Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction

Abstract This study analyzes the 3D (3D) strain on a pavement by using a model of a vehicle with seven degrees of freedom and that of a road in elastic half-space by using the finite element software ANSYS. The results are as follows: The 3D strain on the two wheels along the centerline was signific...

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Main Authors: Runfeng Zhang, Xiaolan Liu, Xianmin Zhang
Format: Article
Language:English
Published: Springer 2021-09-01
Series:SN Applied Sciences
Subjects:
Online Access:https://doi.org/10.1007/s42452-021-04807-x
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spelling doaj-11e81e91fd524c0c8e15f24ac1036cb62021-10-03T11:19:45ZengSpringerSN Applied Sciences2523-39632523-39712021-09-0131011110.1007/s42452-021-04807-xThree-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interactionRunfeng Zhang0Xiaolan Liu1Xianmin Zhang2School of Transportation Science and Engineering, Civil Aviation University of ChinaSchool of Civil Engineering, Tianjin Chengjian UniversitySchool of Transportation Science and Engineering, Civil Aviation University of ChinaAbstract This study analyzes the 3D (3D) strain on a pavement by using a model of a vehicle with seven degrees of freedom and that of a road in elastic half-space by using the finite element software ANSYS. The results are as follows: The 3D strain on the two wheels along the centerline was significantly influenced by the superposition of the wheel, and the 3D strain under a single wheel was far higher than that along the centerline of two wheels, and represented the most unfavorable position on the road. The vertical strain consisted mainly of compressive strain at different depths, and that at the bottom of the pavement was slightly higher than that on top. The longitudinal and transverse strains were all compressive strains on top of the pavement and tensile strains at the bottom, respectively. The longitudinal and transverse strains both on top and at the bottom of the pavement were similar. The authors then analyzed the influence of the thickness of the pavement, its modulus, and equivalent resilient modulus on the vertical compressive strain, longitudinal tensile strain, and transverse tensile strain in case of a single wheel. Furthermore, a model to predict the 3D strain under the comprehensive effect of the structural parameters of the road was established. It can provide the basis and a reference for the design, construction, fault detection, and maintenance of roads.https://doi.org/10.1007/s42452-021-04807-xAsphalt pavement3D strainVertical strainLongitudinal strainTransverse strain
collection DOAJ
language English
format Article
sources DOAJ
author Runfeng Zhang
Xiaolan Liu
Xianmin Zhang
spellingShingle Runfeng Zhang
Xiaolan Liu
Xianmin Zhang
Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
SN Applied Sciences
Asphalt pavement
3D strain
Vertical strain
Longitudinal strain
Transverse strain
author_facet Runfeng Zhang
Xiaolan Liu
Xianmin Zhang
author_sort Runfeng Zhang
title Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
title_short Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
title_full Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
title_fullStr Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
title_full_unstemmed Three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
title_sort three-dimensional strain analysis of asphalt pavement based on vehicle–pavement model of interaction
publisher Springer
series SN Applied Sciences
issn 2523-3963
2523-3971
publishDate 2021-09-01
description Abstract This study analyzes the 3D (3D) strain on a pavement by using a model of a vehicle with seven degrees of freedom and that of a road in elastic half-space by using the finite element software ANSYS. The results are as follows: The 3D strain on the two wheels along the centerline was significantly influenced by the superposition of the wheel, and the 3D strain under a single wheel was far higher than that along the centerline of two wheels, and represented the most unfavorable position on the road. The vertical strain consisted mainly of compressive strain at different depths, and that at the bottom of the pavement was slightly higher than that on top. The longitudinal and transverse strains were all compressive strains on top of the pavement and tensile strains at the bottom, respectively. The longitudinal and transverse strains both on top and at the bottom of the pavement were similar. The authors then analyzed the influence of the thickness of the pavement, its modulus, and equivalent resilient modulus on the vertical compressive strain, longitudinal tensile strain, and transverse tensile strain in case of a single wheel. Furthermore, a model to predict the 3D strain under the comprehensive effect of the structural parameters of the road was established. It can provide the basis and a reference for the design, construction, fault detection, and maintenance of roads.
topic Asphalt pavement
3D strain
Vertical strain
Longitudinal strain
Transverse strain
url https://doi.org/10.1007/s42452-021-04807-x
work_keys_str_mv AT runfengzhang threedimensionalstrainanalysisofasphaltpavementbasedonvehiclepavementmodelofinteraction
AT xiaolanliu threedimensionalstrainanalysisofasphaltpavementbasedonvehiclepavementmodelofinteraction
AT xianminzhang threedimensionalstrainanalysisofasphaltpavementbasedonvehiclepavementmodelofinteraction
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