A stream of CO2 at pressure 1 bar, flowing at 10 mol/s, from 150°C to 300°C is to be heated in a counter current heat exchanger. To do this task a stream of high-pressure steam available at 40 bar and 400°C is used, as shown in the following figure. The entire system is well insulated, as shown. It is undesirable for the steam to condense in the heat exchanger tubes. Assume the pressure of each stream stays constant as it flows through the heat exchange What is the minimum volumetric flow rate, in m3 /s, required of the inlet steam to keep it from condensing at the exit?

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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A stream of CO2 at pressure 1 bar, flowing at 10 mol/s, from 150°C to 300°C is to be heated in
a counter current heat exchanger. To do this task a stream of high-pressure steam available at 40
bar and 400°C is used, as shown in the following figure. The entire system is well insulated, as
shown. It is undesirable for the steam to condense in the heat exchanger tubes. Assume the
pressure of each stream stays constant as it flows through the heat exchange
What is the minimum volumetric flow rate, in m3

/s, required of the inlet steam to keep it from

condensing at the exit?

A stream of CO2 at pressure 1 bar, flowing at 10 mol/s, from 150°C to 300°C is to be heated in
a counter current heat exchanger. To do this task a stream of high-pressure steam available at 40
bar and 400°C is used, as shown in the following figure. The entire system is well insulated, as
shown. It is undesirable for the steam to condense in the heat exchanger tubes. Assume the
pressure of each stream stays constant as it flows through the heat exchange
What is the minimum volumetric flow rate, in m³/s, required of the inlet steam to keep it from
condensing at the exit?
mol
Heat Exchanger
Toui = 300 ("C]
T- 150 (°C]
co2
co,
P-1 [bar]
Steam
Steam T,= 400 ["C)
P= 40 (bar]
Insulation
Transcribed Image Text:A stream of CO2 at pressure 1 bar, flowing at 10 mol/s, from 150°C to 300°C is to be heated in a counter current heat exchanger. To do this task a stream of high-pressure steam available at 40 bar and 400°C is used, as shown in the following figure. The entire system is well insulated, as shown. It is undesirable for the steam to condense in the heat exchanger tubes. Assume the pressure of each stream stays constant as it flows through the heat exchange What is the minimum volumetric flow rate, in m³/s, required of the inlet steam to keep it from condensing at the exit? mol Heat Exchanger Toui = 300 ("C] T- 150 (°C] co2 co, P-1 [bar] Steam Steam T,= 400 ["C) P= 40 (bar] Insulation
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