Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance

The current research aims to address the problem of Ultrafiltration Membrane’s (UFM) low productivity in producing clean water that affect the water demand. The novelty of this research is of increasing productivity at a minimum energy consumption performance at optimum clean water production by UFM...

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主要作者: Michael Anggie, Boniface
格式: Thesis
语言:English
English
English
出版: 2024
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spelling my-unimas-ir.467672024-12-02T02:48:57Z Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance 2024 Michael Anggie, Boniface T Technology (General) The current research aims to address the problem of Ultrafiltration Membrane’s (UFM) low productivity in producing clean water that affect the water demand. The novelty of this research is of increasing productivity at a minimum energy consumption performance at optimum clean water production by UFM in association process of control devices (PCD). Experimental research has conducted with UFM, PCD, feed water pump and clean water storage tank. The experimental runs were estimated by central composite design (CCD) and optimization was determined by design of experiments (DOE). The experiment was divided into the three main steps. Step one assesses the effect of the PCD on permeate flux [m³(sqm)-1] by operating the system without, and then with PCD. Step two evaluates the impact of PCD on energy consumption rate [kW(m³)-1] using a similar two-phase approach. Step three aims to optimize UFM performance by adjusting and analyzing feed water pressure (bar), energy consumption rate [kW(m³)-1] and permeate flux [m³(sqm)-1]. The experimental findings demonstrated that PCD devices have significantly impacted on saving 31.6% in permeate flux wastage at a P-value < 0.05. Additionally, the PCD has significantly (at P-value < 0.05) contributed to produce clean water at energy consumption rate 0.43 kW(m3)-1. The optimum performance (at P-value < 0.05) of UFM in association with PCD was 0.68m3(sqm)-1 clean water production per square meter of membrane surface area at 1.5 bar optimum pressure and 0.42kW(m3)-1energy consumption rate. The R2statistic of the regression was 0.8993, which is good fit of the regression, meaning is the output is 89.93% associated with inputs. The research findings have a few implications in contributing to achieve higher productivity in clean water production by UFM, which will obviously reduce the water crisis, water production cost. This finding would be a reference for policy makers and government agencies involved in clean water sustainability (SDG 6). In conclusion, this research has provided valuable insights into the impact of process control devices and UFM on optimization of clean water at a minimum energy consumption rate. The performance optimization of UFM by the process control devices are the Novelty of this work. indeed, this study suggests for further research in this field for developing a robust model. Universiti Malaysia Sarawak(UNIMAS) 2024 Thesis http://ir.unimas.my/id/eprint/46767/ http://ir.unimas.my/id/eprint/46767/1/DSVA%20Michael.pdf text en staffonly http://ir.unimas.my/id/eprint/46767/2/Michael%20Anggie%20Anak%20Boniface%20%2824pgs%29.pdf text en public http://ir.unimas.my/id/eprint/46767/3/Michael%20Anggie%20Anak%20Boniface%20%28Fulltext%29.pdf text en validuser masters Universiti Malaysia Sarawak (UNIMAS) Faculty of Engineering
institution Universiti Malaysia Sarawak
collection UNIMAS Institutional Repository
language English
English
English
topic T Technology (General)
spellingShingle T Technology (General)
Michael Anggie, Boniface
Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance
description The current research aims to address the problem of Ultrafiltration Membrane’s (UFM) low productivity in producing clean water that affect the water demand. The novelty of this research is of increasing productivity at a minimum energy consumption performance at optimum clean water production by UFM in association process of control devices (PCD). Experimental research has conducted with UFM, PCD, feed water pump and clean water storage tank. The experimental runs were estimated by central composite design (CCD) and optimization was determined by design of experiments (DOE). The experiment was divided into the three main steps. Step one assesses the effect of the PCD on permeate flux [m³(sqm)-1] by operating the system without, and then with PCD. Step two evaluates the impact of PCD on energy consumption rate [kW(m³)-1] using a similar two-phase approach. Step three aims to optimize UFM performance by adjusting and analyzing feed water pressure (bar), energy consumption rate [kW(m³)-1] and permeate flux [m³(sqm)-1]. The experimental findings demonstrated that PCD devices have significantly impacted on saving 31.6% in permeate flux wastage at a P-value < 0.05. Additionally, the PCD has significantly (at P-value < 0.05) contributed to produce clean water at energy consumption rate 0.43 kW(m3)-1. The optimum performance (at P-value < 0.05) of UFM in association with PCD was 0.68m3(sqm)-1 clean water production per square meter of membrane surface area at 1.5 bar optimum pressure and 0.42kW(m3)-1energy consumption rate. The R2statistic of the regression was 0.8993, which is good fit of the regression, meaning is the output is 89.93% associated with inputs. The research findings have a few implications in contributing to achieve higher productivity in clean water production by UFM, which will obviously reduce the water crisis, water production cost. This finding would be a reference for policy makers and government agencies involved in clean water sustainability (SDG 6). In conclusion, this research has provided valuable insights into the impact of process control devices and UFM on optimization of clean water at a minimum energy consumption rate. The performance optimization of UFM by the process control devices are the Novelty of this work. indeed, this study suggests for further research in this field for developing a robust model.
format Thesis
qualification_level Master's degree
author Michael Anggie, Boniface
author_facet Michael Anggie, Boniface
author_sort Michael Anggie, Boniface
title Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance
title_short Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance
title_full Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance
title_fullStr Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance
title_full_unstemmed Modelling and Investigating the Impact of Process Control Devices on the Ultrafiltration Membrane Performance
title_sort modelling and investigating the impact of process control devices on the ultrafiltration membrane performance
granting_institution Universiti Malaysia Sarawak (UNIMAS)
granting_department Faculty of Engineering
publishDate 2024
url http://ir.unimas.my/id/eprint/46767/1/DSVA%20Michael.pdf
http://ir.unimas.my/id/eprint/46767/2/Michael%20Anggie%20Anak%20Boniface%20%2824pgs%29.pdf
http://ir.unimas.my/id/eprint/46767/3/Michael%20Anggie%20Anak%20Boniface%20%28Fulltext%29.pdf
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