Photocatalytic treatment of shower water using a pilot scale reactor

Treatment of shower water deserves special consideration for reuse not only because of its low pollutant loading but also because it is produced in large quantities. In this study, a pilot scale study of photocatalytic degradation of impurities in real shower water was performed in a 31 L volume rea...

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Main Authors: Boyjoo, Yashveersingh, Ang, M., Pareek, V.
Format: Journal Article
Published: 2012
Online Access:http://hdl.handle.net/20.500.11937/38088
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author Boyjoo, Yashveersingh
Ang, M.
Pareek, V.
author_facet Boyjoo, Yashveersingh
Ang, M.
Pareek, V.
author_sort Boyjoo, Yashveersingh
building Curtin Institutional Repository
collection Online Access
description Treatment of shower water deserves special consideration for reuse not only because of its low pollutant loading but also because it is produced in large quantities. In this study, a pilot scale study of photocatalytic degradation of impurities in real shower water was performed in a 31 L volume reactor using titanium dioxide as the photocatalyst. The reactor was operated in a continuous slurry recirculation mode. Several operational parameters were studied including the slurry initial pH, catalyst concentration, air flow rate, and slurry recirculation rate. Up to 57 of total organic carbon (TOC) elimination was obtained after 6 hours of treatment (for 3.0 slurry initial pH, 0.07 gL -1 catalyst concentration, 1.8 Lmin -1 air flow rate, and 4.4 Lmin -1 slurry recirculation rate). This study showed that photocatalysis could be successfully transposed from bench scale to pilot scale. Furthermore, the ease of operation and the potential to use solar energy make photocatalysis an attractive prospect with respect to treatment of grey water. © 2012 Yash Boyjoo et al.
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spelling curtin-20.500.11937-380882017-09-13T14:11:36Z Photocatalytic treatment of shower water using a pilot scale reactor Boyjoo, Yashveersingh Ang, M. Pareek, V. Treatment of shower water deserves special consideration for reuse not only because of its low pollutant loading but also because it is produced in large quantities. In this study, a pilot scale study of photocatalytic degradation of impurities in real shower water was performed in a 31 L volume reactor using titanium dioxide as the photocatalyst. The reactor was operated in a continuous slurry recirculation mode. Several operational parameters were studied including the slurry initial pH, catalyst concentration, air flow rate, and slurry recirculation rate. Up to 57 of total organic carbon (TOC) elimination was obtained after 6 hours of treatment (for 3.0 slurry initial pH, 0.07 gL -1 catalyst concentration, 1.8 Lmin -1 air flow rate, and 4.4 Lmin -1 slurry recirculation rate). This study showed that photocatalysis could be successfully transposed from bench scale to pilot scale. Furthermore, the ease of operation and the potential to use solar energy make photocatalysis an attractive prospect with respect to treatment of grey water. © 2012 Yash Boyjoo et al. 2012 Journal Article http://hdl.handle.net/20.500.11937/38088 10.1155/2012/578916 fulltext
spellingShingle Boyjoo, Yashveersingh
Ang, M.
Pareek, V.
Photocatalytic treatment of shower water using a pilot scale reactor
title Photocatalytic treatment of shower water using a pilot scale reactor
title_full Photocatalytic treatment of shower water using a pilot scale reactor
title_fullStr Photocatalytic treatment of shower water using a pilot scale reactor
title_full_unstemmed Photocatalytic treatment of shower water using a pilot scale reactor
title_short Photocatalytic treatment of shower water using a pilot scale reactor
title_sort photocatalytic treatment of shower water using a pilot scale reactor
url http://hdl.handle.net/20.500.11937/38088