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In a steady-state flow process carried out at atmospheric pressure, 1 mol/s o air at 600K is continuously mixed with 2 mol/s of air at 450 K. The product stream is at 400 K and 1 atm. A schematic representation of the process is shown below. Determine the rate of heat transfer and the rate of entropy generation for the process. Assume the ideal -gas state for air with Cp(id)= (7/2)R, that the surroundings are at 300 K, and that kinetic - and potential- energy changes are negligible. À-3 mol s¹ T = 400 K

In a steady-state flow process carried out at atmospheric pressure, 1 mol/s o air at 600K is continuously mixed with 2 mol/s of air at 450 K. The product stream is at 400 K and 1 atm. A schematic representation of the process is shown below. Determine the rate of heat transfer and the rate of entropy generation for the process. Assume the ideal -gas state for air with Cp(id)= (7/2)R, that the surroundings are at 300 K, and that kinetic - and potential- energy changes are negligible. À-3 mol s¹ T = 400 K

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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In a steady-state flow process carried out at atmospheric pressure, 1 mol/s o air at 600K is continuously mixed with 2 mol/s of air at 450 K. The product stream is at 400 K and 1 atm. A schematic representation of the process is shown below. Determine the rate of heat transfer and the rate of entropy generation for the process. Assume the ideal -gas state for air with Cp(id) = (7/2)R, that the surroundings are at 300 K, and that kinetic - and potential- energy changes are negligible. H A = 1 mol s1 T₁= 600 K O À-3 mol s¹ T = 400 K Control Volume ė n ng = 2 mol s1 TB = 450 K O
Transcribed Image Text:In a steady-state flow process carried out at atmospheric pressure, 1 mol/s o air at 600K is continuously mixed with 2 mol/s of air at 450 K. The product stream is at 400 K and 1 atm. A schematic representation of the process is shown below. Determine the rate of heat transfer and the rate of entropy generation for the process. Assume the ideal -gas state for air with Cp(id) = (7/2)R, that the surroundings are at 300 K, and that kinetic - and potential- energy changes are negligible. H A = 1 mol s1 T₁= 600 K O À-3 mol s¹ T = 400 K Control Volume ė n ng = 2 mol s1 TB = 450 K O
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