At a point upstream of the throat in a conv.-div. nozzle, the velocity, pressure and temperature 242 of the air are m/s, kPa, and" ), respectively. If the throat and exit cross- sectional areas of the nozzle are ( m² and m²), respectively. Determine: (a) The max. back pressure to chock the nozzle. (b) The back pressure for the nozzle to be perfectly expanded to the design Mach number. (c) The back pressure such that there is a normal shock wave at the exit plane. (d) The range of back pressure for a subsonic non-isentropic, over expansion, and und expansion flow region.

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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Example 6
(E
At a point upstream of the throat in a conv.-div. nozzle, the velocity, pressure and temperature
242
315K
of the air are m/s, kPa, and²
respectively. If the throat and exit cross- sectional
areas of the nozzle are
Im² and m²), respectively. Determine:
(a) The max. back pressure to chock the nozzle.
(b) The back pressure for the nozzle to be perfectly expanded to the design Mach number.
(c) The back pressure such that there is a normal shock wave at the exit plane.
(d) The range of back pressure for a subsonic non-isentropic, over expansion, and under
expansion flow region.
At = 00m
Vi = 156 m/s
PI=242Kpa
Ti = 315 K
m2
Solution:
Transcribed Image Text:Example 6 (E At a point upstream of the throat in a conv.-div. nozzle, the velocity, pressure and temperature 242 315K of the air are m/s, kPa, and² respectively. If the throat and exit cross- sectional areas of the nozzle are Im² and m²), respectively. Determine: (a) The max. back pressure to chock the nozzle. (b) The back pressure for the nozzle to be perfectly expanded to the design Mach number. (c) The back pressure such that there is a normal shock wave at the exit plane. (d) The range of back pressure for a subsonic non-isentropic, over expansion, and under expansion flow region. At = 00m Vi = 156 m/s PI=242Kpa Ti = 315 K m2 Solution:
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