A Fatigue Simulation Approach for Long-Crack Propagation Phase of Radial Tires Using Modified Virtual Crack Closure Technique

ABSTRACT Tire fatigue failure involves short-crack initiation and long-crack propagation. While the crack energy density effectively predicts short-crack propagation, the simulation of long-crack propagation requires improvement. In this study, we propose a fatigue simulation approach for radial tires using the modified virtual crack closure technique. We prefabricate cracks via hybrid submodel-composite modeling (tie constraint), calculate the strain energy release rate with the modified crack closure technique, and predict crack propagation. Groove crack experiments and finite element simulations on two all-steel radial truck tires verified the effectiveness of this approach. The approach provides a reliable tool for fatigue evaluation, aiding tire durability design and life prediction.

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Publication Details

Journal
Tire Science and Technology
Published
2026-11-05
DOI
https://doi.org/10.2346/tst-25-020
Primary Topic
Fatigue and fracture mechanics
Type
article
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article

A Fatigue Simulation Approach for Long-Crack Propagation Phase of Radial Tires Using Modified Virtual Crack Closure Technique

Z. Li, Zicheng Shi, Yang Wang
Tire Science and Technology
Fatigue and fracture mechanics
article

A Fatigue Simulation Approach for Long-Crack Propagation Phase of Radial Tires Using Modified Virtual Crack Closure Technique

Z. Li, Zicheng Shi, Yang Wang
article en

Abstract

ABSTRACT Tire fatigue failure involves short-crack initiation and long-crack propagation. While the crack energy density effectively predicts short-crack propagation, the simulation of long-crack propagation requires improvement. In this study, we propose a fatigue simulation approach for radial tires using the modified virtual crack closure technique. We prefabricate cracks via hybrid submodel-composite modeling (tie constraint), calculate the strain energy release rate with the modified crack closure technique, and predict crack propagation. Groove crack experiments and finite element simulations on two all-steel radial truck tires verified the effectiveness of this approach. The approach provides a reliable tool for fatigue evaluation, aiding tire durability design and life prediction.

Tire Science and Technology
University of Science and Technology of China (CN)
Openalex Percentile: Top 26%
Fatigue and fracture mechanics
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