雷管
磁流体驱动
磁流体力学
箔法
高保真
航程(航空)
电压
机械
计算机科学
物理
航空航天工程
机械工程
材料科学
工程类
声学
爆炸物
电气工程
等离子体
核物理学
化学
复合材料
有机化学
作者
William Neal,Christopher J. Garasi
出处
期刊:Nucleation and Atmospheric Aerosols
日期:2017-01-01
卷期号:1793: 080008-080008
被引量:16
摘要
Simulations of high voltage detonators, such as Exploding Bridgewire (EBW) and Exploding Foil Initiators (EFI), have historically been simple, often empirical, one-dimensional models capable of predicting parameters such as current, voltage, and in the case of EFIs, flyer velocity. Experimental methods have correspondingly generally been limited to the same parameters. With the advent of complex, first principles magnetohydrodynamic codes such as ALEGRA and ALE-MHD, it is now possible to simulate these components in three dimensions, and predict a much greater range of parameters than before. A significant improvement in experimental capability was therefore required to ensure these simulations could be adequately verified. In this third paper of a three part study, the experimental results presented in part 2 are compared against 3-dimensional MHD simulations. This improved experimental capability, along with advanced simulations, offer an opportunity to gain a greater understanding of the processes behind the functioning of EBW and EFI detonators.
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