Predicting the effective depth of soil stabilization for marine clay treated by biomass silica

Reclamation and development towards the oceanic area had become a trend of modern days, where the marine soil need to be treated prior construction. The increase in unconfined compressive strength of marine clay treated by Biomass Silica, ‘SH-85’ has been demonstrated by several investigations. This...

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Main Authors: Lim, Jing Jin, Mohd Yunus, Nor Zurairahetty, Hezmi, Muhammad Azril, Abdul Rashid, Ahmad Safuan, Marto, Amination, Kalatehjari, Roohollah, Pakir, Faizal, Mashros, Nordiana, Adekunle Ganiyu, Abideen
Format: Article
Language:English
Published: Springer Nature 2018
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Online Access:http://eprints.uthm.edu.my/5677/1/AJ%202018%20%28297%29.pdf
http://eprints.uthm.edu.my/5677/
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spelling my.uthm.eprints.56772022-01-20T04:32:05Z http://eprints.uthm.edu.my/5677/ Predicting the effective depth of soil stabilization for marine clay treated by biomass silica Lim, Jing Jin Mohd Yunus, Nor Zurairahetty Hezmi, Muhammad Azril Abdul Rashid, Ahmad Safuan Marto, Amination Kalatehjari, Roohollah Pakir, Faizal Mashros, Nordiana Adekunle Ganiyu, Abideen TA703-712 Engineering geology. Rock mechanics. Soil mechanics. Reclamation and development towards the oceanic area had become a trend of modern days, where the marine soil need to be treated prior construction. The increase in unconfined compressive strength of marine clay treated by Biomass Silica, ‘SH-85’ has been demonstrated by several investigations. This paper studies the stress-strain behavior of marine clay treated with 12% of SH-85 with different curing periods and confining pressures. The results show that the strength parameters of the stabilized soil are greatly improved during the early stage of the curing period under higher confining pressures. In addition, the XRD analysis and microstructure study confirm the appearance of a new reflection peak at 29° in the treated soils indicating the formation of Calcium Silicate Hydrate (CSH). The curing period of 7 days at a confining pressure of 400 kPa was found to be an optimum combination for in situ stabilization. The effective stabilization depth predicted at each location can be defined as the depth ensuing the mentioned confining pressure. The approach of this research can be applied in construction activities associated with marine clay to help engineers in risk assessment, feasibility study and planning of the developments Springer Nature 2018 Article PeerReviewed text en http://eprints.uthm.edu.my/5677/1/AJ%202018%20%28297%29.pdf Lim, Jing Jin and Mohd Yunus, Nor Zurairahetty and Hezmi, Muhammad Azril and Abdul Rashid, Ahmad Safuan and Marto, Amination and Kalatehjari, Roohollah and Pakir, Faizal and Mashros, Nordiana and Adekunle Ganiyu, Abideen (2018) Predicting the effective depth of soil stabilization for marine clay treated by biomass silica. KSCE Journal of Civil Engineering, 22. pp. 4316-4326. ISSN 1226-7988
institution Universiti Tun Hussein Onn Malaysia
building UTHM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tun Hussein Onn Malaysia
content_source UTHM Institutional Repository
url_provider http://eprints.uthm.edu.my/
language English
topic TA703-712 Engineering geology. Rock mechanics. Soil mechanics.
spellingShingle TA703-712 Engineering geology. Rock mechanics. Soil mechanics.
Lim, Jing Jin
Mohd Yunus, Nor Zurairahetty
Hezmi, Muhammad Azril
Abdul Rashid, Ahmad Safuan
Marto, Amination
Kalatehjari, Roohollah
Pakir, Faizal
Mashros, Nordiana
Adekunle Ganiyu, Abideen
Predicting the effective depth of soil stabilization for marine clay treated by biomass silica
description Reclamation and development towards the oceanic area had become a trend of modern days, where the marine soil need to be treated prior construction. The increase in unconfined compressive strength of marine clay treated by Biomass Silica, ‘SH-85’ has been demonstrated by several investigations. This paper studies the stress-strain behavior of marine clay treated with 12% of SH-85 with different curing periods and confining pressures. The results show that the strength parameters of the stabilized soil are greatly improved during the early stage of the curing period under higher confining pressures. In addition, the XRD analysis and microstructure study confirm the appearance of a new reflection peak at 29° in the treated soils indicating the formation of Calcium Silicate Hydrate (CSH). The curing period of 7 days at a confining pressure of 400 kPa was found to be an optimum combination for in situ stabilization. The effective stabilization depth predicted at each location can be defined as the depth ensuing the mentioned confining pressure. The approach of this research can be applied in construction activities associated with marine clay to help engineers in risk assessment, feasibility study and planning of the developments
format Article
author Lim, Jing Jin
Mohd Yunus, Nor Zurairahetty
Hezmi, Muhammad Azril
Abdul Rashid, Ahmad Safuan
Marto, Amination
Kalatehjari, Roohollah
Pakir, Faizal
Mashros, Nordiana
Adekunle Ganiyu, Abideen
author_facet Lim, Jing Jin
Mohd Yunus, Nor Zurairahetty
Hezmi, Muhammad Azril
Abdul Rashid, Ahmad Safuan
Marto, Amination
Kalatehjari, Roohollah
Pakir, Faizal
Mashros, Nordiana
Adekunle Ganiyu, Abideen
author_sort Lim, Jing Jin
title Predicting the effective depth of soil stabilization for marine clay treated by biomass silica
title_short Predicting the effective depth of soil stabilization for marine clay treated by biomass silica
title_full Predicting the effective depth of soil stabilization for marine clay treated by biomass silica
title_fullStr Predicting the effective depth of soil stabilization for marine clay treated by biomass silica
title_full_unstemmed Predicting the effective depth of soil stabilization for marine clay treated by biomass silica
title_sort predicting the effective depth of soil stabilization for marine clay treated by biomass silica
publisher Springer Nature
publishDate 2018
url http://eprints.uthm.edu.my/5677/1/AJ%202018%20%28297%29.pdf
http://eprints.uthm.edu.my/5677/
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score 13.211869