Genetic programming for predicting axial capacity of driven piles

The behavior of pile foundations under axial loading is complex and not yet entirely understood. Most available methods for predicting axial capacity of driven piles have failed to achieve consistent success in relation to accurate pile capacity prediction. However, among available methods, the cone...

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Main Authors: Alkroosh, Iyad, Shahin, Mohamed, Nikraz, Hamid
Other Authors: S Pietruszczak
Format: Conference Paper
Published: IC2E International Centre for Computational Engineering 2009
Online Access:http://hdl.handle.net/20.500.11937/26448
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author Alkroosh, Iyad
Shahin, Mohamed
Nikraz, Hamid
author2 S Pietruszczak
author_facet S Pietruszczak
Alkroosh, Iyad
Shahin, Mohamed
Nikraz, Hamid
author_sort Alkroosh, Iyad
building Curtin Institutional Repository
collection Online Access
description The behavior of pile foundations under axial loading is complex and not yet entirely understood. Most available methods for predicting axial capacity of driven piles have failed to achieve consistent success in relation to accurate pile capacity prediction. However, among available methods, the cone penetration test (CPT) based models have shown to give better predictions in many situations. In an attempt to obtain more accurate axial pile capacity predictions from CPT test results, the genetic programming (GP) technique is used in this study. GP is a relatively new artificial intelligent computational technique that has been recently used with success in the field of geotechnical engineering. The data used for development of the GP model are collected from the literature and comprise a number of 78 pile load tests and CPT results. The model robustness is further investigated via a sensitivity analysis, and the performance of the GP model is compared with three of the most commonly used CPT-based traditional methods. The results indicate that the GP model provides more accurate axial capacity predictions of driven piles and outperforms the traditional methods.
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format Conference Paper
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institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T08:01:29Z
publishDate 2009
publisher IC2E International Centre for Computational Engineering
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spelling curtin-20.500.11937-264482022-12-09T06:09:41Z Genetic programming for predicting axial capacity of driven piles Alkroosh, Iyad Shahin, Mohamed Nikraz, Hamid S Pietruszczak G N Pande C Tamagnini R Wan The behavior of pile foundations under axial loading is complex and not yet entirely understood. Most available methods for predicting axial capacity of driven piles have failed to achieve consistent success in relation to accurate pile capacity prediction. However, among available methods, the cone penetration test (CPT) based models have shown to give better predictions in many situations. In an attempt to obtain more accurate axial pile capacity predictions from CPT test results, the genetic programming (GP) technique is used in this study. GP is a relatively new artificial intelligent computational technique that has been recently used with success in the field of geotechnical engineering. The data used for development of the GP model are collected from the literature and comprise a number of 78 pile load tests and CPT results. The model robustness is further investigated via a sensitivity analysis, and the performance of the GP model is compared with three of the most commonly used CPT-based traditional methods. The results indicate that the GP model provides more accurate axial capacity predictions of driven piles and outperforms the traditional methods. 2009 Conference Paper http://hdl.handle.net/20.500.11937/26448 IC2E International Centre for Computational Engineering restricted
spellingShingle Alkroosh, Iyad
Shahin, Mohamed
Nikraz, Hamid
Genetic programming for predicting axial capacity of driven piles
title Genetic programming for predicting axial capacity of driven piles
title_full Genetic programming for predicting axial capacity of driven piles
title_fullStr Genetic programming for predicting axial capacity of driven piles
title_full_unstemmed Genetic programming for predicting axial capacity of driven piles
title_short Genetic programming for predicting axial capacity of driven piles
title_sort genetic programming for predicting axial capacity of driven piles
url http://hdl.handle.net/20.500.11937/26448