A FEM Study on Adiabatic Shear Band Formation in Tube Compression Driven by Electro-Magnetic Loading

The adiabatic shear bands (ASB) of the thick-walled cylinder have been studied by many researchers in the recent years. The onset and evolutions of the multiple shear failure of metal cylinder under explosive loadings are affected by many factors such as the characteristics of the impulsive loadings...

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Veröffentlicht in:Applied Mechanics and Materials 2014-06, Vol.566 (Proceedings of the 8-th International Symposium on Impact Engineering), p.517-521
Hauptverfasser: Fu, Ying Qian, Zhou, Feng Hua, Dong, Xin Long, Li, Lai Ze
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creator Fu, Ying Qian
Zhou, Feng Hua
Dong, Xin Long
Li, Lai Ze
description The adiabatic shear bands (ASB) of the thick-walled cylinder have been studied by many researchers in the recent years. The onset and evolutions of the multiple shear failure of metal cylinder under explosive loadings are affected by many factors such as the characteristics of the impulsive loadings, the dynamic behavior of the materials, etc. In this work, a tube compression driven by electro-magnetic forces is introduced, which enables to carry out the experiments of the spontaneous evolution of multiple adiabatic shear bands in metal tube. The FEM simulation was conducted to investigate the evolution process of strain localization with coupled thermo-mechanical analysis. The FEM results show that ASB initiates when the stress drops rapidly and strain growth and not when it reaches the maximum shear stress. Once the shear band is formed, elastic unloading occurs beside the shear band. The different behaviors of the damage introduced in the strain softening model affect the initial nucleation strain and the distribution of ASBs. With the increase of material damage softening, the initial strain of shear band decreases and the number of shear bands increases.
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subjects Adiabatic flow
Computer simulation
Cylinders
Evolution
Mathematical models
Slip bands
Strain
Tubes
title A FEM Study on Adiabatic Shear Band Formation in Tube Compression Driven by Electro-Magnetic Loading
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