A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient

Vehicle tires are major components that are subjected to fatigue loading and their durability is of economic interest as it is directly related to the safety of property and the life of producers and consumers. Tire durability is also a major issue of energy conservation and environmental protection...

Full description

Bibliographic Details
Main Authors: Chen Liang, Zhi Gao, Shengkang Hong, Guolin Wang, Bentil Mawunya Kwaku Asafo-Duho, Jieyu Ren
Format: Article
Language:English
Published: Hindawi Limited 2021-01-01
Series:Advances in Materials Science and Engineering
Online Access:http://dx.doi.org/10.1155/2021/8534954
id doaj-31353f7c30684112bfbcd761f12c779f
record_format Article
spelling doaj-31353f7c30684112bfbcd761f12c779f2021-03-15T00:01:20ZengHindawi LimitedAdvances in Materials Science and Engineering1687-84422021-01-01202110.1155/2021/8534954A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density GradientChen Liang0Zhi Gao1Shengkang Hong2Guolin Wang3Bentil Mawunya Kwaku Asafo-Duho4Jieyu Ren5School of Automotive and Traffic EngineeringSchool of Automotive and Traffic EngineeringSchool of Automotive and Traffic EngineeringSchool of Automotive and Traffic EngineeringSchool of Automotive and Traffic EngineeringZhejiang Wanxiang Marelli Shock Absorbers Co.,Ltd.Vehicle tires are major components that are subjected to fatigue loading and their durability is of economic interest as it is directly related to the safety of property and the life of producers and consumers. Tire durability is also a major issue of energy conservation and environmental protection. This research aims to establish a reasonable fatigue evaluation and optimization method that effectively improves tire fatigue life. In the study, 11.00R20 and 12.00R20 all-steel radial truck tires were the research objects, and the guiding hypothesis for the research was that “the maximum area of ​​the strain energy density gradient modulus corresponds to the initial failure area, its direction corresponds to the crack propagation direction, and also the maximum strain energy value is inversely proportional to the tire fatigue life.” Through finite element analysis and durability test, the strain energy density gradient was determined as tire fatigue evaluation index, and the hypothesis of tire fatigue life prediction was validated. At the same time, the sensitivities of strain energy gradient to the tire structure parameters were calculated. Besides, the relationship between the structure parameters and the fatigue life was as well established in this paper. This study has formulated a tire fatigue evaluation method and proposed an effective optimization method for enhancing tire fatigue life. The results obtained are of high application value in offering guidance for tire structural design and useful for refining the fatigue failure theory of truck radial tires and improving durability.http://dx.doi.org/10.1155/2021/8534954
collection DOAJ
language English
format Article
sources DOAJ
author Chen Liang
Zhi Gao
Shengkang Hong
Guolin Wang
Bentil Mawunya Kwaku Asafo-Duho
Jieyu Ren
spellingShingle Chen Liang
Zhi Gao
Shengkang Hong
Guolin Wang
Bentil Mawunya Kwaku Asafo-Duho
Jieyu Ren
A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient
Advances in Materials Science and Engineering
author_facet Chen Liang
Zhi Gao
Shengkang Hong
Guolin Wang
Bentil Mawunya Kwaku Asafo-Duho
Jieyu Ren
author_sort Chen Liang
title A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient
title_short A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient
title_full A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient
title_fullStr A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient
title_full_unstemmed A Fatigue Evaluation Method for Radial Tire Based on Strain Energy Density Gradient
title_sort fatigue evaluation method for radial tire based on strain energy density gradient
publisher Hindawi Limited
series Advances in Materials Science and Engineering
issn 1687-8442
publishDate 2021-01-01
description Vehicle tires are major components that are subjected to fatigue loading and their durability is of economic interest as it is directly related to the safety of property and the life of producers and consumers. Tire durability is also a major issue of energy conservation and environmental protection. This research aims to establish a reasonable fatigue evaluation and optimization method that effectively improves tire fatigue life. In the study, 11.00R20 and 12.00R20 all-steel radial truck tires were the research objects, and the guiding hypothesis for the research was that “the maximum area of ​​the strain energy density gradient modulus corresponds to the initial failure area, its direction corresponds to the crack propagation direction, and also the maximum strain energy value is inversely proportional to the tire fatigue life.” Through finite element analysis and durability test, the strain energy density gradient was determined as tire fatigue evaluation index, and the hypothesis of tire fatigue life prediction was validated. At the same time, the sensitivities of strain energy gradient to the tire structure parameters were calculated. Besides, the relationship between the structure parameters and the fatigue life was as well established in this paper. This study has formulated a tire fatigue evaluation method and proposed an effective optimization method for enhancing tire fatigue life. The results obtained are of high application value in offering guidance for tire structural design and useful for refining the fatigue failure theory of truck radial tires and improving durability.
url http://dx.doi.org/10.1155/2021/8534954
work_keys_str_mv AT chenliang afatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT zhigao afatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT shengkanghong afatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT guolinwang afatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT bentilmawunyakwakuasafoduho afatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT jieyuren afatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT chenliang fatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT zhigao fatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT shengkanghong fatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT guolinwang fatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT bentilmawunyakwakuasafoduho fatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
AT jieyuren fatigueevaluationmethodforradialtirebasedonstrainenergydensitygradient
_version_ 1714785182574182400