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Comprehensive Assessment of Potential Threats to All Kinds of Events Arising from the Explosion of Pipe Bomb

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Abstract:

In the area of terrorism, there are many methods of attack. Among the most destruction it includes the use of IEDs. IED equipment is placed or made improvised way in which the active substance is explosive. The explosive is usually located either in bulk or in metal packaging (tube or artillery shell). When an explosion occurs in addition to standard effects such as explosion explosive pressure wave seismic wave and sound wave and shrapnel from explosives packaging. The comprehensive safety assessment is therefore necessary to take into account the greatest perimeter threat. It means to assess the size of the pressure shock wave range missile fragments and their energies mainly with regard to living organisms. In my work I have tried to create a set of formulas and graphs on a comprehensive assessment of potential threats to all kinds of events arising from the explosion of pipe bomb.

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Periodical:

Key Engineering Materials (Volume 755)

Pages:

219-228

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.755.219

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Cite this paper

Online since:

September 2017

Authors:

Stanislav Lichorobiec, Vladimir Kavický, Lucia Figuli*

Keywords:

Blast Effect, Improvised Explosive Device, Shaped Charge, Terrorisms, Tube Bomb

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© 2017 Trans Tech Publications Ltd. All Rights Reserved

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References

[1] S. Lichorobiec. Alternative development of projectiles to deactivate the explosive means explosive systems - pipe bombs. Communications, Žilinská univerzita, 2011, s. 20-25, ISSN 1335-4205.

DOI: 10.26552/com.c.2011.2.20-25

Google Scholar

[2] S. Lichorobiec. Špinavá bomba a možnosti její likvidace. 112 Odborný časopis požární ochrany, IZS a ochrany obyvatelstva, Ministerstvo vnitra GŘ hasičského záchranného sboru, 2009, s. 32-33, ISSN 1213-7057.

Google Scholar

[3] Š. Jangl, – V. Kavický, 2012. Ochrana pred účinkami výbuchov výbušnín a nástražných výbušných systémov. Žilina, (2012).

Google Scholar

[4] D. Makovička, – B. Janovský, a kol. 2008. Příručka protivýbuchové ochrany staveb. ČVUT v Praze, Kloknerův ústav. Praha, (2008).

Google Scholar

[5] I. Hrazdíra, M . Kollár. Policejní pyrotechnika, Aleš Čeněk, s. r. o., Praha 2006, ISBN 80-86898-87-3.

Google Scholar

[6] M. Oravec, 2011. Manažérstvo priemyselných havárií. e – skriptá ISBN : 978-80-553-0727-5, ICV TU Košice, (2011).

Google Scholar

[7] Information on www. bozpinfo. cz/priloha/ukazka-prevence-2-dil.

Google Scholar

[8] Fuchs, P. - Novák, J. – Saska, T. Hodnocení rizik. Technická Univerzita Liberec. 2008. Information on http: /www. risk. rss. tul. cz/.. /Hodnoceni%20rizik%20prurez. pp.

Google Scholar

[9] Píšala, J. - Havlová, M. 2012. Možnosti nelegální výroby výbušnin a nebezpečí s ní související. Časopis výzkumu a aplikací v profesionální bezpečnosti [online], 2012, roč. 5, č. 3-4. Information on http: /www. bozpinfo. cz/josra/josra-03-04-2012/rizika-vybusnin. html. ISSN 1803-3687.

Google Scholar

[10] Zeman, S. - Vávra, P. 2009. Energetické materiály – Současnost a trendy vývoje výbušnin. Referát. Chem. Listy 104, 791÷797, 2010. Ústav energetických materiálů, Univerzita Pardubice, Information on ww. upce. cz/fcht/uem/.. /souctrendyvyvvyb. pdf >. ISSN 1803-3687.

Google Scholar

[11] Zeman, S. 2000. Průmyslové (komerční) trhaviny . Sylabus přednášek z Technologie trhavín a třaskavín,. FCHT-KTTV Univerzita Pardubice, (2000).

Google Scholar

[12] Information on <http: /www. explosia. cz/trhaviny/dulni. htm>.

Google Scholar

[13] Information on <http: /www. explosive-service. cz/produkty/trhaviny/jine/polonit-e. htm>.

Google Scholar

[14] Information on <http: /files. pyrotechna. webnode. sk/200000379-4616c47108/trhaviny. doc>.

Google Scholar

[15] ITOP 4-2-822. 2000. Electronic Measurement of Airblast Overpressure. International Test & Evaluation Steering Comitee, (2000).

Google Scholar

[16] VTSÚ-81-44/2010. Pracovný postup merania rázovej vlny pri výbuchu trhavých náloží. VTSÚ Záhorie, (2010).

Google Scholar

[17] Cooper, Paul W. (1996). Acceleration, Formation, and Flight of Fragments,. Explosives Engineering. Wiley-VCH. p.385–394. ISBN 0-471-18636-8. Information on. en. wikipedia. org/wiki/Gurney_equations.

Google Scholar

[18] Information on http: /axpro. mines. edu/documents/MNGN%20444_Fragmentation%20and%20Safety%20Distances%20_Examples. pdf.

Google Scholar

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