Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate

A dynamic model of batch enzymatic reactive distillation was developed based on equilibrium stage approach. Phenomena within the evaporator, column, and condenser were modeled for nonsteady state operation of the process. A detailed approach to reaction kinetics, including equilibrium limitations, o...

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Published in:Industrial & Engineering Chemistry Research
Main Authors: Blatkiewicz, Michał, Mißfeldt, Fynn, Smirnova, Irina
Format: Article in Journal/Newspaper
Language:English
Published: 2019
Subjects:
Online Access:http://hdl.handle.net/11420/4267
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spelling fttuhamburg:oai:tore.tuhh.de:11420/4267 2023-08-20T04:01:11+02:00 Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate Blatkiewicz, Michał Mißfeldt, Fynn Smirnova, Irina 2019 http://hdl.handle.net/11420/4267 en eng Industrial & engineering chemistry research 0888-5885 Industrial and Engineering Chemistry Research 58 (51): 22820-22834 (2019) http://hdl.handle.net/11420/4267 2-s2.0-85076792579 Journal Article Other 2019 fttuhamburg 2023-07-28T09:23:33Z A dynamic model of batch enzymatic reactive distillation was developed based on equilibrium stage approach. Phenomena within the evaporator, column, and condenser were modeled for nonsteady state operation of the process. A detailed approach to reaction kinetics, including equilibrium limitations, overtime deactivation of the catalyst in different temperatures, diffusional limitations in catalytically active xerogel coating, and temperature influence on the catalyst, was undertaken for ethyl butyrate transesterification with R-2-pentanol with the use of Candida antarctica lipase B as the catalyst. The model was validated with experimental data and served as a simulation tool for sensitivity analysis. Article in Journal/Newspaper Antarc* Antarctica TUHH Open Research (TORE - Technische Universität Hamburg) Industrial & Engineering Chemistry Research 58 51 22820 22834
institution Open Polar
collection TUHH Open Research (TORE - Technische Universität Hamburg)
op_collection_id fttuhamburg
language English
description A dynamic model of batch enzymatic reactive distillation was developed based on equilibrium stage approach. Phenomena within the evaporator, column, and condenser were modeled for nonsteady state operation of the process. A detailed approach to reaction kinetics, including equilibrium limitations, overtime deactivation of the catalyst in different temperatures, diffusional limitations in catalytically active xerogel coating, and temperature influence on the catalyst, was undertaken for ethyl butyrate transesterification with R-2-pentanol with the use of Candida antarctica lipase B as the catalyst. The model was validated with experimental data and served as a simulation tool for sensitivity analysis.
format Article in Journal/Newspaper
author Blatkiewicz, Michał
Mißfeldt, Fynn
Smirnova, Irina
spellingShingle Blatkiewicz, Michał
Mißfeldt, Fynn
Smirnova, Irina
Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate
author_facet Blatkiewicz, Michał
Mißfeldt, Fynn
Smirnova, Irina
author_sort Blatkiewicz, Michał
title Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate
title_short Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate
title_full Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate
title_fullStr Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate
title_full_unstemmed Dynamic Model of Batch Enzymatic Reactive Distillation for the Production of R-2-Pentyl Butyrate
title_sort dynamic model of batch enzymatic reactive distillation for the production of r-2-pentyl butyrate
publishDate 2019
url http://hdl.handle.net/11420/4267
genre Antarc*
Antarctica
genre_facet Antarc*
Antarctica
op_relation Industrial & engineering chemistry research
0888-5885
Industrial and Engineering Chemistry Research 58 (51): 22820-22834 (2019)
http://hdl.handle.net/11420/4267
2-s2.0-85076792579
container_title Industrial & Engineering Chemistry Research
container_volume 58
container_issue 51
container_start_page 22820
op_container_end_page 22834
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