Predicting explosion and blast effects: A multi-scale experimental approach

被引:0
|
作者
Trélat S. [1 ]
Sturtzer M.-O. [2 ]
机构
[1] IRSN, Institut De Radioprotection Et De Sûreté Nucléaire
[2] ISI, French German Research Institute of Saint Louis
关键词
Blast wave; Critical infrastructure protection; High explosives; Scaling laws; TNT equivalent;
D O I
10.2495/SAFE-V9-N4-356-370
中图分类号
学科分类号
摘要
critical infrastructures protection evaluation when exposed to terroristic or accidental blast wave propagation represents a core topic of research for the French public institute IrSN and the French-german military research institute ISl. The Institute for radiological Protection and Nuclear Safety (IrSN) and the French-german research Institute of Saint louis (ISl) actively cooperate on the evaluation of pressure effects generated by blast wave propagating in hemispherical geometry. During the past few years, IrSN developed a significant experience on hemispherical blast effect assessment using 42g reference hexomax® charges detonated in contact to a planar surface equipped with different types of pressure sensors (piezo-electric and piezo-resistive). based on this experience, ISl developed an outdoor blast-pad located at its own explosive range: 400g TNT equivalent charges are detonated in a factor 2 up-scaled version of IrSN test configuration. Similar sensors are flush-mounted inside a metallic rail integrated below the concrete pad surface. The objective of this joint work is to improve the knowledge on scaling laws for small plastic explosive charges (Semtex, c4 and hexomax®) and their corresponding TNT equivalencies. To achieve this goal, TNT charges were produced at ISl in order to provide a direct, realistic and reproducible reference at the corresponding scale. In addition, the influence of the pressure gauge technology on the blast characteristics was studied and a methodology was developed to minimize this influence and provide guidelines for results comparison between research institutes. Finally, the pressure profiles were also analysed taking into account the fine structure of the shock interacting with the blast pad surface using high-speed imaging. © 2019 WIT Press.
引用
收藏
页码:356 / 370
页数:14
相关论文
共 50 条
  • [11] A multi-scale approach to simulate the Galaxy
    Zwart, Simon Portegies
    370 YEARS OF ASTRONOMY IN UTRECHT, 2013, 470 : 353 - +
  • [12] A multi-scale approach for data imputation
    Rabin, Neta
    Fishelov, Dalia
    2018 IEEE INTERNATIONAL CONFERENCE ON THE SCIENCE OF ELECTRICAL ENGINEERING IN ISRAEL (ICSEE), 2018,
  • [13] A multi-scale approach to granular materials
    Nicot, F
    Darve, F
    MECHANICS OF MATERIALS, 2005, 37 (09) : 980 - 1006
  • [14] An Multi-scale Edge Detection Approach
    Chen Zhigang
    Cui Yueli
    Chen Aihua
    INTERNATIONAL CONFERENCE ON SOLID STATE DEVICES AND MATERIALS SCIENCE, 2012, 25 : 1616 - 1620
  • [15] A multi-scale approach for seismic tomography
    Wang, B
    Braile, LW
    INTERNATIONAL CONFERENCE ON IMAGE PROCESSING, PROCEEDINGS - VOL II, 1996, : 713 - 716
  • [16] A Multi-Scale Approach to Computational Photonics
    Quandt, A.
    Warmbier, R.
    Manyali, G.
    2012 INTERNATIONAL CONFERENCE ON ELECTROMAGNETICS IN ADVANCED APPLICATIONS (ICEAA), 2012, : 408 - 411
  • [17] A Langevin approach to multi-scale modeling
    Hirvijoki, Eero
    PHYSICS OF PLASMAS, 2018, 25 (04)
  • [18] A multi-scale modeling approach for predicting and mitigating thermal runaway in electric vehicle batteries
    Hemakumar, V. S.
    Chakravarthy, V. J.
    Surendranath, Srigitha
    Gundu, Venkateswarlu
    Prabhu, M. Ramkumar
    Prasad, S. Hari Chandra
    THERMAL SCIENCE AND ENGINEERING PROGRESS, 2024, 56
  • [19] Predicting the Failure Behavior of Textile Composite Laminates by Using a Multi-Scale Correlating Approach
    Deng, Yan
    Chen, Xiuhua
    Wang, Hai
    APPLIED COMPOSITE MATERIALS, 2015, 22 (06) : 757 - 771
  • [20] Predicting the Failure Behavior of Textile Composite Laminates by Using a Multi-Scale Correlating Approach
    Yan Deng
    Xiuhua Chen
    Hai Wang
    Applied Composite Materials, 2015, 22 : 757 - 771