A simplified method for investigating the bending behavior of piles supporting embankments on soft ground

In recent years, concrete and reinforced concrete piles have been widely used to stabilize soft ground under embankments. Previous research has shown that bending failure, particularly during rapid filling on soft ground, is the critical failure mode for pile-supported embankments. Here, we propose...

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Veröffentlicht in:Frontiers of Structural and Civil Engineering 2023-07, Vol.17 (7), p.1021-1032
Hauptverfasser: DIAO, Yu, GUO, Yuhao, JIA, Zhenyang, ZHENG, Gang, PAN, Weiqiang, SHANG, Dongfan, ZHANG, Ying
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container_end_page 1032
container_issue 7
container_start_page 1021
container_title Frontiers of Structural and Civil Engineering
container_volume 17
creator DIAO, Yu
GUO, Yuhao
JIA, Zhenyang
ZHENG, Gang
PAN, Weiqiang
SHANG, Dongfan
ZHANG, Ying
description In recent years, concrete and reinforced concrete piles have been widely used to stabilize soft ground under embankments. Previous research has shown that bending failure, particularly during rapid filling on soft ground, is the critical failure mode for pile-supported embankments. Here, we propose an efficient two-stage method that combines a test-verified soil deformation mechanism and Poulos' solution for pile-soil interaction to investigate the bending behavior of piles supporting embankments on soft ground. The results reveal that there are three possible bending failure scenarios for such piles: at the interface between the soft and firm ground layers, at mid-depths of the fan zone, and at the boundary of the soil deformation mechanism. The location of the bending failure depends on the position and relative stiffness of the given pile. Furthermore, the effect of embedding a pile into a firm ground layer on the bending behavior was investigated. When the embedded length of a pile exceeded a critical value, the bending moment at the interface between the soft and firm ground layers reached a limiting value. In addition, floating piles that are not embedded exhibit an overturning pattern of movement in the soft ground layer, and a potential failure is located in the upper part of these piles.
doi_str_mv 10.1007/s11709-023-0952-3
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Previous research has shown that bending failure, particularly during rapid filling on soft ground, is the critical failure mode for pile-supported embankments. Here, we propose an efficient two-stage method that combines a test-verified soil deformation mechanism and Poulos' solution for pile-soil interaction to investigate the bending behavior of piles supporting embankments on soft ground. The results reveal that there are three possible bending failure scenarios for such piles: at the interface between the soft and firm ground layers, at mid-depths of the fan zone, and at the boundary of the soil deformation mechanism. The location of the bending failure depends on the position and relative stiffness of the given pile. Furthermore, the effect of embedding a pile into a firm ground layer on the bending behavior was investigated. When the embedded length of a pile exceeded a critical value, the bending moment at the interface between the soft and firm ground layers reached a limiting value. 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subjects bending behavior
Bending moments
Cities
Civil Engineering
Concrete piles
Countries
Deformation
Deformation mechanisms
embankment
Embankments
Embedding
Engineering
failure mode
Failure modes
Mechanical properties
pile
Piles
Regions
Reinforced concrete
Research Article
Soft ground
Soil investigations
Soil testing
Soil-pile interaction
Soils
soil−structure interaction
title A simplified method for investigating the bending behavior of piles supporting embankments on soft ground
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