2- An inlet water solution of 100 kg/h containing 0.010 wt fraction nicotine (A) in water is stripped with a kerosene stream of 200 kg/h containing 0.0005 wt fraction nicotine in a countercurrent-stage tower. The water and kerosene are essentially immiscible in each other. It is desired to reduce the concentration of the exit water to 0.0010 wt fraction nicotine. Determine the theoretical number of stages needed. The equilibrium data are as follows, with x the weight fraction of nicotine in the water solution and y in the kerosene: X y X y 0.001010 0.000806 0.00746 0.00682 0.00246 0.001959 0.00988 0.00904 0.00500 0.00454 0.0202 0.0185
2- An inlet water solution of 100 kg/h containing 0.010 wt fraction nicotine (A) in water is stripped with a kerosene stream of 200 kg/h containing 0.0005 wt fraction nicotine in a countercurrent-stage tower. The water and kerosene are essentially immiscible in each other. It is desired to reduce the concentration of the exit water to 0.0010 wt fraction nicotine. Determine the theoretical number of stages needed. The equilibrium data are as follows, with x the weight fraction of nicotine in the water solution and y in the kerosene: X y X y 0.001010 0.000806 0.00746 0.00682 0.00246 0.001959 0.00988 0.00904 0.00500 0.00454 0.0202 0.0185
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:2- An inlet water solution of 100 kg/h containing 0.010 wt fraction nicotine (A) in water is
stripped with a kerosene stream of 200 kg/h containing 0.0005 wt fraction nicotine in a
countercurrent-stage tower. The water and kerosene are essentially immiscible in each other. It is
desired to reduce the concentration of the exit water to 0.0010 wt fraction nicotine. Determine the
theoretical number of stages needed. The equilibrium data are as follows, with x the weight
fraction of nicotine in the water solution and y in the kerosene:
X
y
X
y
0.001010
0.000806
0.00746
0.00682
0.00246
0.001959
0.00988
0.00904
0.00500
0.00454
0.0202
0.0185
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