Advanced Control of a Biochemical Reactor for Yeast Fermentation

Control of alcoholic fermentation is intensively studied in last decades as it is used in biofuel production. Two advanced control approaches for the yeast alcoholic fermentation running in a continuous-time biochemical reactor are studied in this paper with focus on maximizing product yield and min...

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Main Authors: Monika Bakosova, Juraj Oravec, Anna Vasickaninova, Alajos Meszaros, Petra Artzova
Format: Article
Language:English
Published: AIDIC Servizi S.r.l. 2019-10-01
Series:Chemical Engineering Transactions
Online Access:https://www.cetjournal.it/index.php/cet/article/view/10580
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spelling doaj-4d1bfb275f6148989e2fcd3ce611c4b22021-02-16T20:58:13ZengAIDIC Servizi S.r.l.Chemical Engineering Transactions2283-92162019-10-017610.3303/CET1976129Advanced Control of a Biochemical Reactor for Yeast FermentationMonika BakosovaJuraj OravecAnna VasickaninovaAlajos MeszarosPetra ArtzovaControl of alcoholic fermentation is intensively studied in last decades as it is used in biofuel production. Two advanced control approaches for the yeast alcoholic fermentation running in a continuous-time biochemical reactor are studied in this paper with focus on maximizing product yield and minimizing energy consumption. The neural network predictive control uses a neural network (NN) process model in the optimizing model-based control strategy. A new approach to control of a biochemical reactor for yeast fermentation presented in the paper is a robust model-based predictive control with integral action (RMPC-IA). The RMPC-IA uses a discrete time state-space model for prediction of future outputs of the process with parametric uncertainty. The calculated control inputs are the results of an optimization strategy. The optimization problem to be solved is formulated as a convex optimization problem resolved via linear matrix inequalities. The RMPC-IA outperformed the NN predictive control of alcoholic fermentation as it improved performance indices, preserved the product yield, and ensured energy saving.https://www.cetjournal.it/index.php/cet/article/view/10580
collection DOAJ
language English
format Article
sources DOAJ
author Monika Bakosova
Juraj Oravec
Anna Vasickaninova
Alajos Meszaros
Petra Artzova
spellingShingle Monika Bakosova
Juraj Oravec
Anna Vasickaninova
Alajos Meszaros
Petra Artzova
Advanced Control of a Biochemical Reactor for Yeast Fermentation
Chemical Engineering Transactions
author_facet Monika Bakosova
Juraj Oravec
Anna Vasickaninova
Alajos Meszaros
Petra Artzova
author_sort Monika Bakosova
title Advanced Control of a Biochemical Reactor for Yeast Fermentation
title_short Advanced Control of a Biochemical Reactor for Yeast Fermentation
title_full Advanced Control of a Biochemical Reactor for Yeast Fermentation
title_fullStr Advanced Control of a Biochemical Reactor for Yeast Fermentation
title_full_unstemmed Advanced Control of a Biochemical Reactor for Yeast Fermentation
title_sort advanced control of a biochemical reactor for yeast fermentation
publisher AIDIC Servizi S.r.l.
series Chemical Engineering Transactions
issn 2283-9216
publishDate 2019-10-01
description Control of alcoholic fermentation is intensively studied in last decades as it is used in biofuel production. Two advanced control approaches for the yeast alcoholic fermentation running in a continuous-time biochemical reactor are studied in this paper with focus on maximizing product yield and minimizing energy consumption. The neural network predictive control uses a neural network (NN) process model in the optimizing model-based control strategy. A new approach to control of a biochemical reactor for yeast fermentation presented in the paper is a robust model-based predictive control with integral action (RMPC-IA). The RMPC-IA uses a discrete time state-space model for prediction of future outputs of the process with parametric uncertainty. The calculated control inputs are the results of an optimization strategy. The optimization problem to be solved is formulated as a convex optimization problem resolved via linear matrix inequalities. The RMPC-IA outperformed the NN predictive control of alcoholic fermentation as it improved performance indices, preserved the product yield, and ensured energy saving.
url https://www.cetjournal.it/index.php/cet/article/view/10580
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AT jurajoravec advancedcontrolofabiochemicalreactorforyeastfermentation
AT annavasickaninova advancedcontrolofabiochemicalreactorforyeastfermentation
AT alajosmeszaros advancedcontrolofabiochemicalreactorforyeastfermentation
AT petraartzova advancedcontrolofabiochemicalreactorforyeastfermentation
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