Optimization of Microextrusion Preforming Using Taguchi Method

Micropin head geometry significantly influences surface contact and electrical conductivity. In this paper, the preforming process of extrusion is investigated to establish it as a viable process for microforming. Here, the numerical simulations using DEFORM-3D software are used to examine the effec...

Full description

Bibliographic Details
Main Author: Shao-Yi Hsia
Format: Article
Language:English
Published: Hindawi Limited 2013-01-01
Series:Mathematical Problems in Engineering
Online Access:http://dx.doi.org/10.1155/2013/305797
id doaj-7a881a2d56d249fd985d25b5d6c5f6a5
record_format Article
spelling doaj-7a881a2d56d249fd985d25b5d6c5f6a52020-11-24T22:07:27ZengHindawi LimitedMathematical Problems in Engineering1024-123X1563-51472013-01-01201310.1155/2013/305797305797Optimization of Microextrusion Preforming Using Taguchi MethodShao-Yi Hsia0Department of Mechanical & Automation Engineering, Kao-Yuan University, Kaohsiung 821, TaiwanMicropin head geometry significantly influences surface contact and electrical conductivity. In this paper, the preforming process of extrusion is investigated to establish it as a viable process for microforming. Here, the numerical simulations using DEFORM-3D software are used to examine the effect of preformance and pin shape on the extrusion of microbrass pins with a minimum diameter of 0.88 mm under several design parameters. These parameters are planned with the Taguchi method and help to discover better conditions for the minimum extrusion loads. For obtaining the required parameters to enable the finite element software, a compression test is first performed to determine the true stress and true strain curve of the materials. The result acquired from the experiment is compared with the simulation outcome and verified the accuracy. The consequences show that the optimal microextrusion forming conditions appear on stage rod length 0.015 mm, extruding angle 60°, upper front-end taper 60°, and bottom stage angle 60° to minimalize the forming load, and the dimensions of the deformed micropin reveal a good identification with the simulation. The study hence shows a potential tool for the combination of Taguchi method and finite element software to analyze the microforming process in the fastener industry.http://dx.doi.org/10.1155/2013/305797
collection DOAJ
language English
format Article
sources DOAJ
author Shao-Yi Hsia
spellingShingle Shao-Yi Hsia
Optimization of Microextrusion Preforming Using Taguchi Method
Mathematical Problems in Engineering
author_facet Shao-Yi Hsia
author_sort Shao-Yi Hsia
title Optimization of Microextrusion Preforming Using Taguchi Method
title_short Optimization of Microextrusion Preforming Using Taguchi Method
title_full Optimization of Microextrusion Preforming Using Taguchi Method
title_fullStr Optimization of Microextrusion Preforming Using Taguchi Method
title_full_unstemmed Optimization of Microextrusion Preforming Using Taguchi Method
title_sort optimization of microextrusion preforming using taguchi method
publisher Hindawi Limited
series Mathematical Problems in Engineering
issn 1024-123X
1563-5147
publishDate 2013-01-01
description Micropin head geometry significantly influences surface contact and electrical conductivity. In this paper, the preforming process of extrusion is investigated to establish it as a viable process for microforming. Here, the numerical simulations using DEFORM-3D software are used to examine the effect of preformance and pin shape on the extrusion of microbrass pins with a minimum diameter of 0.88 mm under several design parameters. These parameters are planned with the Taguchi method and help to discover better conditions for the minimum extrusion loads. For obtaining the required parameters to enable the finite element software, a compression test is first performed to determine the true stress and true strain curve of the materials. The result acquired from the experiment is compared with the simulation outcome and verified the accuracy. The consequences show that the optimal microextrusion forming conditions appear on stage rod length 0.015 mm, extruding angle 60°, upper front-end taper 60°, and bottom stage angle 60° to minimalize the forming load, and the dimensions of the deformed micropin reveal a good identification with the simulation. The study hence shows a potential tool for the combination of Taguchi method and finite element software to analyze the microforming process in the fastener industry.
url http://dx.doi.org/10.1155/2013/305797
work_keys_str_mv AT shaoyihsia optimizationofmicroextrusionpreformingusingtaguchimethod
_version_ 1725820368913956864