2018International Journal of Lightweight Materials and ManufactureOpen access

A review on modelling techniques for formability prediction of sheet metal forming

Ruiqiang Zhang, Zhutao Shao, Jianguo Lin

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Abstract

With an increasing demand for lightweight design of vehicles in automotive and aircraft industries, sheet metals with low density and high strength have been widely and intensively used in forming lightweight structural panel components. Formability is a critical material property in describing deformation ability of sheet metals, and it is usually evaluated by a forming limit diagram (FLD) determined at various forming conditions. FLDs for metallic material are usually obtained experimentally, which is time-consuming and costly. Numbers of theoretical and numerical models have been developed and used to predict the formability of sheet metals. These modelling techniques are primarily developed based on bifurcation theory, geometrical imperfection theory and continuum damage mechanics. This paper covers a comprehensive review of modelling methods used for the formability prediction of lightweight materials for sheet metal forming applications.

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With an increasing demand for lightweight design of vehicles in automotive and aircraft industries, sheet metals with low density and high strength have been widely and intensively used in forming lightweight structural panel components. Formability is a critical material property in describing deformation ability of sheet metals, and it is usually evaluated by a forming limit diagram (FLD) determined at various forming conditions. FLDs for metallic material are usually obtained experimentally, which is time-consuming and costly. Numbers of theoretical and numerical models have been developed and used to predict the formability of sheet metals. These modelling techniques are primarily developed based on bifurcation theory, geometrical imperfection theory and continuum damage mechanics. This paper covers a comprehensive review of modelling methods used for the formability prediction of lightweight materials for sheet metal forming applications.

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Available abstract

With an increasing demand for lightweight design of vehicles in automotive and aircraft industries, sheet metals with low density and high strength have been widely and intensively used in forming lightweight structural panel components. Formability is a critical material property in describing deformation ability of sheet metals, and it is usually evaluated by a forming limit diagram (FLD) determined at various forming conditions. FLDs for metallic material are usually obtained experimentally, which is time-consuming and costly. Numbers of theoretical and numerical models have been developed and used to predict the formability of sheet metals. These modelling techniques are primarily developed based on bifurcation theory, geometrical imperfection theory and continuum damage mechanics. This paper covers a comprehensive review of modelling methods used for the formability prediction of lightweight materials for sheet metal forming applications.

Key concepts: Formability, Forming limit diagram, Sheet metal, Materials science, Stamping, Incremental sheet forming, Material properties, Deformation (meteorology)

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