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Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition

The carbonation rate of reinforced concrete is influenced by three parameters, namely temperature, relative humidity, and concentration of carbon dioxide (CO(2)) in the surroundings. As knowledge of the service lifespan of reinforced concrete is crucial in terms of corrosion, the carbonation process...

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Autores principales: Tang, Wei Le, Lee, Han-Seung, Vimonsatit, Vanissorn, Htut, Trevor, Singh, Jitendra Kumar, Wan Hassan, Wan Nur Firdaus, Ismail, Mohamed A., Seikh, Asiful H., Alharthi, Nabeel
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6337438/
https://www.ncbi.nlm.nih.gov/pubmed/30609786
http://dx.doi.org/10.3390/ma12010130
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author Tang, Wei Le
Lee, Han-Seung
Vimonsatit, Vanissorn
Htut, Trevor
Singh, Jitendra Kumar
Wan Hassan, Wan Nur Firdaus
Ismail, Mohamed A.
Seikh, Asiful H.
Alharthi, Nabeel
author_facet Tang, Wei Le
Lee, Han-Seung
Vimonsatit, Vanissorn
Htut, Trevor
Singh, Jitendra Kumar
Wan Hassan, Wan Nur Firdaus
Ismail, Mohamed A.
Seikh, Asiful H.
Alharthi, Nabeel
author_sort Tang, Wei Le
collection PubMed
description The carbonation rate of reinforced concrete is influenced by three parameters, namely temperature, relative humidity, and concentration of carbon dioxide (CO(2)) in the surroundings. As knowledge of the service lifespan of reinforced concrete is crucial in terms of corrosion, the carbonation process is important to study, and high-performance durable reinforced concretes can be produced to prolong the effects of corrosion. To examine carbonation resistance, accelerated carbonation testing was conducted in accordance with the standards of BS 1881-210:2013. In this study, 10–30% of micro palm oil fuel ash (mPOFA) and 0.5–1.5% of nano-POFA (nPOFA) were incorporated into concrete mixtures to determine the optimum amount for achieving the highest carbonation resistance after 28 days water curing and accelerated CO(2) conditions up to 70 days of exposure. The effect of carbonation on concrete specimens with the inclusion of mPOFA and nPOFA was investigated. The carbonation depth was identified by phenolphthalein solution. The highest carbonation resistance of concrete was found after the inclusion of 10% mPOFA and 0.5% nPOFA, while the lowest carbonation resistance was found after the inclusion of 30% mPOFA and 1.5% nPOFA.
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spelling pubmed-63374382019-01-22 Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition Tang, Wei Le Lee, Han-Seung Vimonsatit, Vanissorn Htut, Trevor Singh, Jitendra Kumar Wan Hassan, Wan Nur Firdaus Ismail, Mohamed A. Seikh, Asiful H. Alharthi, Nabeel Materials (Basel) Article The carbonation rate of reinforced concrete is influenced by three parameters, namely temperature, relative humidity, and concentration of carbon dioxide (CO(2)) in the surroundings. As knowledge of the service lifespan of reinforced concrete is crucial in terms of corrosion, the carbonation process is important to study, and high-performance durable reinforced concretes can be produced to prolong the effects of corrosion. To examine carbonation resistance, accelerated carbonation testing was conducted in accordance with the standards of BS 1881-210:2013. In this study, 10–30% of micro palm oil fuel ash (mPOFA) and 0.5–1.5% of nano-POFA (nPOFA) were incorporated into concrete mixtures to determine the optimum amount for achieving the highest carbonation resistance after 28 days water curing and accelerated CO(2) conditions up to 70 days of exposure. The effect of carbonation on concrete specimens with the inclusion of mPOFA and nPOFA was investigated. The carbonation depth was identified by phenolphthalein solution. The highest carbonation resistance of concrete was found after the inclusion of 10% mPOFA and 0.5% nPOFA, while the lowest carbonation resistance was found after the inclusion of 30% mPOFA and 1.5% nPOFA. MDPI 2019-01-03 /pmc/articles/PMC6337438/ /pubmed/30609786 http://dx.doi.org/10.3390/ma12010130 Text en © 2019 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Tang, Wei Le
Lee, Han-Seung
Vimonsatit, Vanissorn
Htut, Trevor
Singh, Jitendra Kumar
Wan Hassan, Wan Nur Firdaus
Ismail, Mohamed A.
Seikh, Asiful H.
Alharthi, Nabeel
Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition
title Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition
title_full Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition
title_fullStr Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition
title_full_unstemmed Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition
title_short Optimization of Micro and Nano Palm Oil Fuel Ash to Determine the Carbonation Resistance of the Concrete in Accelerated Condition
title_sort optimization of micro and nano palm oil fuel ash to determine the carbonation resistance of the concrete in accelerated condition
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6337438/
https://www.ncbi.nlm.nih.gov/pubmed/30609786
http://dx.doi.org/10.3390/ma12010130
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