Membrane distillation : surface modification, module modeling and system optimization
Compared to conventional separation processes, MD is potentially more cost-effective, especially when low-grade waste heat and/or alternative renewable energy sources being available for use. Though boasting a promising future for industrial application, several technical challenges still need to be...
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sg-ntu-dr.10356-610182023-03-03T19:23:48Z Membrane distillation : surface modification, module modeling and system optimization Zuo, Guangzhi Wang Rong School of Civil and Environmental Engineering Singapore Membrane Technology Centre DRNTU::Engineering::Environmental engineering::Water treatment Compared to conventional separation processes, MD is potentially more cost-effective, especially when low-grade waste heat and/or alternative renewable energy sources being available for use. Though boasting a promising future for industrial application, several technical challenges still need to be tackled, including membrane wetting and fouling, relatively low membrane permeability (flux), concentration/temperature polarization effect, uncertainty of economic benefit, etc. Therefore, novel membrane development and improved module design will offer effective strategic solutions to these challenges. This thesis provides a comprehensive review of previous studies on MD with a focus on the areas of membrane wetting and fouling, especially when seawater is contaminated by spilled or discharged oil. Moreover, membrane module modeling based on computational fluid dynamics (CFD) and system optimization in terms of energy and economic analysis were also investigated. Overall, it is expected that the PhD study can help sought potential strategies to address the challenges for the practical application of MD process, such as the prevention of membrane wetting, reduction of membrane fouling by oil contamination, MD module modeling and system optimization, through better design and operation conditions. Doctor of Philosophy (CEE) 2014-06-04T02:34:30Z 2014-06-04T02:34:30Z 2014 2014 Thesis Zuo, G. (2014). Membrane distillation : surface modification, module modeling and system optimization. Doctoral thesis, Nanyang Technological University, Singapore. https://hdl.handle.net/10356/61018 10.32657/10356/61018 en 196 p. application/pdf |
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DRNTU::Engineering::Environmental engineering::Water treatment Zuo, Guangzhi Membrane distillation : surface modification, module modeling and system optimization |
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Compared to conventional separation processes, MD is potentially more cost-effective, especially when low-grade waste heat and/or alternative renewable energy sources being available for use. Though boasting a promising future for industrial application, several technical challenges still need to be tackled, including membrane wetting and fouling, relatively low membrane permeability (flux), concentration/temperature polarization effect, uncertainty of economic benefit, etc. Therefore, novel membrane development and improved module design will offer effective strategic solutions to these challenges. This thesis provides a comprehensive review of previous studies on MD with a focus on the areas of membrane wetting and fouling, especially when seawater is contaminated by spilled or discharged oil. Moreover, membrane module modeling based on computational fluid dynamics (CFD) and system optimization in terms of energy and economic analysis were also investigated. Overall, it is expected that the PhD study can help sought potential strategies to address the challenges for the practical application of MD process, such as the prevention of membrane wetting, reduction of membrane fouling by oil contamination, MD module modeling and system optimization, through better design and operation conditions. |
author2 |
Wang Rong |
author_facet |
Wang Rong Zuo, Guangzhi |
format |
Theses and Dissertations |
author |
Zuo, Guangzhi |
author_sort |
Zuo, Guangzhi |
title |
Membrane distillation : surface modification, module modeling and system optimization |
title_short |
Membrane distillation : surface modification, module modeling and system optimization |
title_full |
Membrane distillation : surface modification, module modeling and system optimization |
title_fullStr |
Membrane distillation : surface modification, module modeling and system optimization |
title_full_unstemmed |
Membrane distillation : surface modification, module modeling and system optimization |
title_sort |
membrane distillation : surface modification, module modeling and system optimization |
publishDate |
2014 |
url |
https://hdl.handle.net/10356/61018 |
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1759856001971912704 |