Write three balances and use one constraint for the performance of Still 1 to solve for the following quantities for a process feed ( i) of 300.0 mol/h. Bottoms flow rate (m₂) = i mol/h Overhead fow rate (n3) = i mol/h Benzene mole fraction in overhead (X3B) = i Toluene mole fraction in overhead (x37) = i
Write three balances and use one constraint for the performance of Still 1 to solve for the following quantities for a process feed ( i) of 300.0 mol/h. Bottoms flow rate (m₂) = i mol/h Overhead fow rate (n3) = i mol/h Benzene mole fraction in overhead (X3B) = i Toluene mole fraction in overhead (x37) = i
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
Related questions
Question
A liquid mixture containing 30.0 mole% benzene (B), 25.0% toluene (T), and the balance xylene (X) is fed to a distillation column.
The bottoms product contains 98.0 mole% X and no B, and 81.0% of the X in the feed is recovered in this stream.
The overhead product is fed to a second column. The overhead product from the second column contains 95.5% of the B in the feed to this column. The composition of this stream is 94.0 mole% B and the balance T.
Show all the details in flow diagram and label all the stream. Show your solution and write readable. Thank you.

Transcribed Image Text:A.)
Write three balances and use one constraint for the performance
of Still 1 to solve for the following quantities for a process feed (
n) of 300.0 mol/h.
Bottoms flow rate (n₂) = i
mol/h
Overhead fow rate (n3) = i
mol/h
Benzene mole fraction in overhead (X3B):
i
Toluene mole fraction in overhead (x37) = i
B.)
Write three balances and use one constraint for the performance of Still 2
to solve for the following quantities for a process feed (₁) of 300.0 mol/h.
Overhead from second still (n) = i
mol/h
Bottoms from second still (4) =
mol/h
Benzene mole fraction in bottoms from second still (X4B) =
i
Toluene mole fraction in bottoms from second still (47) = i

Transcribed Image Text:C.)
Calculate the percentage of B in the process feed that is
recovered in the overhead of the second distialltion column.
i
Calculate the percentatge of T in the process feed that is
recovered in the bottoms of the second distillation column.
i
%
%
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