Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility
This study deals with model adaptation of the AM2 model to an anaerobic digestion reactor of a water resource recovery facility, namely a 6000m3 reactor at VEAS WWRF, the largest of Norway. The model is based on the mass balance with six states including acidogens, methanoges, alkalinity, organic su...
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Norwegian Society of Automatic Control
2019-07-01
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Online Access: | http://www.mic-journal.no/PDF/2019/MIC-2019-3-2.pdf |
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doaj-b81ac69f32854ee59f1affb4bf10c7492020-11-25T01:44:05ZengNorwegian Society of Automatic ControlModeling, Identification and Control0332-73531890-13282019-07-0140314316010.4173/mic.2019.3.2Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facilityShadi AttarFinn HaugenThis study deals with model adaptation of the AM2 model to an anaerobic digestion reactor of a water resource recovery facility, namely a 6000m3 reactor at VEAS WWRF, the largest of Norway. The model is based on the mass balance with six states including acidogens, methanoges, alkalinity, organic substrate, volatile fatty acid and inorganic carbon. The model adaptation is applied firstly to simulated reactor data for testing the algorithms, and then to experimental data. The experimental data are collected from laboratory analysis and online measurements from January to October 2017. The data of the first 100 days are used for model identification, and the remaining data for model validation. Identification analysis is based on the Fisher Information Matrix and the Hessian matrix. Also, a sensitivity analysis of the parameter estimates is accomplished.http://www.mic-journal.no/PDF/2019/MIC-2019-3-2.pdfAnaerobic digestionFisher Information Matrixidentifiability analysismathematical model adaptationsensitivity analysissloppinesswater resource recovery facility |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Shadi Attar Finn Haugen |
spellingShingle |
Shadi Attar Finn Haugen Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility Modeling, Identification and Control Anaerobic digestion Fisher Information Matrix identifiability analysis mathematical model adaptation sensitivity analysis sloppiness water resource recovery facility |
author_facet |
Shadi Attar Finn Haugen |
author_sort |
Shadi Attar |
title |
Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility |
title_short |
Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility |
title_full |
Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility |
title_fullStr |
Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility |
title_full_unstemmed |
Dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility |
title_sort |
dynamic model adaptation to an anaerobic digestion reactor of a water resource recovery facility |
publisher |
Norwegian Society of Automatic Control |
series |
Modeling, Identification and Control |
issn |
0332-7353 1890-1328 |
publishDate |
2019-07-01 |
description |
This study deals with model adaptation of the AM2 model to an anaerobic digestion reactor of a water resource recovery facility, namely a 6000m3 reactor at VEAS WWRF, the largest of Norway. The model is based on the mass balance with six states including acidogens, methanoges, alkalinity, organic substrate, volatile fatty acid and inorganic carbon. The model adaptation is applied firstly to simulated reactor data for testing the algorithms, and then to experimental data. The experimental data are collected from laboratory analysis and online measurements from January to October 2017. The data of the first 100 days are used for model identification, and the remaining data for model validation. Identification analysis is based on the Fisher Information Matrix and the Hessian matrix. Also, a sensitivity analysis of the parameter estimates is accomplished. |
topic |
Anaerobic digestion Fisher Information Matrix identifiability analysis mathematical model adaptation sensitivity analysis sloppiness water resource recovery facility |
url |
http://www.mic-journal.no/PDF/2019/MIC-2019-3-2.pdf |
work_keys_str_mv |
AT shadiattar dynamicmodeladaptationtoananaerobicdigestionreactorofawaterresourcerecoveryfacility AT finnhaugen dynamicmodeladaptationtoananaerobicdigestionreactorofawaterresourcerecoveryfacility |
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1725030123207393280 |