Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor

As a part of the study of the computer control and optimisation of a pilot scale plant, a mathematical model is derived for the steady-state of the process in which acetone and methyl-isobutyl ketone are made from isopropanol by heterogeneous catalysis in a tubular reactor. Using the model as an ana...

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Main Authors: A. D. G. Hazlerigg BSc, PhD, A. Poll BSc, ARIC, C. J. Potter, W. Smith PhD, DIC, CEng, MIChemE
Format: Article
Language:English
Published: SAGE Publishing 1969-11-01
Series:Measurement + Control
Online Access:https://doi.org/10.1177/002029406900201103
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spelling doaj-470a52e221994d3c9e8dcf558405e65c2020-11-25T02:37:14ZengSAGE PublishingMeasurement + Control0020-29401969-11-01210.1177/002029406900201103Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne ReactorA. D. G. Hazlerigg BSc, PhD0A. Poll BSc, ARIC1C. J. Potter2W. Smith PhD, DIC, CEng, MIChemE3 Inter-University Institute of Engineering Control, School of Applied Sciences, University of Sussex Warren Spring Laboratory, Stevenage Warren Spring Laboratory, Stevenage Department of Chemical Engineering, University of NottinghamAs a part of the study of the computer control and optimisation of a pilot scale plant, a mathematical model is derived for the steady-state of the process in which acetone and methyl-isobutyl ketone are made from isopropanol by heterogeneous catalysis in a tubular reactor. Using the model as an analogue computer program, the kinetics of the two reactions involved have been evaluated from results taken from a laboratory reactor. Using these kinetics and the model written as a digital computer program, the behaviour of a pilot-scale reactor has been calculated and this is compared with measured performance. A phase-space analysis of the model is made to illustrate how this technique may be used to predict the expected control characteristics of the process.https://doi.org/10.1177/002029406900201103
collection DOAJ
language English
format Article
sources DOAJ
author A. D. G. Hazlerigg BSc, PhD
A. Poll BSc, ARIC
C. J. Potter
W. Smith PhD, DIC, CEng, MIChemE
spellingShingle A. D. G. Hazlerigg BSc, PhD
A. Poll BSc, ARIC
C. J. Potter
W. Smith PhD, DIC, CEng, MIChemE
Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor
Measurement + Control
author_facet A. D. G. Hazlerigg BSc, PhD
A. Poll BSc, ARIC
C. J. Potter
W. Smith PhD, DIC, CEng, MIChemE
author_sort A. D. G. Hazlerigg BSc, PhD
title Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor
title_short Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor
title_full Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor
title_fullStr Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor
title_full_unstemmed Derivation and Application of a Steady Stale Mathematical Model of an Isopropanol-Acetne Reactor
title_sort derivation and application of a steady stale mathematical model of an isopropanol-acetne reactor
publisher SAGE Publishing
series Measurement + Control
issn 0020-2940
publishDate 1969-11-01
description As a part of the study of the computer control and optimisation of a pilot scale plant, a mathematical model is derived for the steady-state of the process in which acetone and methyl-isobutyl ketone are made from isopropanol by heterogeneous catalysis in a tubular reactor. Using the model as an analogue computer program, the kinetics of the two reactions involved have been evaluated from results taken from a laboratory reactor. Using these kinetics and the model written as a digital computer program, the behaviour of a pilot-scale reactor has been calculated and this is compared with measured performance. A phase-space analysis of the model is made to illustrate how this technique may be used to predict the expected control characteristics of the process.
url https://doi.org/10.1177/002029406900201103
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