Deformation, resistance characteristics, and scale effects of rockfall protection soil embankments under static loading

Rockfall protection soil embankments are structures that can effectively reduce rockfall hazards along roads. They are economical and easy to construct and maintain by using locally available soil. However, a performance design method for rockfall protection soil embankments has not yet been established, and is the goal of this study. In the present study, static loading tests were conducted using two different weight shapes to clarify the influence of the weight shape on the deformation behavior of soil embankments. Based on these tests, the punching shear failure mechanism of the soil embankments was investigated. The influence of the model scale (the scale effect) on the deformation failure behavior of the soil embankments was clarified through static loading tests on reduced models at three different scales. From these model experiments, the surface deformation, internal deformation, and load–penetration relationships of the soil embankments were summarized. The results indicated that the spherical weight damaged a wider area than the polyhedral weight, and the maximum and ultimate loads exhibited a constant relationship with the deformation of the soil embankment extension between the model scales.

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Publication Details

Journal
SOILS AND FOUNDATIONS
Published
2025-06-20
DOI
https://doi.org/10.1016/j.sandf.2025.101634
Primary Topic
Landslides and related hazards
Type
article
Field-Weighted Citation Impact
0.00

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article

Deformation, resistance characteristics, and scale effects of rockfall protection soil embankments under static loading

Keisuke Kondo, Kenichi MAEDA, Yuji Ushiwatari, Naoto NAITO et al.
SOILS AND FOUNDATIONS
Landslides and related hazards
article

Deformation, resistance characteristics, and scale effects of rockfall protection soil embankments under static loading

Keisuke Kondo, Kenichi MAEDA, Yuji Ushiwatari, Naoto NAITO, M. Komuro, Takuro Nakamura, Yoshiyuki Oguri
article en

Abstract

Rockfall protection soil embankments are structures that can effectively reduce rockfall hazards along roads. They are economical and easy to construct and maintain by using locally available soil. However, a performance design method for rockfall protection soil embankments has not yet been established, and is the goal of this study. In the present study, static loading tests were conducted using two different weight shapes to clarify the influence of the weight shape on the deformation behavior of soil embankments. Based on these tests, the punching shear failure mechanism of the soil embankments was investigated. The influence of the model scale (the scale effect) on the deformation failure behavior of the soil embankments was clarified through static loading tests on reduced models at three different scales. From these model experiments, the surface deformation, internal deformation, and load–penetration relationships of the soil embankments were summarized. The results indicated that the spherical weight damaged a wider area than the polyhedral weight, and the maximum and ultimate loads exhibited a constant relationship with the deformation of the soil embankment extension between the model scales.

SOILS AND FOUNDATIONSVol. 65(4)
Toyohashi University of Technology (JP), Nagoya Institute of Technology (JP), Muroran Institute of Technology (JP), Kaken Pharmaceutical (Japan) (JP), Civil Engineering Research Institute for Cold Region (JP)
Ministry of Land, Infrastructure, Transport and Tourism, Japan Society for the Promotion of Science
Life in Land
Openalex Percentile: Top 80%
Landslides and related hazards
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