A model for a CSTR is developed that contains two differential equations (shown below). In this model, the following variables are used: CA = concentration of A leaving reactor CA = concentration of A entering reaction Q = heat rate F; = flow rate V = volume UA = heat transfer coefficient x heat transfer area p = density Cp = heat capacity E₁ = activation energy k = pre-exponential factor Ti, T = inlet temperature and exit temperature R = ideal gas constant dCA dt dT dt = F V -(C₁₁ - C₁) - k² exp Ai = UA(T − T;) + · Q Vpcp EA) C₁ A RT For a state-space model: a) List the state variables: b) List the input variables: c) List the parameters: d) Determine the values of the A-matrix:

Introduction to Chemical Engineering Thermodynamics
8th Edition
ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Publisher:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Chapter1: Introduction
Section: Chapter Questions
Problem 1.1P
Question

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A model for a CSTR is developed that contains two differential equations (shown below). In this
model, the following variables are used:
CA = concentration of A leaving reactor
CA = concentration of A entering reaction
Q = heat rate
F; = flow rate
V = volume
UA = heat transfer coefficient x heat transfer area
p = density
Cp
=
heat capacity
E₁ = activation energy
k = pre-exponential factor
Ti, T = inlet temperature and exit temperature
R = ideal gas constant
dCA
dt
dT
dt
=
F
V
-(C₁₁ - C₁) - k² exp
Ai
= UA(T − T;) + ·
Q
Vpcp
EA) C₁
A
RT
For a state-space model:
a) List the state variables:
b) List the input variables:
c) List the parameters:
d) Determine the values of the A-matrix:
Transcribed Image Text:A model for a CSTR is developed that contains two differential equations (shown below). In this model, the following variables are used: CA = concentration of A leaving reactor CA = concentration of A entering reaction Q = heat rate F; = flow rate V = volume UA = heat transfer coefficient x heat transfer area p = density Cp = heat capacity E₁ = activation energy k = pre-exponential factor Ti, T = inlet temperature and exit temperature R = ideal gas constant dCA dt dT dt = F V -(C₁₁ - C₁) - k² exp Ai = UA(T − T;) + · Q Vpcp EA) C₁ A RT For a state-space model: a) List the state variables: b) List the input variables: c) List the parameters: d) Determine the values of the A-matrix:
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