Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab

To promote practical use of the top-and-bottom layered steel fiber reinforced concrete (LSFRC) plates, an appropriate constitutive model is selected using ABAQUS software to analyze the bearing capacity, failure pattern, and deformation of the LSFRC plates. An LSFRC plate model is established for th...

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Main Authors: Zi-Jian Wang, Yi-Xuan Ban, Wen-Yu Luo, Han-Xiu Fan, Bin Zhang, Li-Ming Wu, Si-Chang Wang
Format: Article
Language:English
Published: Wiley 2022-01-01
Series:Advances in Materials Science and Engineering
Online Access:http://dx.doi.org/10.1155/2022/2528085
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author Zi-Jian Wang
Yi-Xuan Ban
Wen-Yu Luo
Han-Xiu Fan
Bin Zhang
Li-Ming Wu
Si-Chang Wang
author_facet Zi-Jian Wang
Yi-Xuan Ban
Wen-Yu Luo
Han-Xiu Fan
Bin Zhang
Li-Ming Wu
Si-Chang Wang
author_sort Zi-Jian Wang
collection DOAJ
description To promote practical use of the top-and-bottom layered steel fiber reinforced concrete (LSFRC) plates, an appropriate constitutive model is selected using ABAQUS software to analyze the bearing capacity, failure pattern, and deformation of the LSFRC plates. An LSFRC plate model is established for the analysis and calculation. Meanwhile, a test was carried out to measure the bearing capacity of 10 LSFRC plates. The results show that, after going through the elastic stage, crack growth, and failure stage, when the maximum crack width reaches 0.1 mm, the load of the LSFRC plates can be used as the ultimate bearing load. When failure appears to be bending the LSFRC plates, the neutral axis will shift upwards, showing a pseudoplastic failure. There is a larger tensile stress area after the first crack appears at the bottom of the steel fiber concrete. The change before and after the maximum load is relatively gentle. After becoming plastic, the plate witnesses a rapid crack growth on its bottom. With similar results from the test and numerical simulation, small errors can be minimized by further analysis to provide a more accurate model for the subsequent bearing capacity analysis of the LSFRC plates.
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institution Kabale University
issn 1687-8442
language English
publishDate 2022-01-01
publisher Wiley
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series Advances in Materials Science and Engineering
spelling doaj-art-7423213b8f9a4f88a7aa95c27dddb6712025-02-03T01:22:54ZengWileyAdvances in Materials Science and Engineering1687-84422022-01-01202210.1155/2022/2528085Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement SlabZi-Jian Wang0Yi-Xuan Ban1Wen-Yu Luo2Han-Xiu Fan3Bin Zhang4Li-Ming Wu5Si-Chang Wang6School of Civil Engineering and ArchitectureSchool of Civil Engineering and ArchitectureSchool of Civil Engineering and ArchitectureThe 5th Engineering Ltd. of the 11th Engineering Bureau of China RailwaySchool of Civil Engineering and ArchitectureSchool of Urban Construction EngineeringSchool of Civil Engineering and ArchitectureTo promote practical use of the top-and-bottom layered steel fiber reinforced concrete (LSFRC) plates, an appropriate constitutive model is selected using ABAQUS software to analyze the bearing capacity, failure pattern, and deformation of the LSFRC plates. An LSFRC plate model is established for the analysis and calculation. Meanwhile, a test was carried out to measure the bearing capacity of 10 LSFRC plates. The results show that, after going through the elastic stage, crack growth, and failure stage, when the maximum crack width reaches 0.1 mm, the load of the LSFRC plates can be used as the ultimate bearing load. When failure appears to be bending the LSFRC plates, the neutral axis will shift upwards, showing a pseudoplastic failure. There is a larger tensile stress area after the first crack appears at the bottom of the steel fiber concrete. The change before and after the maximum load is relatively gentle. After becoming plastic, the plate witnesses a rapid crack growth on its bottom. With similar results from the test and numerical simulation, small errors can be minimized by further analysis to provide a more accurate model for the subsequent bearing capacity analysis of the LSFRC plates.http://dx.doi.org/10.1155/2022/2528085
spellingShingle Zi-Jian Wang
Yi-Xuan Ban
Wen-Yu Luo
Han-Xiu Fan
Bin Zhang
Li-Ming Wu
Si-Chang Wang
Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab
Advances in Materials Science and Engineering
title Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab
title_full Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab
title_fullStr Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab
title_full_unstemmed Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab
title_short Analysis of Flexural Bearing Capacity and Failure Mode of Precast LSFRC Pavement Slab
title_sort analysis of flexural bearing capacity and failure mode of precast lsfrc pavement slab
url http://dx.doi.org/10.1155/2022/2528085
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