Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane

Membrane technology has emerged as an alternative to conventional water treatment methods. Membranes, however, are exposed to fouling phenomena during their application. These have contributed to short membrane durability and higher operating cost. Improvements of commercial membrane characteristics...

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Main Authors: Ghany M.A.R.A., Lun A.W., Alsaffar M.A., Mahmoudi E., Ayodele B.V.
Other Authors: 57220782481
Format: Conference Paper
Published: American Institute of Physics Inc. 2023
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Institution: Universiti Tenaga Nasional
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spelling my.uniten.dspace-250832023-05-29T16:06:42Z Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane Ghany M.A.R.A. Lun A.W. Alsaffar M.A. Mahmoudi E. Ayodele B.V. 57220782481 57220782858 57210601717 56647904800 56862160400 Membrane technology has emerged as an alternative to conventional water treatment methods. Membranes, however, are exposed to fouling phenomena during their application. These have contributed to short membrane durability and higher operating cost. Improvements of commercial membrane characteristics and developing new membrane materials, thus, are the focus of membrane researchers in recent years in order to enhance the membrane overall performance. This current study was aimed to develop a composite membrane material with improved characteristics such as high fouling resistance, high flux, high hydrophilicity and good mechanical properties. Graphene oxide (GO) nanoplates have become the best candidate to be adopted as a nanofillers in the membrane matrices owing to its unique properties. Polyethersulfone (PES) membranes have been fabricated using a direct blending of the nanoplates in the blending solution via a wet phase inversion method. The addition of GO nanoplates and acacia gum to the casting solution changed the viscosity of the solution. As a result, the membrane with denser sub-layer and smaller pore size were formed owing to the changes in phase inversion kinetics. All the membranes, however, have an integrated asymmetric structure according to Field Emission Scanning Electron (FESEM) images. Fouling phenomena of the fabricated membranes were quantified by measuring flux declines at constant suction pressure. � 2020 Author(s). Final 2023-05-29T08:06:42Z 2023-05-29T08:06:42Z 2020 Conference Paper 10.1063/5.0027468 2-s2.0-85097618669 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85097618669&doi=10.1063%2f5.0027468&partnerID=40&md5=93ff10c0c2e784a744b876963656aafe https://irepository.uniten.edu.my/handle/123456789/25083 2290 27468 All Open Access, Bronze American Institute of Physics Inc. Scopus
institution Universiti Tenaga Nasional
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description Membrane technology has emerged as an alternative to conventional water treatment methods. Membranes, however, are exposed to fouling phenomena during their application. These have contributed to short membrane durability and higher operating cost. Improvements of commercial membrane characteristics and developing new membrane materials, thus, are the focus of membrane researchers in recent years in order to enhance the membrane overall performance. This current study was aimed to develop a composite membrane material with improved characteristics such as high fouling resistance, high flux, high hydrophilicity and good mechanical properties. Graphene oxide (GO) nanoplates have become the best candidate to be adopted as a nanofillers in the membrane matrices owing to its unique properties. Polyethersulfone (PES) membranes have been fabricated using a direct blending of the nanoplates in the blending solution via a wet phase inversion method. The addition of GO nanoplates and acacia gum to the casting solution changed the viscosity of the solution. As a result, the membrane with denser sub-layer and smaller pore size were formed owing to the changes in phase inversion kinetics. All the membranes, however, have an integrated asymmetric structure according to Field Emission Scanning Electron (FESEM) images. Fouling phenomena of the fabricated membranes were quantified by measuring flux declines at constant suction pressure. � 2020 Author(s).
author2 57220782481
author_facet 57220782481
Ghany M.A.R.A.
Lun A.W.
Alsaffar M.A.
Mahmoudi E.
Ayodele B.V.
format Conference Paper
author Ghany M.A.R.A.
Lun A.W.
Alsaffar M.A.
Mahmoudi E.
Ayodele B.V.
spellingShingle Ghany M.A.R.A.
Lun A.W.
Alsaffar M.A.
Mahmoudi E.
Ayodele B.V.
Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
author_sort Ghany M.A.R.A.
title Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
title_short Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
title_full Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
title_fullStr Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
title_full_unstemmed Fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
title_sort fabrication and characterization of a novel acacia gum copolymer for improving graphene-based membrane
publisher American Institute of Physics Inc.
publishDate 2023
_version_ 1806427655951613952