Phenol recovery using continuous emulsion liquid membrane (CELM) process

Liquid membrane technology in batch operation is not quite feasible at industrial level. Hence, a continuous emulsion liquid membrane (CELM) process was conducted in this study to extract phenol from liquid waste solution. An extractor of 1.5 L equipped with baffles was used for well mixed during th...

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Main Authors: Raja Sulaiman, Raja Norimie, Othman, Norasikin, Harith, Nur Hartika, Abdul Rahman, Hilmi, Jusoh, Norela, Mohamed Noah, Norul Fatiha, Rosly, Muhammad Bukhari
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Published: Taylor and Francis Ltd. 2021
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Online Access:http://eprints.utm.my/id/eprint/96603/
http://dx.doi.org/10.1080/00986445.2019.1668785
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spelling my.utm.966032022-08-08T04:15:57Z http://eprints.utm.my/id/eprint/96603/ Phenol recovery using continuous emulsion liquid membrane (CELM) process Raja Sulaiman, Raja Norimie Othman, Norasikin Harith, Nur Hartika Abdul Rahman, Hilmi Jusoh, Norela Mohamed Noah, Norul Fatiha Rosly, Muhammad Bukhari TP Chemical technology Liquid membrane technology in batch operation is not quite feasible at industrial level. Hence, a continuous emulsion liquid membrane (CELM) process was conducted in this study to extract phenol from liquid waste solution. An extractor of 1.5 L equipped with baffles was used for well mixed during the extraction process. ELM formulation consists of a mixture of kerosene and palm oil, span 80 and sodium hydroxide as a diluent, surfactant, and strippant, respectively. Meanwhile, 300 ppm of simulated phenol wastewater was used as a feed phase. ELM was found to be stable at 3% (w/v) of Span 80, 5 min of emulsification time and 1300 rpm of emulsification speed. Then, parameters influencing recovery were optimized using the response surface methodology including rotational speed (400 to 800 rpm), treat ratio (1:3 to 1:10) and retention time (2 to 6 min). Increasing rotational speed, treat ratio, and retention time up to 527 rpm, 1:4 and 4 min, respectively offer high recovery efficiency of phenol when achieving about seven times enrichment in the internal phase (2100 ppm). Taylor and Francis Ltd. 2021 Article PeerReviewed Raja Sulaiman, Raja Norimie and Othman, Norasikin and Harith, Nur Hartika and Abdul Rahman, Hilmi and Jusoh, Norela and Mohamed Noah, Norul Fatiha and Rosly, Muhammad Bukhari (2021) Phenol recovery using continuous emulsion liquid membrane (CELM) process. Chemical Engineering Communications, 208 (4). pp. 483-499. ISSN 0098-6445 http://dx.doi.org/10.1080/00986445.2019.1668785 DOI:10.1080/00986445.2019.1668785
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
topic TP Chemical technology
spellingShingle TP Chemical technology
Raja Sulaiman, Raja Norimie
Othman, Norasikin
Harith, Nur Hartika
Abdul Rahman, Hilmi
Jusoh, Norela
Mohamed Noah, Norul Fatiha
Rosly, Muhammad Bukhari
Phenol recovery using continuous emulsion liquid membrane (CELM) process
description Liquid membrane technology in batch operation is not quite feasible at industrial level. Hence, a continuous emulsion liquid membrane (CELM) process was conducted in this study to extract phenol from liquid waste solution. An extractor of 1.5 L equipped with baffles was used for well mixed during the extraction process. ELM formulation consists of a mixture of kerosene and palm oil, span 80 and sodium hydroxide as a diluent, surfactant, and strippant, respectively. Meanwhile, 300 ppm of simulated phenol wastewater was used as a feed phase. ELM was found to be stable at 3% (w/v) of Span 80, 5 min of emulsification time and 1300 rpm of emulsification speed. Then, parameters influencing recovery were optimized using the response surface methodology including rotational speed (400 to 800 rpm), treat ratio (1:3 to 1:10) and retention time (2 to 6 min). Increasing rotational speed, treat ratio, and retention time up to 527 rpm, 1:4 and 4 min, respectively offer high recovery efficiency of phenol when achieving about seven times enrichment in the internal phase (2100 ppm).
format Article
author Raja Sulaiman, Raja Norimie
Othman, Norasikin
Harith, Nur Hartika
Abdul Rahman, Hilmi
Jusoh, Norela
Mohamed Noah, Norul Fatiha
Rosly, Muhammad Bukhari
author_facet Raja Sulaiman, Raja Norimie
Othman, Norasikin
Harith, Nur Hartika
Abdul Rahman, Hilmi
Jusoh, Norela
Mohamed Noah, Norul Fatiha
Rosly, Muhammad Bukhari
author_sort Raja Sulaiman, Raja Norimie
title Phenol recovery using continuous emulsion liquid membrane (CELM) process
title_short Phenol recovery using continuous emulsion liquid membrane (CELM) process
title_full Phenol recovery using continuous emulsion liquid membrane (CELM) process
title_fullStr Phenol recovery using continuous emulsion liquid membrane (CELM) process
title_full_unstemmed Phenol recovery using continuous emulsion liquid membrane (CELM) process
title_sort phenol recovery using continuous emulsion liquid membrane (celm) process
publisher Taylor and Francis Ltd.
publishDate 2021
url http://eprints.utm.my/id/eprint/96603/
http://dx.doi.org/10.1080/00986445.2019.1668785
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score 13.18916