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Example 9.5-3: The dehydrogenation of ethanol to form acetaldehyde is carried out in a continuous adiabatic reactor. Ethanol vapor is fed to the reactor at 400 °C, and a conversion of 30% is obtained. Calculate the product Temperature. CPs.sto 48 có xlo 7 +2.38 x 10" T Solution FO 05 x 10 872 C₂H5OH(v) -> > CH3CHO(v) + H₂(g) 100 mol C₂H5OH(v) 400°C C2H5OH, CHỈ CHO C REACTOR H₂ (a 70 mol C₂H5OH(v) 30 mol CH3CHO(v) 30 mol H₂(g) Tad (°C)

Example 9.5-3: The dehydrogenation of ethanol to form acetaldehyde is carried out in a continuous adiabatic reactor. Ethanol vapor is fed to the reactor at 400 °C, and a conversion of 30% is obtained. Calculate the product Temperature. CPs.sto 48 có xlo 7 +2.38 x 10" T Solution FO 05 x 10 872 C₂H5OH(v) -> > CH3CHO(v) + H₂(g) 100 mol C₂H5OH(v) 400°C C2H5OH, CHỈ CHO C REACTOR H₂ (a 70 mol C₂H5OH(v) 30 mol CH3CHO(v) 30 mol H₂(g) Tad (°C)

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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Ref Example 9.5-3: The dehydrogenation of ethanol to form acetaldehyde is carried out in a continuous adiabatic reactor. Ethanol vapor is fed to the reactor at 400 °C, and a conversion of 30% is obtained. Calculate the product Temperature. CpSisto 48 có xio 7 +2.38 X10 T 05 x 10-872 C₂H5OH(v)→ CH3CHO(v) + H₂(g) Solution REACTOR 100 mol C₂H5OH(v) 400°C C₂H50H (V), CH³ CHO (V), H₂ a 70 mol C₂H5OH(v) 30 mol CH3CHO(v) 30 mol H₂(g) Tad (°C)
Transcribed Image Text:Ref Example 9.5-3: The dehydrogenation of ethanol to form acetaldehyde is carried out in a continuous adiabatic reactor. Ethanol vapor is fed to the reactor at 400 °C, and a conversion of 30% is obtained. Calculate the product Temperature. CpSisto 48 có xio 7 +2.38 X10 T 05 x 10-872 C₂H5OH(v)→ CH3CHO(v) + H₂(g) Solution REACTOR 100 mol C₂H5OH(v) 400°C C₂H50H (V), CH³ CHO (V), H₂ a 70 mol C₂H5OH(v) 30 mol CH3CHO(v) 30 mol H₂(g) Tad (°C)
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