Experimental Exploration of Performance of “Prestressed” Geosynthetic-Reinforced Sheet Pile Retaining Wall

The sheet pile wall, a widely used retaining structure in railway construction, faces limitations such as restricted height, construction difficulties, and high costs. While geosynthetic-reinforced soil technology enhances soil tensile strength, it often lacks sufficient stiffness and strength. To address these issues, this study proposes a “prestressed” geosynthetic-reinforced sheet pile retaining wall structure. The geosynthetic-reinforced soil was subjected to preloading to induce “prestress”, with enhanced soil reinforcement interaction improving load-bearing capacity, reducing horizontal displacement, and ensuring railway safety. Indoor model tests were conducted on sandy soil foundations to investigate the structure’s load settlement behavior, pile horizontal displacement, earth pressure distribution, pile bending moments, and reinforcement strain development. The results show that applying “prestress” significantly enhances soil reinforcement interaction, enabling the pile–slab wall to better retain soil and improve overall performance. The load-bearing capacity increased by 21.7% and 16.6% in two respective tests, while horizontal displacement was effectively reduced. The maximum earth pressure was observed on the right side of the pile, 20 cm above the base, and the maximum bending moment occurred in the anchored section. Prestressing also enhanced the utilization of the tensile reinforcement. The proposed structure offers a promising approach for optimizing railway retaining structures.

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Publication Details

Journal
Buildings
Published
2025-04-14
DOI
https://doi.org/10.3390/buildings15081278
Citations
1
Primary Topic
Geotechnical Engineering and Soil Stabilization
Type
article
Field-Weighted Citation Impact
0.95

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article

Experimental Exploration of Performance of “Prestressed” Geosynthetic-Reinforced Sheet Pile Retaining Wall

Xinyu Tan, Tengfei Yan, Zhenhao Shi, Yong Liu et al.
1 citations
Buildings
Geotechnical Engineering and Soil Stabilization
0.95
article

Experimental Exploration of Performance of “Prestressed” Geosynthetic-Reinforced Sheet Pile Retaining Wall

Xinyu Tan, Tengfei Yan, Zhenhao Shi, Yong Liu, Kaiwen Liu
article en
1 citations

Abstract

The sheet pile wall, a widely used retaining structure in railway construction, faces limitations such as restricted height, construction difficulties, and high costs. While geosynthetic-reinforced soil technology enhances soil tensile strength, it often lacks sufficient stiffness and strength. To address these issues, this study proposes a “prestressed” geosynthetic-reinforced sheet pile retaining wall structure. The geosynthetic-reinforced soil was subjected to preloading to induce “prestress”, with enhanced soil reinforcement interaction improving load-bearing capacity, reducing horizontal displacement, and ensuring railway safety. Indoor model tests were conducted on sandy soil foundations to investigate the structure’s load settlement behavior, pile horizontal displacement, earth pressure distribution, pile bending moments, and reinforcement strain development. The results show that applying “prestress” significantly enhances soil reinforcement interaction, enabling the pile–slab wall to better retain soil and improve overall performance. The load-bearing capacity increased by 21.7% and 16.6% in two respective tests, while horizontal displacement was effectively reduced. The maximum earth pressure was observed on the right side of the pile, 20 cm above the base, and the maximum bending moment occurred in the anchored section. Prestressing also enhanced the utilization of the tensile reinforcement. The proposed structure offers a promising approach for optimizing railway retaining structures.

BuildingsVol. 15(8)
China Railway Fifth Survey and Design Institute Group (CN), China Railway First Survey and Design Institute Group Co. Ltd., Southwest Jiaotong University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 27%
Geotechnical Engineering and Soil Stabilization
0.95
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