Chinese Society of Mechanics: Chinese Society of Mechanics,2006:5.

DOI: 10.4028/www.scientific.net/amm.553.780

Google Scholar

[10] Zhang Xinlei, Zhou Yunbo, Wang Xianhui, Wang Zongqian. Comparison of Simulation Methods for Impact of Shallow buried Explosive on target plate [J]. Blasting,2016,33(04):46-50.

Google Scholar