Consider the cogenerative steam plant shown in the figure. The internal power P, is equal to 130 MW, the heat power to the thermal user is Q. =100 MW, the heat power at the condenser is Q steam generator (Q,) is. 150 MW. The heat power given to the working fluid in the !! cond

Elements Of Electromagnetics
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Author:Sadiku, Matthew N. O.
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Consider the cogenerative steam plant shown in the figure. The internal power P, is equal to 130 MW, the heat power to the
thermal user is Q =100 MW, the heat power at the condenser is Q150 MW. The heat power given to the working fluid in the
steam generator ( Q,) is.
cond
P,
НР
LP
M*
K ėcond
imo it 21 p1759 s261904
C2Lp1759 201904
H-
01759 s261904
8261904
O (A) 180 MW
V21 p1759 261904
O (B) 380 MW
O (C) 280 MW
O (D) 230 MW
61004
Transcribed Image Text:Consider the cogenerative steam plant shown in the figure. The internal power P, is equal to 130 MW, the heat power to the thermal user is Q =100 MW, the heat power at the condenser is Q150 MW. The heat power given to the working fluid in the steam generator ( Q,) is. cond P, НР LP M* K ėcond imo it 21 p1759 s261904 C2Lp1759 201904 H- 01759 s261904 8261904 O (A) 180 MW V21 p1759 261904 O (B) 380 MW O (C) 280 MW O (D) 230 MW 61004
The pressure and density at the inlet of a gas turbine stage (k'=1.39, R' = 288 J/kgK) are 6 bar and 3 kg/m, respectively. The
pressure at the outlet is 1 bar. Assuming a polytropic evolution (m'=1.35), the density at the outlet of the turbine is:
O (A) About 0.80 kg/m
3
O (B) About 0.25 kg/m
O (C) About 0.27 kg/m
3
O (D) About 0.83 kg/m
Transcribed Image Text:The pressure and density at the inlet of a gas turbine stage (k'=1.39, R' = 288 J/kgK) are 6 bar and 3 kg/m, respectively. The pressure at the outlet is 1 bar. Assuming a polytropic evolution (m'=1.35), the density at the outlet of the turbine is: O (A) About 0.80 kg/m 3 O (B) About 0.25 kg/m O (C) About 0.27 kg/m 3 O (D) About 0.83 kg/m
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