calculate the Ergun parameter, ?. using the following parameters, you will need to do some unit conversion, i think i did it correctly i have added the eqautions that need to be used,
calculate the Ergun parameter, ?. using the following parameters, you will need to do some unit conversion, i think i did it correctly i have added the eqautions that need to be used,
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
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Question
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calculate the Ergun parameter, ?. using the following parameters,
you will need to do some unit conversion, i think i did it correctly i have added the eqautions that need to be used,
![α -
m = 104.4 lbm/hour
Air
Operating conditions:
Feed (air):
Catalyst properties:
Reactor dimensions:
a =
T = 260 °C (isothermal)
Mo = 0.0673 lbm/ (ft * hr)
Pcat = 72 lbm/ft³
p = 0.36
1.5 inch SCH 40 pipe
(13) *
2* G
*
(1¹17) & b
Po*Po*9c*Dp*Pcat* Ac
Ac
2*G
Po Po 9c*Dp*Pcat* Ac
G = p*um * Ac
P₁ = 21162.266
lbf
ft²
& gc
=
Catalyst particles
150*(1-0)*μ
Dp
104.4 lbm
hr
Dpart
=
= 4.17 x 108.
=
+ 1.75* Gor
150*(1-φ)*μ
Dp
1
0.01414 ft²
lbm*ft
lbf*hr2
P = 10 atm
Po = 0.413 lbm/ft³
Dpart = 0.64inches
Ac = 0.01414 ft²
0.64 | 1 ft
0.641/7
12 in
=
+1.75 G → a= a*b
G]
= 7383.310
0.053 ft
lbm
ft² * hr](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fd47fc2c3-8f4b-4085-b234-bc909be774e3%2F6fad1964-b9dc-4518-a180-75d586583f57%2Ffeyzeae_processed.png&w=3840&q=75)
Transcribed Image Text:α -
m = 104.4 lbm/hour
Air
Operating conditions:
Feed (air):
Catalyst properties:
Reactor dimensions:
a =
T = 260 °C (isothermal)
Mo = 0.0673 lbm/ (ft * hr)
Pcat = 72 lbm/ft³
p = 0.36
1.5 inch SCH 40 pipe
(13) *
2* G
*
(1¹17) & b
Po*Po*9c*Dp*Pcat* Ac
Ac
2*G
Po Po 9c*Dp*Pcat* Ac
G = p*um * Ac
P₁ = 21162.266
lbf
ft²
& gc
=
Catalyst particles
150*(1-0)*μ
Dp
104.4 lbm
hr
Dpart
=
= 4.17 x 108.
=
+ 1.75* Gor
150*(1-φ)*μ
Dp
1
0.01414 ft²
lbm*ft
lbf*hr2
P = 10 atm
Po = 0.413 lbm/ft³
Dpart = 0.64inches
Ac = 0.01414 ft²
0.64 | 1 ft
0.641/7
12 in
=
+1.75 G → a= a*b
G]
= 7383.310
0.053 ft
lbm
ft² * hr
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