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A mixture of chemicals in a variable volume batch reactor (order = 3) compresses during its chemical reaction [x = 0.90 M-²min-¹]. The compression coefficient (e) is equal to 1.6. If the reaction proceeds until 70% completion, determine the capacity of the reactor for an initial concentration of 0.55 mol/L fed at a rate of 12.20 L/min. A. 185.5346 L C. 31.36823 L B. 421.7284 L D. 12.9728 L

A mixture of chemicals in a variable volume batch reactor (order = 3) compresses during its chemical reaction [x = 0.90 M-²min-¹]. The compression coefficient (e) is equal to 1.6. If the reaction proceeds until 70% completion, determine the capacity of the reactor for an initial concentration of 0.55 mol/L fed at a rate of 12.20 L/min. A. 185.5346 L C. 31.36823 L B. 421.7284 L D. 12.9728 L

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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A mixture of chemicals in a variable volume batch reactor (order = 3) compresses during its chemical reaction [K = 0.90 M-²min¬1]. The compression coefficient (ɛ) is equal to 1.6. If the reaction proceeds until 70% completion, determine the capacity of the reactor for an initial concentration of 0.55 mol/L fed at a rate of 12.20 L/min. A. 185.5346 L B. 421.7284 L C. 31.36823 L D. 12.9728 L
Transcribed Image Text:A mixture of chemicals in a variable volume batch reactor (order = 3) compresses during its chemical reaction [K = 0.90 M-²min¬1]. The compression coefficient (ɛ) is equal to 1.6. If the reaction proceeds until 70% completion, determine the capacity of the reactor for an initial concentration of 0.55 mol/L fed at a rate of 12.20 L/min. A. 185.5346 L B. 421.7284 L C. 31.36823 L D. 12.9728 L
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