基于变形圆筒实验的扁平管组件能量输出效率研究

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摘要膨胀管分离装置是航天运载器上一种常用的线式分离装置，其能量源为扁平管组件（炸药索、填充物和扁平管）。为研究扁平管组件的能量输出效率，首先，通过实验的方法，将扁平管组件插入1060纯铝筒中，测量铝筒外壁特征点的速度和位移变化历程，并将实验后的实验件进行线切割，测量其内径的变化。对上述实验过程进行有限元仿真分析，仿真结果与实验结果对应得较好。进而通过仿真分析结果获得铝筒的塑性变形能，作为扁平管组件输出的有效能量，其占炸药总能量的比值为能量输出效率，得到扁平管组件的能量输出效率约为22.8%。最后，在有限元分析中改变填充物的材料参数，发现在一定参数范围内，扁平管组件的能量输出效率随填充物的密度、弹性模量和泊松比的增加而增加。

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	冯丽娜1
	李东2
	田建东1
	曲展龙1
	孙璟1

关键词 ：扁平管组件, 变形圆筒实验, 塑性变形能, 能量输出效率, 有限元分析

Abstract：The expanding tube separation device is a commonly used linear separation device on space launch vehicle, whose energy source is a flat tube assembly including explosive cord, filler and a flat tube.Here, to study the energy output efficiency of the flat tube assembly, firstly it was inserted into a 1060 pure aluminum cylinder with the experiment method.Then velocity and displacement time histories of characteristic points on outer wall of the aluminum cylinder were measured.Wire cutting was done for specimens after experiment to measure their inner diameter’s variation.The above experimental process was simulated with the finite element method.The simulation results agreed well with experimental ones.The plastic strain energy of the aluminum tube was obtained by the finite element simulation, and taken as the effective energy output by the flat tube assembly, and its ratio to the total energy of explosive was the energy output efficiency of the flat tube assembly.Results showed that the energy output efficiency of the flat tube assembly is about 22.8%; within a certain filler’s material parameter range, the energy output efficiency of flat tube assembly increases with increase in filler’s density, modulus and Poisson’s ratio.

Key words： flat tube assembly deformable cylinder experiment plastic strain energy energy output efficiency finite element analysis

收稿日期: 2019-06-10 出版日期: 2020-11-28

引用本文:

冯丽娜1，李东2，田建东1，曲展龙1，孙璟1. 基于变形圆筒实验的扁平管组件能量输出效率研究[J]. 振动与冲击, 2020, 39(23): 176-181.
FENG Lina1, LI Dong2, TIAN Jiandong1, QU Zhanlong1, SUN Jing1. Energy output efficiency of flat tube assembly based on deformable cylinder experiment. JOURNAL OF VIBRATION AND SHOCK, 2020, 39(23): 176-181.

链接本文:

http://jvs.sjtu.edu.cn/CN/ 或 http://jvs.sjtu.edu.cn/CN/Y2020/V39/I23/176

[1] 陈韬, 郭龙飞, 赵振等, 低冲分离装置引导阶段动力学建模与实验研究[J], 宇航总体技术, 2017,1(3):44-53.
CHEN Tao, GUO Longfei, ZHAO Zhen, et al. Dynamic Model and Experimental Study of Low-shock Separation Device. Astronautical Systems Engineering Technology. 2017，1(3): 44-53.
[2] 刘竹生, 王小军, 朱学昌, 王国辉等. 航天火工装置[M]. 中国宇航出版社. 2012.
LIU Zhusheng, WANG Xiaojun. ZHU Xuechang et al. Aerospace Firework Device[M]. China Aerospace Publishing House.2012.
[3] Gurney R W. The Initial Velocities of Fragments from Bombs, Shells and Grenades[R]:BRL, 1943: BRL Report No 405.
[4] Jean-Francois Danel and Luc Kazandjian.A Few Remarks About the Gurney Energy of Condensed Explosives. Propellants,Explosives ,Pyrotechnics, 2004,29(5):314-316.
[5] Mathieu, Didier. Prediction of Gurney Parameters Based on an Analytic Description of the Expanding Products[J]. Journal of Energetic Materials, 2015, 33(2):102-115.
[6] Grisaro H , Dancygier A N . Numerical study of velocity distribution of fragments caused by explosion of a cylindrical cased charge[J]. International Journal of Impact Engineering, 2015, 86:1-12.
[7] Yuan Li，Shihui Xiong, Xiaogang Li, Yuquan Wen. Mechanics of velocity enhancement of asymmetrically two lines initiated warhead. International Journal of Impact Engineering,2018:S0734743X18305517-.
[8] Xuanyi An, Jiayun Liu, Ping Ye, et al. Axial distribution characteristics of fragments of the warhead with a hollow core. International Journal of Impact Engineering, 2018:S0734743X18304433-.
[9] Scilly N F. Measurement of the Explosive Performance of High Explosives[J].Journal of Loss Prevention in the Process Industries, 1995, 8(5): 265-273.
[10] 郑思友，周易坤. 工业炸药作功能力测试方法终述. 煤矿爆破，2009,2:22-26.
ZHENG Siyou, ZHOU Yikun. Summary on Power Test Method of Industrial Explosives. Coal Mine Blasting. 2009,2:22-26.
[11] 王肇中, 李国仲. 工业炸药作功能力测试标准方法探讨[J]. 国防技术基础, 2009(8):16-20.
WANG Zhaozhong, LI Guozhong. Discussion on Standard Methods for Work Ability Testing of Industrial Explosives. National Defense Technology Foundation, 2009,8:16-20.
[12] 董春海, 铅铸法测试工业炸药作功能力探讨, 爆破, 2003,20: 120-121.
DONG Chunhai. Discussion of lead-cast Method to Test the Capability of Industry Explosive’s Making Strength. Blasting, 2003, 20: 120-121.
[13] 柳雯, 王钢. 圆筒试验RDX/HMX基含铝炸药作功能力研究. 中国科技论文, 2016,11:551-553.
LIU Wen, WANG Gang. Study on work ability of RDX/HMX-based aluminized explosive by cylinder test. China Science Paper.2016,11,551-553.
[14] Matyas R, Selesovsky J. Power of TATP Based Explosives[J]. Journal of Hazardous Materials, 2009, 165: 95-99.
[15] 饶国宁. 爆炸能量输出特性及爆炸波与目标作用的研究[D]. 南京理工大学, 2007.
RAO Guoning. Study on the Output Characteristics of Explosive Energy and the Role of Blast Wave and Target[D]. Nanjing University of Science and Technology (2007).
[16] Feng C, Liu Z G. Energy distribution of columnar explosive blasting in rock[J]. Electronic Journal of Geotechnical Engineering, 2014, 19:4221-4231.
[17] 赵建平, 徐国元. 爆炸波特征及能量分配的实验研究[J]. 爆破, 2009, 26(1):1-5.
ZHAO Jianping, CAO Lei. Experimental Study on Characteristics and Energy Distribution of Explosion Wave. BLASTING, 2009,26(1): 1-5.
[18] 曹雷, 爆炸分离过程中保护罩结构能量分配及损伤特性研究 [D]. 长沙:国防科技大学, 2016.
CAO Lei. Study on Energy Distribution and Damage Property of Protecting Retainer during Explosion Separation[D]. Changsha, 2016.
[19] 文学军, 线式爆炸分离碎片飞散安全性研究[D]. 长沙，国防科技大学, 2016.
WEN Xuejun,Separation Security of Fragments During Linear Explosive Separation Process[D]. Changsha.
[20] Lei Cao, Yuliang Lin, Fangyun Lu, et al. Study on energy output efficiency of mild detonating fuse in cylinder tube structure.Materials and Design.2016,92:690–700.
[21] 孙璟, 阳志光. 扁平管分离装置爆炸分离过程仿真和优化[C]。第九届全国爆炸与安全学术会议论文集, 沈阳, 2006: 140-143.
Sun J, Yang Z G. Simulation and Optimization of Explosive Separation Process for Flat Tube Separator[C]. Proceedings of the Ninth National Conference on Explosion and Safety, Shenyang, 2006:140-143.
[22] 宋保永, 吴晗玲, 王帅,等. 膨胀管分离装置设计参数的敏感性分析[J]. 北京理工大学学报, 2013, 33(S2):76-79.
SONG Bao yong, WUHan ling, WANG Shuai, LU Hong li.Design Parameter Sensitivity Analysis of Super*Zip Separation Device. Transactions of Beijing Institute of Technology.2013, 33(S2):76-79.
[23] Choi M, Lee J R, Kong C W. Development of a Numerical Model for an Expanding Tube with Linear Explosive Using AUTODYN[J]. Shock and Vibration,2014,(2014-3-24), 2014, 2014(1):1-10.
[24] 马志国，陈荣，孙璟等. 膨胀管分离装置的分离冲击特性[J]. 弹箭与制导学报。2017(2):99-103.
MA Zhiguo, CHEN Rong, SUN Jing et al.Separation Impact Characteristics of Expansion Tube Separation Device. Journal of Projectiles, Rockets, Missiles and Guidance, 2017(2):99-103.
[25] 冯丽娜，李东，田建东等，扁平管膨胀性能仿真及实验研究[J], 振动与冲击,2018,37(23):155-162.
Feng L N, Li D, Tian J D, et al. Simulation and Tests for Expansion Performance of a flat tube. 2018(37): 149-156.
[26] 高永国，王德辉. 1060铝合金动态力学性能的实验研究. 工具技术，2015,49(10)：48-51.
GAO Yongguo, WANG Dehui. Investigation on Dynamic Mechanical properties of 1060 pure Aluminium.Tool Engineering, 2015(49) :48-51.