The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water

In this paper, membrane filtration of produced water is studied in terms of its mass transfer coefficient. This filtration process is incorporated to improve the existing OSPAR method in removing dissolved oil. During membrane filtration, concentration nearer to the membrane is higher than the conce...

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Main Authors: Khor, E., Samyudia, Yudi
Format: Journal Article
Published: Serials Publications 2009
Subjects:
Online Access:http://hdl.handle.net/20.500.11937/33691
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author Khor, E.
Samyudia, Yudi
author_facet Khor, E.
Samyudia, Yudi
author_sort Khor, E.
building Curtin Institutional Repository
collection Online Access
description In this paper, membrane filtration of produced water is studied in terms of its mass transfer coefficient. This filtration process is incorporated to improve the existing OSPAR method in removing dissolved oil. During membrane filtration, concentration nearer to the membrane is higher than the concentration of bulk solution and thus a concentration profile develops. Studying the mass transfer coefficient (MTC) which drives the concentration difference can help us in understanding the phenomena of fouling in membrane. Two models i.e. combined solution diffusion/film theory model (Murthy and Gupta, 1997) and film theory model are compared and the most suitable model to predict the MTC is selected. From the experimental results, it was found that film theory (FT) model is suitable to calculate MTC for produced water samples in our experimental set-up. The models are found to be suitable only at a certain range of differential pressure.
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institution Curtin University Malaysia
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publishDate 2009
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spelling curtin-20.500.11937-336912017-01-30T13:38:44Z The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water Khor, E. Samyudia, Yudi mass transfer coefficient produced water Cross-flow membrane filtration In this paper, membrane filtration of produced water is studied in terms of its mass transfer coefficient. This filtration process is incorporated to improve the existing OSPAR method in removing dissolved oil. During membrane filtration, concentration nearer to the membrane is higher than the concentration of bulk solution and thus a concentration profile develops. Studying the mass transfer coefficient (MTC) which drives the concentration difference can help us in understanding the phenomena of fouling in membrane. Two models i.e. combined solution diffusion/film theory model (Murthy and Gupta, 1997) and film theory model are compared and the most suitable model to predict the MTC is selected. From the experimental results, it was found that film theory (FT) model is suitable to calculate MTC for produced water samples in our experimental set-up. The models are found to be suitable only at a certain range of differential pressure. 2009 Journal Article http://hdl.handle.net/20.500.11937/33691 Serials Publications fulltext
spellingShingle mass transfer coefficient
produced water
Cross-flow membrane filtration
Khor, E.
Samyudia, Yudi
The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water
title The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water
title_full The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water
title_fullStr The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water
title_full_unstemmed The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water
title_short The Study of Mass Transfer Coeffcient in Membrane Separation for Produced Water
title_sort study of mass transfer coeffcient in membrane separation for produced water
topic mass transfer coefficient
produced water
Cross-flow membrane filtration
url http://hdl.handle.net/20.500.11937/33691