It is being considered that the following gas-phase reaction be carried out in a CSTR: A + 2B → 4C The reactor will be operated isobarically and isothermally. The rate law for the reaction is given as: (-r^)=k · CA•CB where, k = 8 L/mol-min at the operating temperature. %3D The total feed volumetric flow rate to the reactor at operating temperature and pressure is 10 L/min. The feed consists of A, B and an inert (I). The feed molar flow rates are FA0=FB0= 1 mol/s and F10=2 mol/s. Calculate the volume of reactor required to achieve 80% conversion
It is being considered that the following gas-phase reaction be carried out in a CSTR: A + 2B → 4C The reactor will be operated isobarically and isothermally. The rate law for the reaction is given as: (-r^)=k · CA•CB where, k = 8 L/mol-min at the operating temperature. %3D The total feed volumetric flow rate to the reactor at operating temperature and pressure is 10 L/min. The feed consists of A, B and an inert (I). The feed molar flow rates are FA0=FB0= 1 mol/s and F10=2 mol/s. Calculate the volume of reactor required to achieve 80% conversion
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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Transcribed Image Text:It is being considered that the following gas-phase reaction be carried
out in a ČSTR: A+ 2B → 4C
The reactor will be operated isobarically and isothermally. The rate
law for the reaction is given as: (-r^)=k · CA-CB
where, k = 8 L/mol-min at the operating temperature.
The total feed volumetric flow rate to the reactor at operating
temperature and pressure is 10 L/min. The feed consists of A, B and
an inert (I). The feed molar flow rates are FA0= FRO= 1 mol/s and
F10=2 mol/s.
B0
IO
Calculate the volume of reactor required to achieve 80% conversion
of the limiting reactant.
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