Finite element analysis to optimize forming conditions for lower control arm

Youngsuk Kim; Hyunsung Son; Junyoung Park; Seogou Choi; Seunghan Yang

doi:10.1007/BF02586226

Finite element analysis to optimize forming conditions for lower control arm

Youngsuk Kim
, Hyunsung Son
, Junyoung Park
, Seogou Choi
, Seunghan Yang

School of Mechanical Engineering

Research output: Contribution to journal › Article › peer-review

9 Scopus citations

Abstract

Finite element simulations for the press forming of a lower arm are performed using the explicit dynamic finite element method (FEM) code PAM-STAMP. To optimize the press-forming conditions and secure a safe product without any failure, such as fractures and wrinkling, the FEM simulations are coupled with Taguchi's orthogonal array experiment. Three design variables - the friction coefficient, plastic anisotropy parameter, and blank shape - are selected to be optimized. The numeric simulations reveal that the blank shape is the most important variable, and its modification is most effective in optimizing the press-forming conditions for a lower arm. In addition, the modified blank shape produces a high yield ratio for the in-come coil. The simulation results are confirmed with experimental ones.

Original language	English
Pages (from-to)	2539-2547
Number of pages	9
Journal	Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science
Volume	37
Issue number	8
DOIs	https://doi.org/10.1007/BF02586226
State	Published - Aug 2006

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10.1007/BF02586226

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title = "Finite element analysis to optimize forming conditions for lower control arm",

abstract = "Finite element simulations for the press forming of a lower arm are performed using the explicit dynamic finite element method (FEM) code PAM-STAMP. To optimize the press-forming conditions and secure a safe product without any failure, such as fractures and wrinkling, the FEM simulations are coupled with Taguchi's orthogonal array experiment. Three design variables - the friction coefficient, plastic anisotropy parameter, and blank shape - are selected to be optimized. The numeric simulations reveal that the blank shape is the most important variable, and its modification is most effective in optimizing the press-forming conditions for a lower arm. In addition, the modified blank shape produces a high yield ratio for the in-come coil. The simulation results are confirmed with experimental ones.",

author = "Youngsuk Kim and Hyunsung Son and Junyoung Park and Seogou Choi and Seunghan Yang",

year = "2006",

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T1 - Finite element analysis to optimize forming conditions for lower control arm

AU - Kim, Youngsuk

AU - Son, Hyunsung

AU - Park, Junyoung

AU - Choi, Seogou

AU - Yang, Seunghan

PY - 2006/8

Y1 - 2006/8

N2 - Finite element simulations for the press forming of a lower arm are performed using the explicit dynamic finite element method (FEM) code PAM-STAMP. To optimize the press-forming conditions and secure a safe product without any failure, such as fractures and wrinkling, the FEM simulations are coupled with Taguchi's orthogonal array experiment. Three design variables - the friction coefficient, plastic anisotropy parameter, and blank shape - are selected to be optimized. The numeric simulations reveal that the blank shape is the most important variable, and its modification is most effective in optimizing the press-forming conditions for a lower arm. In addition, the modified blank shape produces a high yield ratio for the in-come coil. The simulation results are confirmed with experimental ones.

AB - Finite element simulations for the press forming of a lower arm are performed using the explicit dynamic finite element method (FEM) code PAM-STAMP. To optimize the press-forming conditions and secure a safe product without any failure, such as fractures and wrinkling, the FEM simulations are coupled with Taguchi's orthogonal array experiment. Three design variables - the friction coefficient, plastic anisotropy parameter, and blank shape - are selected to be optimized. The numeric simulations reveal that the blank shape is the most important variable, and its modification is most effective in optimizing the press-forming conditions for a lower arm. In addition, the modified blank shape produces a high yield ratio for the in-come coil. The simulation results are confirmed with experimental ones.

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JO - Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science

JF - Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science

IS - 8

ER -

Finite element analysis to optimize forming conditions for lower control arm

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