Modeling Initiation and Detonation of Complex Explosive Formulations

Authors

  • Yehuda Partom

DOI:

https://doi.org/10.14738/aivp.95.10968

Abstract

Since 1980 we’ve developed and used our reactive flow model TDRR (= reactant Temperature Dependent Reaction Rate). TDRR makes it possible to calculate initiation and detonation of a single component explosive. It includes EOSs (Equations of State) for the reactant and products, and a reaction rate equation for the transition from reactant to products. As the EOSs and the reaction rate are calibrated for a certain formulation, say HV5 (95% HMX+5% Viton), it’s not possible to use them for a different formulation of the same materials, say HV15. Here we expand TDRR to handle general formulations with any number of components (explosives, binders and products). We call our expanded model TDRRF (F for Formulation). We first write down the model equations and then use them with two computed examples: 1) HVx and BFx formulations (x=explosive mass ratio, H=HMX, V=Viton, B=TATB, F=kelF) and 2) BHx formulations (x=B mass ratio).

References

Y. Partom, a Void Collapse Model for Shock Initiation, 7 Symposium on Detonation, 506-516 (1981).

Y. Partom, Characteristics Code for Shock Initiation, LANL Report, LA-10773 (1986).

Y. Partom, Surface Burn Model for Shock Initiation, HDP Symposium IV, 161-170 (1995).

Y. Partom, Hydro-Reactive Computations with a Temperature Dependent Reaction Rate, Shock Compression of Condensed Matter, 460-463, Atlanta Georgia (2001).

C.A. Handley et al., Understanding the shock and detonation response of high explosives at the continuum and meso scales, Applied Physics Reviews 5, 10.1063/1.5005997, 2018.

L.G. Hill et al., On the burn topology function of hot-spot initiated reactions, Int. Symp. Of Condensed Matter (2009).

B.M. Dobratz and P.C. Crawford, LLNL explosives handbook, UCRL-52997 (1985). th

A.W, Campbell et al., Customized explosives based on plastic bonded mixtures of TATB and HMX, 7 Symposium on Detonation, 566, 1981.

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Published

2021-10-23

How to Cite

Partom, Y. (2021). Modeling Initiation and Detonation of Complex Explosive Formulations. European Journal of Applied Sciences, 9(5), 311–323. https://doi.org/10.14738/aivp.95.10968

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