This paper proposes a numerical method to simulate not only the jet formation process of the conical shaped charge with the inhibitor: approximately 11 km/s aluminum jet, but also the succeeding flight and impact processes onto the target plates. The method is demonstrated by performing a series of
Theoretical Analysis of the Penetration Performance of experimentally measured shaped charge jets
β Scribed by N. Heider
- Publisher
- John Wiley and Sons
- Year
- 1993
- Tongue
- English
- Weight
- 442 KB
- Volume
- 18
- Category
- Article
- ISSN
- 0721-3115
No coin nor oath required. For personal study only.
β¦ Synopsis
Abstract
The cratering process of a shaped charge jet is a complex phenomenon because the jet consists of a series of discrete particles that create separate craters within the target. The cumulative effects taking into account the contribution of all jet particles give the final penetration performance. For a theoretical analysis of the terminal ballistic performance of shaped charge jets, it is therefore necessary to measure experimentally the complete threeβdimensional motion of each jet particle. This can only be done by sophisticated techniques like for example DoubleβOrthogonal SynchroβStreak (DOSST) introduced by Held. Data from such experiments can be used as input for penetration models to calculate the penetration depths of jets. The model used for this analysis includes a description of the crater shape together with an appropriate selection algorithm to find the impact position of a single jet particle within the already formed crater profiles. The calculated values for the penetration performance are compared with the data provided by DOSST experiments from Held.
π SIMILAR VOLUMES