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a. For an SO2 flow rate of 100 lbmol/hr, determine the volume of the CSTR required to achieve the specified 70% conversion. The rate of reaction is described by Preaction,butadiene krCbutadieneCSO2 where k, = 4.44ft° /lbmol hr. b. Would the addition of an inert (non-reacting) liquid to the butadiene feed increase the required reactor size, or decrease it? Why?

a. For an SO2 flow rate of 100 lbmol/hr, determine the volume of the CSTR required to achieve the specified 70% conversion. The rate of reaction is described by Preaction,butadiene krCbutadieneCSO2 where k, = 4.44ft° /lbmol hr. b. Would the addition of an inert (non-reacting) liquid to the butadiene feed increase the required reactor size, or decrease it? Why?

Introduction to Chemical Engineering Thermodynamics
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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Butadiene sulfone (MW=118) can be produced by the fol- lowing irreversible liquid-phase reaction at 190° F and 160 psia: 7. Butadiene + SO2 Butadiene Sufone Pure SO2 is fed to the reactor in one stream. Pure butadiene (MW=54) is fed separately into the reactor at a molar flow rate that is 25% more than that required to react with all of the SO2, and 70% of the entering butadiene is converted into product. The density of the stream leaving the reactor is 42.2 lbm/ft³. a. For an SO2 flow rate of 100 lbmol/hr, determine the volume of the CSTR required to achieve the specified 70% conversion. The rate of reaction is described by Ireaction,butadiene krCbutadieneCSO2 where k, = 4.44 ft° /lbmol hr. b. Would the addition of an inert (non-reacting) liquid to the butadiene feed increase the required reactor size, or decrease it? Why?
Transcribed Image Text:Butadiene sulfone (MW=118) can be produced by the fol- lowing irreversible liquid-phase reaction at 190° F and 160 psia: 7. Butadiene + SO2 Butadiene Sufone Pure SO2 is fed to the reactor in one stream. Pure butadiene (MW=54) is fed separately into the reactor at a molar flow rate that is 25% more than that required to react with all of the SO2, and 70% of the entering butadiene is converted into product. The density of the stream leaving the reactor is 42.2 lbm/ft³. a. For an SO2 flow rate of 100 lbmol/hr, determine the volume of the CSTR required to achieve the specified 70% conversion. The rate of reaction is described by Ireaction,butadiene krCbutadieneCSO2 where k, = 4.44 ft° /lbmol hr. b. Would the addition of an inert (non-reacting) liquid to the butadiene feed increase the required reactor size, or decrease it? Why?
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