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I have a stream with three components, A, B, and C. On a molar basis, the stream is half A, and the balance is equal parts B and C. The stream is fed to a reactor, where the below balanced reaction occurs: A + 2B + 4C => 2 M + 2N At the reactor conditions, the reactants and products are all gaseous, and the reactor operates at steady state. The left over reactants, and the created products, all leave the reactor in a single stream. What must the fractional conversion of the limiting reagent be in order to have a mole fraction of chemical M in the outlet stream equal to 0.10?

I have a stream with three components, A, B, and C. On a molar basis, the stream is half A, and the balance is equal parts B and C. The stream is fed to a reactor, where the below balanced reaction occurs: A + 2B + 4C => 2 M + 2N At the reactor conditions, the reactants and products are all gaseous, and the reactor operates at steady state. The left over reactants, and the created products, all leave the reactor in a single stream. What must the fractional conversion of the limiting reagent be in order to have a mole fraction of chemical M in the outlet stream equal to 0.10?

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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1. I have a stream with three components, A, B, and C. On a molar basis, the stream is half A, and the balance is equal parts B and C. The stream is fed to a reactor, where the below balanced reaction occurs: A + 2B + 4C => 2 M + 2N At the reactor conditions, the reactants and products are all gaseous, and the reactor operates at steady state. The left over reactants, and the created products, all leave the reactor in a single stream. What must the fractional conversion of the limiting reagent be in order to have a mole fraction of chemical M in the outlet stream equal to 0.10?
Transcribed Image Text:1. I have a stream with three components, A, B, and C. On a molar basis, the stream is half A, and the balance is equal parts B and C. The stream is fed to a reactor, where the below balanced reaction occurs: A + 2B + 4C => 2 M + 2N At the reactor conditions, the reactants and products are all gaseous, and the reactor operates at steady state. The left over reactants, and the created products, all leave the reactor in a single stream. What must the fractional conversion of the limiting reagent be in order to have a mole fraction of chemical M in the outlet stream equal to 0.10?
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