An extension of the model described in a previous work (see Maillet J. B. et al., EPL, 78 (2007) 68001) based on Dissipative Particle Dynamics is presented and applied to a liquid high explosive (HE), with thermodynamic properties mimicking those of liquid nitromethane. Large scale nonequilibrium simulations of reacting liquid HE with model kinetic under sustained shock conditions allow a better understanding of the shock-to-detonation transition in homogeneous explosives. Moreover, the propagation of the reactive wave appears discontinuous since ignition points in the shocked material can be activated by the compressive waves emitted from the onset of chemical reactions
Current phenomenological hydrodynamic reactive flow models, such as Ignition and Growth and Johnson-...
In this thesis, we present a kinetic model in carrying out a simulation of reaction mechanism in por...
A detonation is a combustion-driven shock wave. Typically, a detonation will consist of an inert sho...
International audienceAn extension of the model described in a previous work (see Maillet J. B. et a...
An extension of the model described in a previous work of Maillet, Soulard and Stoltz based on a Dis...
The three dimensional Arbitrary Lagrange Eulerian hydrodynamic computer code ALE3D with fully couple...
Recent experimental and theoretical advances in understanding energy transfer and chemical kinetics ...
We investigate the ignition and dynamics of detonation waves in condensed phase explosives using dir...
AbstractDesign of energetic materials is an exciting area in mechanics and materials science. Energe...
It has long been known that there are fundamental differences between homogeneous and heterogeneous ...
Non-ideal behavior of condensed explosives with metal particle additives has been observed experime...
Hydrocode calculations we used to simulate initiation in single- and double-shock experiments on sev...
High explosives (HE) are used in many fields where the energy liberated by the combustion process is...
Experimental and theoretical evidence for the nonequilibrium Zeldovich-von Neumann-Doring (NEZND) th...
Empirical and phenomenological hydrodynamic reactive flow models, such as the ignition-and-growth an...
Current phenomenological hydrodynamic reactive flow models, such as Ignition and Growth and Johnson-...
In this thesis, we present a kinetic model in carrying out a simulation of reaction mechanism in por...
A detonation is a combustion-driven shock wave. Typically, a detonation will consist of an inert sho...
International audienceAn extension of the model described in a previous work (see Maillet J. B. et a...
An extension of the model described in a previous work of Maillet, Soulard and Stoltz based on a Dis...
The three dimensional Arbitrary Lagrange Eulerian hydrodynamic computer code ALE3D with fully couple...
Recent experimental and theoretical advances in understanding energy transfer and chemical kinetics ...
We investigate the ignition and dynamics of detonation waves in condensed phase explosives using dir...
AbstractDesign of energetic materials is an exciting area in mechanics and materials science. Energe...
It has long been known that there are fundamental differences between homogeneous and heterogeneous ...
Non-ideal behavior of condensed explosives with metal particle additives has been observed experime...
Hydrocode calculations we used to simulate initiation in single- and double-shock experiments on sev...
High explosives (HE) are used in many fields where the energy liberated by the combustion process is...
Experimental and theoretical evidence for the nonequilibrium Zeldovich-von Neumann-Doring (NEZND) th...
Empirical and phenomenological hydrodynamic reactive flow models, such as the ignition-and-growth an...
Current phenomenological hydrodynamic reactive flow models, such as Ignition and Growth and Johnson-...
In this thesis, we present a kinetic model in carrying out a simulation of reaction mechanism in por...
A detonation is a combustion-driven shock wave. Typically, a detonation will consist of an inert sho...