Failure Prediction of Clay Embankments Subject to Weather-Driven Deterioration

Embankments have been widely used in the construction of transportation and flood defense infrastructure. Embankments constructed from clays experience a suite of weather-driven deterioration processes that lead to a progressive loss of hydromechanical performance and eventually to failures whose consequences can be severe and costly. This study aimed to predict the time to failure of aging, deteriorating clay embankments supporting transportation infrastructure. A multiphase numerical modeling approach developed to simulate the long-term weather-driven hydromechanical behavior of clay embankments was used to model and simulate the behavior of a number of well-documented embankment failure case histories with known service life and available information to derive the necessary soil properties and climate records. Numerical models were developed for a total of 34 case studies, and numerical simulations were performed to predict the time to failure of the embankments due to progressive, long-term, weather-driven deterioration. Predictions compared well with actual times to failure reported for the simulated case studies. Further, geometries of modeled slides compared well with those measured for actual slides. The models offered insights into the conditions associated with failure, such as displacement patterns and pore pressure conditions. It was observed that as near-surface soil experiences cycles of wetting and drying, and accompanying cycles of swelling and shrinkage, irrecoverable swelling accumulates with time, causing swelling-induced slides. Overall, the numerical modeling approach was proven effective in producing data necessary to develop deterioration models that could improve infrastructure asset management.

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Publication Details

Journal
Journal of Geotechnical and Geoenvironmental Engineering
Published
2024-10-10
DOI
https://doi.org/10.1061/jggefk.gteng-12842
Citations
4
Primary Topic
Soil and Unsaturated Flow
Type
article
Field-Weighted Citation Impact
1.04

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article

Failure Prediction of Clay Embankments Subject to Weather-Driven Deterioration

Amr M. Morsy, P. Helm
4 citations
Journal of Geotechnical and Geoenvironmental Engineering
Soil and Unsaturated Flow
1.04
article

Failure Prediction of Clay Embankments Subject to Weather-Driven Deterioration

Amr M. Morsy, P. Helm
article en
4 citations

Abstract

Embankments have been widely used in the construction of transportation and flood defense infrastructure. Embankments constructed from clays experience a suite of weather-driven deterioration processes that lead to a progressive loss of hydromechanical performance and eventually to failures whose consequences can be severe and costly. This study aimed to predict the time to failure of aging, deteriorating clay embankments supporting transportation infrastructure. A multiphase numerical modeling approach developed to simulate the long-term weather-driven hydromechanical behavior of clay embankments was used to model and simulate the behavior of a number of well-documented embankment failure case histories with known service life and available information to derive the necessary soil properties and climate records. Numerical models were developed for a total of 34 case studies, and numerical simulations were performed to predict the time to failure of the embankments due to progressive, long-term, weather-driven deterioration. Predictions compared well with actual times to failure reported for the simulated case studies. Further, geometries of modeled slides compared well with those measured for actual slides. The models offered insights into the conditions associated with failure, such as displacement patterns and pore pressure conditions. It was observed that as near-surface soil experiences cycles of wetting and drying, and accompanying cycles of swelling and shrinkage, irrecoverable swelling accumulates with time, causing swelling-induced slides. Overall, the numerical modeling approach was proven effective in producing data necessary to develop deterioration models that could improve infrastructure asset management.

Journal of Geotechnical and Geoenvironmental EngineeringVol. 150(12)
California State University System (US), California State University, Long Beach (US), Newcastle University (GB)
Engineering and Physical Sciences Research Council
Climate action
Openalex Percentile: Top 25%
Soil and Unsaturated Flow
1.04
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