A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure in powder materials. It is shown that the influence of the specific volume behind the shock wave on shock wave velocity and shock pressure decreases with decreasing initial powder density. The new model is compared with experimental data of various materials: Fe, Cu, Al, C, UO2, Ce2O3, SiO2 (quartz), NaCl, and polystyrene. It is concluded that the model holds in particular for initial powder densities less than 50% and for flyer plate velocities up to 5 km/s
A physically based model for the shock Hugoniot of a powdered material is described which allows sep...
A simple analytical model is developed for the shock Hugoniot of a powdered material. Previous model...
A dynamical high velocity pressure on powder is easily produces higher pressure than that of statica...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
A physically based model for the shock Hugoniot of a powdered material is described which allows sep...
A simple analytical model is developed for the shock Hugoniot of a powdered material. Previous model...
A dynamical high velocity pressure on powder is easily produces higher pressure than that of statica...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A novel approach is presented to predict the shock wave velocity as well as the shock wave pressure ...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
A model is proposed to predict the following quantities for powder materials compacted by shock wave...
For powder materials a model is proposed to predict the mean temperature behind the shock wave, the ...
A physically based model for the shock Hugoniot of a powdered material is described which allows sep...
A simple analytical model is developed for the shock Hugoniot of a powdered material. Previous model...
A dynamical high velocity pressure on powder is easily produces higher pressure than that of statica...