Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil

The design of soil consolidation via prefabricated vertical drains (PVDs) has been traditionally carried out deterministically and thus can be misleading due to the ignorance of the uncertainty associated with the inherent (spatial) variation of soil properties. To treat such uncertainty in the desi...

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Main Authors: Bari, Md. Wasiul, Shahin, Mohamed
Format: Journal Article
Published: Elsevier, Pergamon Press 2015
Subjects:
Online Access:http://hdl.handle.net/20.500.11937/21637
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author Bari, Md. Wasiul
Shahin, Mohamed
author_facet Bari, Md. Wasiul
Shahin, Mohamed
author_sort Bari, Md. Wasiul
building Curtin Institutional Repository
collection Online Access
description The design of soil consolidation via prefabricated vertical drains (PVDs) has been traditionally carried out deterministically and thus can be misleading due to the ignorance of the uncertainty associated with the inherent (spatial) variation of soil properties. To treat such uncertainty in the design process of soil consolidation by PVDs, stochastic approaches that combine the finite element method with the Monte Carlo technique (FEMC) have been usually used. However, such approaches are complex, computationally intensive and time consuming. In this paper, a simpler reliability-based semi-analytical (RBSA) method is proposed as an alternative tool to the complex FEMC approach for soil consolidation by PVDs, considering soil spatial variability. The RBSA method is found to give similar results to those obtained from the FEMC approach and can thus be used with confidence in practice.
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institution Curtin University Malaysia
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spelling curtin-20.500.11937-216372017-09-13T15:37:43Z Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil Bari, Md. Wasiul Shahin, Mohamed Finite element method Prefabricated vertical drains Soil spatial variability Soil consolidation Monte Carlo technique Reliability-based design The design of soil consolidation via prefabricated vertical drains (PVDs) has been traditionally carried out deterministically and thus can be misleading due to the ignorance of the uncertainty associated with the inherent (spatial) variation of soil properties. To treat such uncertainty in the design process of soil consolidation by PVDs, stochastic approaches that combine the finite element method with the Monte Carlo technique (FEMC) have been usually used. However, such approaches are complex, computationally intensive and time consuming. In this paper, a simpler reliability-based semi-analytical (RBSA) method is proposed as an alternative tool to the complex FEMC approach for soil consolidation by PVDs, considering soil spatial variability. The RBSA method is found to give similar results to those obtained from the FEMC approach and can thus be used with confidence in practice. 2015 Journal Article http://hdl.handle.net/20.500.11937/21637 10.1016/j.compgeo.2015.03.003 Elsevier, Pergamon Press fulltext
spellingShingle Finite element method
Prefabricated vertical drains
Soil spatial variability
Soil consolidation
Monte Carlo technique
Reliability-based design
Bari, Md. Wasiul
Shahin, Mohamed
Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil
title Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil
title_full Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil
title_fullStr Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil
title_full_unstemmed Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil
title_short Reliability-based semi-analytical solution for ground improvement by PVDs incorporating inherent (spatial) variability of soil
title_sort reliability-based semi-analytical solution for ground improvement by pvds incorporating inherent (spatial) variability of soil
topic Finite element method
Prefabricated vertical drains
Soil spatial variability
Soil consolidation
Monte Carlo technique
Reliability-based design
url http://hdl.handle.net/20.500.11937/21637