Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part

This paper presents reverse engineering (RE) of a complex automobile structural part, B-pillar. As a major part of the automobile body-in white (BiW), B-pillar has substantial opportunity for weight reduction by introducing variable thickness across its sections. To leverage such potential, an exist...

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Main Authors: Islam Md. Tasbirul, Abdullah A.B., Mahmud Mohamad Zihad
Format: Article
Language:English
Published: EDP Sciences 2017-01-01
Series:MATEC Web of Conferences
Online Access:http://dx.doi.org/10.1051/matecconf/20179001007
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spelling doaj-15c94008d5a3459ab06d9666b146d6e52021-02-02T04:59:11ZengEDP SciencesMATEC Web of Conferences2261-236X2017-01-01900100710.1051/matecconf/20179001007matecconf_aigev2017_01007Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness partIslam Md. Tasbirul0Abdullah A.B.1Mahmud Mohamad Zihad2School of Mechanical Engineering, Universiti Sains Malaysia (USM), Engineering campusSchool of Mechanical Engineering, Universiti Sains Malaysia (USM), Engineering campusSchool of Aerospace Engineering, Universiti Sains Malaysia (USM), Engineering campusThis paper presents reverse engineering (RE) of a complex automobile structural part, B-pillar. As a major part of the automobile body-in white (BiW), B-pillar has substantial opportunity for weight reduction by introducing variable thickness across its sections. To leverage such potential, an existing B-pillar was reverse engineered with a 3D optical scanner and computer aided design (CAD) application. First, digital data (i.e. in meshes) of exiting B-pillar was obtained by the scanner, and subsequently, this information was utilized in developing a complete 3D CAD model. CATIA V5 was used in the modeling where some of the essential work benches were “Digitized Shape Editor”, “Quick Surface Reconstruction”, “Wireframe and Surface Design”, “Freestyle”, “Generation Shape Design” and “Part design”. In the final CAD design, five different thicknesses were incorporated successfully in order to get a B-pillar with non-uniform sections. This research opened opportunities for thickness optimization and mold tooling design in real time manufacturing.http://dx.doi.org/10.1051/matecconf/20179001007
collection DOAJ
language English
format Article
sources DOAJ
author Islam Md. Tasbirul
Abdullah A.B.
Mahmud Mohamad Zihad
spellingShingle Islam Md. Tasbirul
Abdullah A.B.
Mahmud Mohamad Zihad
Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part
MATEC Web of Conferences
author_facet Islam Md. Tasbirul
Abdullah A.B.
Mahmud Mohamad Zihad
author_sort Islam Md. Tasbirul
title Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part
title_short Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part
title_full Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part
title_fullStr Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part
title_full_unstemmed Reverse engineering of B-pillar with 3D optical scanning for manufacturing of non-uniform thickness part
title_sort reverse engineering of b-pillar with 3d optical scanning for manufacturing of non-uniform thickness part
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2017-01-01
description This paper presents reverse engineering (RE) of a complex automobile structural part, B-pillar. As a major part of the automobile body-in white (BiW), B-pillar has substantial opportunity for weight reduction by introducing variable thickness across its sections. To leverage such potential, an existing B-pillar was reverse engineered with a 3D optical scanner and computer aided design (CAD) application. First, digital data (i.e. in meshes) of exiting B-pillar was obtained by the scanner, and subsequently, this information was utilized in developing a complete 3D CAD model. CATIA V5 was used in the modeling where some of the essential work benches were “Digitized Shape Editor”, “Quick Surface Reconstruction”, “Wireframe and Surface Design”, “Freestyle”, “Generation Shape Design” and “Part design”. In the final CAD design, five different thicknesses were incorporated successfully in order to get a B-pillar with non-uniform sections. This research opened opportunities for thickness optimization and mold tooling design in real time manufacturing.
url http://dx.doi.org/10.1051/matecconf/20179001007
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