Assessment of soil liquefaction potential using the standard penetration test at Port Sudan

Liquefaction is one of the most critical ground deformations in saturated or partially saturated silty and sandy soils. This deformation may cause severe destruction, such as settlement and building tilting. A standard penetration test (SPT) is commonly used to estimate liquefaction potential. This study integrates SPT, unit weight, and fine content data measurements from 24 boreholes in Port Sudan to evaluate and identify the liquefaction potential and factor of safety (F.S.) in earthquake scenarios. The liquefaction parameters were derived according to the simplified procedure in this scope. The result showed that the subsurface soil up to 15 meters is saturated with grain sizes varying from medium to fine sand, silt, and clay. Based on calculated parameters and fine content, the area falls within the high risk of liquefaction by a 7.5 (Mw) earthquake. The F.S. is mainly less than one in the upper 15 m. The liquefaction potential index is assessed using a peak horizontal ground acceleration of 0.15 g for an earthquake scenario of magnitude 7.5. The proposed approach proved to be a rapid and reliable method for investigating the liquefaction of sandy soil under earthquakes.

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Publication Details

Journal
University of Zawia journal of engineering sciences and technology.
Published
2025-06-15
DOI
https://doi.org/10.26629/uzjest.2025.10
Primary Topic
Geotechnical Engineering and Underground Structures
Type
article
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article

Assessment of soil liquefaction potential using the standard penetration test at Port Sudan

Husam Eldin Ahmed, Ibrahim Malik, Wenbing Wu, Dafalla Wadi et al.
University of Zawia journal of engineering sciences and technology.
Geotechnical Engineering and Underground Structures
article

Assessment of soil liquefaction potential using the standard penetration test at Port Sudan

Husam Eldin Ahmed, Ibrahim Malik, Wenbing Wu, Dafalla Wadi, Abuzar Fuad
article en

Abstract

Liquefaction is one of the most critical ground deformations in saturated or partially saturated silty and sandy soils. This deformation may cause severe destruction, such as settlement and building tilting. A standard penetration test (SPT) is commonly used to estimate liquefaction potential. This study integrates SPT, unit weight, and fine content data measurements from 24 boreholes in Port Sudan to evaluate and identify the liquefaction potential and factor of safety (F.S.) in earthquake scenarios. The liquefaction parameters were derived according to the simplified procedure in this scope. The result showed that the subsurface soil up to 15 meters is saturated with grain sizes varying from medium to fine sand, silt, and clay. Based on calculated parameters and fine content, the area falls within the high risk of liquefaction by a 7.5 (Mw) earthquake. The F.S. is mainly less than one in the upper 15 m. The liquefaction potential index is assessed using a peak horizontal ground acceleration of 0.15 g for an earthquake scenario of magnitude 7.5. The proposed approach proved to be a rapid and reliable method for investigating the liquefaction of sandy soil under earthquakes.

University of Zawia journal of engineering sciences and technology.Vol. 3(1)
Al-Neelain University (SD), China University of Geosciences (CN), University of Bahri (SD), Qatar University (QA), Red Sea University (SD)
China University of Geosciences
Openalex Percentile: Top 74%
Geotechnical Engineering and Underground Structures
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