2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process

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date 2021-10-03 15:11
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id 15267
institution UniSZA
originalfilename DEVELOPMENT OF POLYSULFONE-SURFACTANT BASED ASYMMETRIC LOW PRESSURE REVERSE OSMOSIS MEMBRANE FOR DESALINATION PROCESS
person PDFsam Basic v4.2.10
Kuzama Mansoor A Al Dabbaas
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spelling 15267 https://intelek.unisza.edu.my/intelek/pages/view.php?ref=15267 https://intelek.unisza.edu.my/intelek/pages/search.php?search=!collection3 General Document Malaysia Library Staff (Top Management) Library Staff (Management) Library Staff (Support) Terengganu English UniSZA East Coast Environmental Research Institute application/pdf 1.5 PDFsam Basic v4.2.10 Chemometrics Server storage Scanned document Universiti Sultan Zainal Abidin UniSZA Private Access Universiti Sultan Zainal Abidin SAMBox 2.3.4; modified using iTextSharp™ 5.5.10 ©2000-2016 iText Group NV (AGPL-version) 2021-10-03 15:11 135 Copyright©PWB2025 Pollution—Measurement Multivariate analysis Environmental chemistry—Statistical methods Water quality—Mathematical models Water quality—Measurement Environmental monitoring—Statistical methods 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process DEVELOPMENT OF POLYSULFONE-SURFACTANT BASED ASYMMETRIC LOW PRESSURE REVERSE OSMOSIS MEMBRANE FOR DESALINATION PROCESS Kuzama Mansoor A Al Dabbaas Polysulfone-Surfactant Asymmetric Reverse Osmosis Membrane Desalination Process Water is important factor for human survival. Living things don’t only need water but clean and safe water. However, it is noted that natural water supplies are decreasing as a result of climate change and industrial pollution. To ensure the sustainability of mankind, water conservation and water transport, or construction of new dams, are provided but this has been found to be insufficient to cope with increasing demand in water supply. Based on this, new or alternative means has to be provided. At present, the most suitable solution is recovery of clean drinking water from salty or sea water which is, by far the most abundant global water resource. To achieve this, desalination has been found to be the effective way. Desalination is a technology that converts saline water into clean water. However, the desalination process is complex in the aspect of operation, maintenance. Due to higher operating pressure, the cost of RO desalination process is estimated 200% higher compare to common water treatment process for water supply. Therefore, the development of asymmetric low pressure RO membranes for desalination is imperative and critical. In this research, the effect of polymer concentration, type of surfactants (CTAB, Triton X-100 and SDS) and surfactants concentration ranging from 1 wt% to 3 wt% towards the membrane performance, morphology and thermal properties were studied. The RO performances in terms of water flux, saline water flux and salt rejection were investigated. The experiments of saline water were conducted using of varies salt solutions at different concentrations. Scanning electron microscopy(SEM) was used to study the membranes morphologies as well as functional group analysis by using Fourier Transform Infrared (FTIR). Experimental results showed that the optimum surfactant concentration was found to be at 2 wt%. At the optimal point, the fabricated RO low pressure membrane depicted the highest rejection good permeability rate. Experimental data revealed that the addition of surfactant in the asymmetric low pressure RO membrane is not only improved the performance and morphologies of fabricated RO membranes but remarkably lead for better membranes desalination operation at low operating pressure which is very critical for water desalination industry Hydrology—Statistical methods Water—Pollution—Analysis Geochemical modeling Dissertations, Academic Thesis
spellingShingle 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process
state Terengganu
subject Chemometrics
Pollution—Measurement
Multivariate analysis
Environmental chemistry—Statistical methods
Water quality—Mathematical models
Water quality—Measurement
Environmental monitoring—Statistical methods
Hydrology—Statistical methods
Water—Pollution—Analysis
Geochemical modeling
Dissertations, Academic
summary Water is important factor for human survival. Living things don’t only need water but clean and safe water. However, it is noted that natural water supplies are decreasing as a result of climate change and industrial pollution. To ensure the sustainability of mankind, water conservation and water transport, or construction of new dams, are provided but this has been found to be insufficient to cope with increasing demand in water supply. Based on this, new or alternative means has to be provided. At present, the most suitable solution is recovery of clean drinking water from salty or sea water which is, by far the most abundant global water resource. To achieve this, desalination has been found to be the effective way. Desalination is a technology that converts saline water into clean water. However, the desalination process is complex in the aspect of operation, maintenance. Due to higher operating pressure, the cost of RO desalination process is estimated 200% higher compare to common water treatment process for water supply. Therefore, the development of asymmetric low pressure RO membranes for desalination is imperative and critical. In this research, the effect of polymer concentration, type of surfactants (CTAB, Triton X-100 and SDS) and surfactants concentration ranging from 1 wt% to 3 wt% towards the membrane performance, morphology and thermal properties were studied. The RO performances in terms of water flux, saline water flux and salt rejection were investigated. The experiments of saline water were conducted using of varies salt solutions at different concentrations. Scanning electron microscopy(SEM) was used to study the membranes morphologies as well as functional group analysis by using Fourier Transform Infrared (FTIR). Experimental results showed that the optimum surfactant concentration was found to be at 2 wt%. At the optimal point, the fabricated RO low pressure membrane depicted the highest rejection good permeability rate. Experimental data revealed that the addition of surfactant in the asymmetric low pressure RO membrane is not only improved the performance and morphologies of fabricated RO membranes but remarkably lead for better membranes desalination operation at low operating pressure which is very critical for water desalination industry
title 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process
title_full 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process
title_fullStr 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process
title_full_unstemmed 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process
title_short 2021_Development of Polysulfone-Surfactant Based Asymmetric Low Pressure Reverse Osmosis Membrane For Desalination Process
title_sort 2021_development of polysulfone-surfactant based asymmetric low pressure reverse osmosis membrane for desalination process