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Model uncertainties of SPT, CPT, and VS-based simplified methods for soil liquefaction assessment

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Abstract

Simplified methods for assessing soil liquefaction potential based on the standard penetration test (SPT) are prevalent in practice and widely accepted by several seismic design codes. When encountering sites that have not been investigated using SPT, such as offshore sites or sites with a high level of gravel content, engineers can only substitute the methods based on piezocone penetration test data (CPT-qc methods) or shear wave velocity measurements (VS-based methods); however, these two approaches perform inconsistently with methods based on SPT data (SPT-N methods). As a result, this paper exploits the datasets consisting of SPT, CPTU, and in situ seismic test measurements from 13 alluvium sites in the Taipei Basin to compare the performance of prevalent SPT-N, CPT-qc, and VS-based methods. The discrepancies (uncertainties) of these methods are characterized as Gaussian distribution models, which is believed to be a feasible strategy for predicting equivalent results for SPT-N methods when SPT data are not available. Finally, the application of the proposed models to liquefaction potential index evaluation is demonstrated using a real case study.

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Acknowledgements

The field investigation support received from CECI Engineering Consultants Incorporation, Prof. Chih-Sheng Ku of I-Shou University, and Director Chih-Hsin Hu of HCK Geophysical Company was of great help. The authors wish to express their sincere thanks to all of our benefactors.

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The authors received financial support from the Taipei City Government.

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Correspondence to Jiun-Shiang Wang.

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Wang, JS., Hwang, JH., Deng, YC. et al. Model uncertainties of SPT, CPT, and VS-based simplified methods for soil liquefaction assessment. Bull Eng Geol Environ 82, 260 (2023). https://doi.org/10.1007/s10064-023-03300-6

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