Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3

In developing countries, and due to the high cost of treatment of industrial wastewater, municipal wastewater treatment facilities usually receive a mixture of municipal wastewater and partially treated industrial wastewater. As a result, an increased potential for shock loads with high pollutant co...

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Main Authors: Abdelsalam Elawwad, Mohamed Zaghloul, Hisham Abdel-Halim
Format: Article
Language:English
Published: IWA Publishing 2017-03-01
Series:Journal of Water Reuse and Desalination
Subjects:
Online Access:http://jwrd.iwaponline.com/content/7/1/37
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spelling doaj-12807030242b4d00be9845a556769da72020-11-24T21:53:31ZengIWA PublishingJournal of Water Reuse and Desalination2220-13192408-93702017-03-0171374410.2166/wrd.2016.154154Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3Abdelsalam Elawwad0Mohamed Zaghloul1Hisham Abdel-Halim2 Department of Environmental Engineering, Cairo University, Giza, Egypt E-mail: elawwad@cu.edu.eg Department of Environmental Engineering, Cairo University, Giza, Egypt E-mail: elawwad@cu.edu.eg Department of Environmental Engineering, Cairo University, Giza, Egypt E-mail: elawwad@cu.edu.eg In developing countries, and due to the high cost of treatment of industrial wastewater, municipal wastewater treatment facilities usually receive a mixture of municipal wastewater and partially treated industrial wastewater. As a result, an increased potential for shock loads with high pollutant concentrations is expected. The use of mathematical modelling of wastewater treatment is highly efficient in such cases. A dynamic model based on activated sludge model no. 3 (ASM3) describing the performance of the activated sludge process at a full scale wastewater treatment plant (WWTP) receiving mixed domestic–industrial wastewater located in an arid area is presented. ASM3 was extended by adding the Arrhenius equation to respond to changes in temperature. BioWin software V.4 was used as the model platform. The model was calibrated under steady-state conditions, adjusting only three kinetic and stoichiometric parameters: maximum heterotrophic growth rate (μH = 8 d−1), heterotrophic aerobic decay rate (bH, O2 = 0.18 d−1), and aerobic heterotrophic yield (YH,O2 = 0.4 (gCOD/gCOD)). ASM3 was successful in predicting the WWTP performance, as the model was validated with 10 months of routine daily measurements. ASM3 extended with the Arrhenius equation could be helpful in the design and operation of WWTPs with mixed municipal–industrial influent in arid areas.http://jwrd.iwaponline.com/content/7/1/37biological treatmentBioWinmathematical modellingwastewater
collection DOAJ
language English
format Article
sources DOAJ
author Abdelsalam Elawwad
Mohamed Zaghloul
Hisham Abdel-Halim
spellingShingle Abdelsalam Elawwad
Mohamed Zaghloul
Hisham Abdel-Halim
Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3
Journal of Water Reuse and Desalination
biological treatment
BioWin
mathematical modelling
wastewater
author_facet Abdelsalam Elawwad
Mohamed Zaghloul
Hisham Abdel-Halim
author_sort Abdelsalam Elawwad
title Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3
title_short Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3
title_full Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3
title_fullStr Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3
title_full_unstemmed Simulation of municipal-industrial full scale WWTP in an arid climate by application of ASM3
title_sort simulation of municipal-industrial full scale wwtp in an arid climate by application of asm3
publisher IWA Publishing
series Journal of Water Reuse and Desalination
issn 2220-1319
2408-9370
publishDate 2017-03-01
description In developing countries, and due to the high cost of treatment of industrial wastewater, municipal wastewater treatment facilities usually receive a mixture of municipal wastewater and partially treated industrial wastewater. As a result, an increased potential for shock loads with high pollutant concentrations is expected. The use of mathematical modelling of wastewater treatment is highly efficient in such cases. A dynamic model based on activated sludge model no. 3 (ASM3) describing the performance of the activated sludge process at a full scale wastewater treatment plant (WWTP) receiving mixed domestic–industrial wastewater located in an arid area is presented. ASM3 was extended by adding the Arrhenius equation to respond to changes in temperature. BioWin software V.4 was used as the model platform. The model was calibrated under steady-state conditions, adjusting only three kinetic and stoichiometric parameters: maximum heterotrophic growth rate (μH = 8 d−1), heterotrophic aerobic decay rate (bH, O2 = 0.18 d−1), and aerobic heterotrophic yield (YH,O2 = 0.4 (gCOD/gCOD)). ASM3 was successful in predicting the WWTP performance, as the model was validated with 10 months of routine daily measurements. ASM3 extended with the Arrhenius equation could be helpful in the design and operation of WWTPs with mixed municipal–industrial influent in arid areas.
topic biological treatment
BioWin
mathematical modelling
wastewater
url http://jwrd.iwaponline.com/content/7/1/37
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AT mohamedzaghloul simulationofmunicipalindustrialfullscalewwtpinanaridclimatebyapplicationofasm3
AT hishamabdelhalim simulationofmunicipalindustrialfullscalewwtpinanaridclimatebyapplicationofasm3
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