Identification of Johnson-Cook Constitutive Model by Finite Element Analysis

Abstract

Abstract: An inverse approach was applied to identify the material parameters of Johnson-Cook constitutive equation which is largely used for describing materials’ behaviour in previous conditions. The shear experiments over a wide range of temperatures (20-1 000 °C) and strain rates (1-5 000 s-1) and the finite element method simulations were carried out for martensitic stainless steel 410. The goal of the inverse method is to find a parameter array which minimizes the difference between the experimental and numerical forcedisplacement data. The initial parameters are optimized by nonlinear leastsquare method. It is observed that the parameters optimized generally represent well the flow behaviours of material except the damage domain.

Key words: martensitic stainless steed, JohnsonCook model, inverse method, finite element analysis, parameter identification, optimization

CLC Number:

TG113.2

References

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