Saturated steam at 1 atm is discharged from a turbine at a rate of 1150 kg/h. Superheated steam at 300°C and 1 atm is needed as a feed to a heat exchanger; to produce it, the turbine discharge stream is mixed with superheated steam available from a second source at 400°C and 1 atm. The mixing unit operates adiabatically. Calculate the amount of superheated steam at 300°C produced and the required volumetric flow rate of the 400°C steam. Specific enthalpies of the two feed streams and the product stream are obtained from the steam tables and are shown below on the flowchart. Turbine discharge 1150 kg H20(v)//h 1 atm, saturated (100°C) H= 2676 kJkg MIXER m2 [kg H20(v/h] 300°C, 1 atm A = 3074 kJ/kg ṁy [kg H20(v)/h] 400°C, 1 atm A = 3278 kJ/kg
Saturated steam at 1 atm is discharged from a turbine at a rate of 1150 kg/h. Superheated steam at 300°C and 1 atm is needed as a feed to a heat exchanger; to produce it, the turbine discharge stream is mixed with superheated steam available from a second source at 400°C and 1 atm. The mixing unit operates adiabatically. Calculate the amount of superheated steam at 300°C produced and the required volumetric flow rate of the 400°C steam. Specific enthalpies of the two feed streams and the product stream are obtained from the steam tables and are shown below on the flowchart. Turbine discharge 1150 kg H20(v)//h 1 atm, saturated (100°C) H= 2676 kJkg MIXER m2 [kg H20(v/h] 300°C, 1 atm A = 3074 kJ/kg ṁy [kg H20(v)/h] 400°C, 1 atm A = 3278 kJ/kg
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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Question
![Q2)
Saturated steam at 1 atm is discharged from a turbine at a rate of 1150 kg/h. Superheated steam at
300°C and 1 atm is needed as a feed to a heat exchanger; to produce it, the turbine discharge stream
is mixed with superheated steam available from a second source at 400°C and 1 atm. The mixing
unit operates adiabatically. Calculate the amount of superheated steam at 300°C produced and the
required volumetric flow rate of the 400°C steam.
Specific enthalpies of the two feed streams and the product stream are obtained from the steam
tables and are shown below on the flowchart.
Turbine discharge
1150 kg H20(v)//h
1 atm, saturated (100°C)
H= 2676 kJ/kg
MIXER
mg Ikg H20(v/h]
300°C, 1 atm
A = 3074 kJ/kg
ṁ, [kg H20(v)/h]
400°C, 1 atm
Ĥ = 3278 kJ/kg](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ffadbcb41-efad-4e39-a112-3812ff2d5573%2F54a90ddc-4bf0-405e-9bf3-28270c7353fa%2Fullnry_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Q2)
Saturated steam at 1 atm is discharged from a turbine at a rate of 1150 kg/h. Superheated steam at
300°C and 1 atm is needed as a feed to a heat exchanger; to produce it, the turbine discharge stream
is mixed with superheated steam available from a second source at 400°C and 1 atm. The mixing
unit operates adiabatically. Calculate the amount of superheated steam at 300°C produced and the
required volumetric flow rate of the 400°C steam.
Specific enthalpies of the two feed streams and the product stream are obtained from the steam
tables and are shown below on the flowchart.
Turbine discharge
1150 kg H20(v)//h
1 atm, saturated (100°C)
H= 2676 kJ/kg
MIXER
mg Ikg H20(v/h]
300°C, 1 atm
A = 3074 kJ/kg
ṁ, [kg H20(v)/h]
400°C, 1 atm
Ĥ = 3278 kJ/kg
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