Example (5): Gases expand in a propulsion nozzle from 3.5 bar and 425 C down to a back pressure of 0.97 bar, at the rate of 18 kgis. Tacking a coefficient of discharge of 0.99 and a nózzle efficiency of 0,94, calculate the required throat and exit areas of the nozzle. For the gases take y =1.333 and Cp 1.1lkJ/kg K. Assumie that the inlet velocity is negligible.
Example (5): Gases expand in a propulsion nozzle from 3.5 bar and 425 C down to a back pressure of 0.97 bar, at the rate of 18 kgis. Tacking a coefficient of discharge of 0.99 and a nózzle efficiency of 0,94, calculate the required throat and exit areas of the nozzle. For the gases take y =1.333 and Cp 1.1lkJ/kg K. Assumie that the inlet velocity is negligible.
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
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
Transcribed Image Text:Example (5): Gases expand in a propulsioan nozzle from 3.5 bar and 425"C down to a
back pressure of 0.97 bar, at the rate of 18 kg/s. Tacking a coefficient of discharge of
0.99 and a nózzle efficiency of 0.94, caleulate the required throat und exit areas of the
nozzle. For the gases take y =1333 and Cp 1.11kJ/kg K. Assume that the inlet
velocity is negligible.
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