Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method

Wheels are important safety components in the vehicle driving system. Automobile lightweight is the direction of the modern automobile development. In this article, steel wheel lightweight was studied. The equal strength design of rim was used to reduce the weight of the wheel. Stress analysis of th...

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Main Authors: Lei Chen, Shunping Li, Huiqin Chen, David M Saylor, Shuiguang Tong
Format: Article
Language:English
Published: SAGE Publishing 2017-03-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814017692698
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spelling doaj-26c095c783b646de8840324adb52fe6b2020-11-25T03:55:15ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402017-03-01910.1177/1687814017692698Study on the design method of equal strength rim based on stress and fatigue analysis using finite element methodLei Chen0Shunping Li1Huiqin Chen2David M Saylor3Shuiguang Tong4Institute of Mechanical Design, Hangzhou Dianzi University, Hangzhou, ChinaR&D Center, Zhejiang Jingu Co. Ltd., Hangzhou, ChinaInstitute of Mechanical Design, Hangzhou Dianzi University, Hangzhou, ChinaR&D Center, Zhejiang Jingu Co. Ltd., Hangzhou, ChinaSchool of Mechanical Engineering, Zhejiang University, Hangzhou, ChinaWheels are important safety components in the vehicle driving system. Automobile lightweight is the direction of the modern automobile development. In this article, steel wheel lightweight was studied. The equal strength design of rim was used to reduce the weight of the wheel. Stress analysis of the wheel was studied using UG/Nastran. A professional software WheelStrength was used to predict the radial and cornering fatigue lives of the wheel. Sheet stamping process was set up to analyze the interference fit between the disk and the rim. The assembly was simulated by axisymmetric finite element method. After calculation and analysis, the stress distributions and fatigue lives for rim under different load cases have been found. The thicknesses of wheel rim bead and the interface between rim and disk cannot be reduced. Stress and fatigue simulation results were compared using different thicknesses of the optimized region. It was found that the best thickness of the optimized region was 1.5 mm. Spinning was used to form the flared preform. The thickness of the rim after spinning and rolling forming agreed well with the simulation. The results of fatigue tests indicated that the lightweight wheel met the design requirement. The weight of the rim was reduced by about 14%.https://doi.org/10.1177/1687814017692698
collection DOAJ
language English
format Article
sources DOAJ
author Lei Chen
Shunping Li
Huiqin Chen
David M Saylor
Shuiguang Tong
spellingShingle Lei Chen
Shunping Li
Huiqin Chen
David M Saylor
Shuiguang Tong
Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
Advances in Mechanical Engineering
author_facet Lei Chen
Shunping Li
Huiqin Chen
David M Saylor
Shuiguang Tong
author_sort Lei Chen
title Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
title_short Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
title_full Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
title_fullStr Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
title_full_unstemmed Study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
title_sort study on the design method of equal strength rim based on stress and fatigue analysis using finite element method
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2017-03-01
description Wheels are important safety components in the vehicle driving system. Automobile lightweight is the direction of the modern automobile development. In this article, steel wheel lightweight was studied. The equal strength design of rim was used to reduce the weight of the wheel. Stress analysis of the wheel was studied using UG/Nastran. A professional software WheelStrength was used to predict the radial and cornering fatigue lives of the wheel. Sheet stamping process was set up to analyze the interference fit between the disk and the rim. The assembly was simulated by axisymmetric finite element method. After calculation and analysis, the stress distributions and fatigue lives for rim under different load cases have been found. The thicknesses of wheel rim bead and the interface between rim and disk cannot be reduced. Stress and fatigue simulation results were compared using different thicknesses of the optimized region. It was found that the best thickness of the optimized region was 1.5 mm. Spinning was used to form the flared preform. The thickness of the rim after spinning and rolling forming agreed well with the simulation. The results of fatigue tests indicated that the lightweight wheel met the design requirement. The weight of the rim was reduced by about 14%.
url https://doi.org/10.1177/1687814017692698
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AT shunpingli studyonthedesignmethodofequalstrengthrimbasedonstressandfatigueanalysisusingfiniteelementmethod
AT huiqinchen studyonthedesignmethodofequalstrengthrimbasedonstressandfatigueanalysisusingfiniteelementmethod
AT davidmsaylor studyonthedesignmethodofequalstrengthrimbasedonstressandfatigueanalysisusingfiniteelementmethod
AT shuiguangtong studyonthedesignmethodofequalstrengthrimbasedonstressandfatigueanalysisusingfiniteelementmethod
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