Compaction of high-velocity metal elements produced by shaped charges through the magnetic pulse action

Article

Published: 01.08.2024

Authors: Fedorov S.V., Bolotina I.A., Gorelov V.I., Strukov Yu.A.

Published in issue: #8(152)/2024

DOI: 10.18698/2308-6033-2024-8-2375

Category: Mechanics | Chapter: Mechanics of Deformable Solid Body

High-speed metal elements produced by an explosion could be used to test the rocket and space systems for resistance to the meteoroids and space debris fragments impact. Microdamage accumulation resulting from intense plastic deformation leads to a decrease in average density of the high-speed elements formed during explosive compression of the profiled metal liners. The paper proposes to introduce action on the elements of the magnetic field produced along the motion trajectory before interaction with the target to compact such elements in testing the anti-meteor protection with their help. Based on numerical simulation within the framework of one-dimensional axisymmetric problem of continuum mechanics and electrodynamics, the paper studies physical processes occurring in the porous conducting elasto-plastic cylinder placed in the magnetic field. Using this model, magnetic pulse parameters required in steel and aluminum elements compaction were determined.

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