Question: An Actual Steam Power Plant Operates On A Conventional Rankine Cycle... An actual steam power plant operates on a conventional Rankine cycle with the following data: Pump inlet and exit pressures are 9kPa and 16.2 MPa, respectively; Pump inlet and exit temperatures are 38°C and 35 °C ; isentropic pump efficiency is 0.86. Note that this is an actual plant and thus, temperature may drop due to heat loss in the piping between the pump and the boiler. • Boiler inlet pressure and temperature are 16 MPa, and 36°C, respectively; Boiler exit pressure and temperature are 15.2 MPa and 630°C, respectively. • Turbine inlet pressure and temperature are 15 MPa and 605 °C, respectively; Turbine exit pressure is 11 kPa; Isentropic Turbine efficiency is 0.9. a. Draw the plant schematic diagram showing the components and mark the temperature and pressure values at different points along the path. b. Draw the Rankine Cycle on T-S diagram c. Calculate the thermal efficiency of the cycle d. Calculate the plant net power output for a mass flow rate of 20 kg/s e. For the Steam power plant described in Problem 1, list all possible techniques that can be implemented to increase the thermal efficiency of the plant. Briefly

Elements Of Electromagnetics
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Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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Question: An Actual Steam
Power Plant Operates On A
Conventional Rankine Cycle...
An actual steam power plant operates on a
conventional Rankine cycle with the following
data:
Pump inlet and exit pressures are 9kPa and
16.2 MPa, respectively; Pump inlet and exit
temperatures are 38°C and 35 °C ;
isentropic pump efficiency is 0.86. Note
that this is an actual plant and thus,
temperature may drop due to heat loss in
the piping between the pump and the
boiler.
Boiler inlet pressure and temperature are
16 MPa, and 36°C, respectively; Boiler exit
pressure and temperature are 15.2 MPa
and 630°C, respectively.
• Turbine inlet pressure and temperature are
15 MPa and 605 °C, respectively; Turbine
exit pressure is 11 kPa; Isentropic Turbine
efficiency is 0.9.
a. Draw the plant schematic diagram showing
the components and mark the temperature
and pressure values at different points
along the path.
b. Draw the Rankine Cycle on T-S diagram
c. Calculate the thermal efficiency of the cycle
d. Calculate the plant net power output for a
mass flow rate of 20 kg/s
e. For the Steam power plant described in
Problem 1, list all possible techniques that
can be implemented to increase the
thermal efficiency of the plant. Briefly
provide explanation of each technique and
the typical range of improvements (if
possible) in % that each technique can
achieve.
Transcribed Image Text:Question: An Actual Steam Power Plant Operates On A Conventional Rankine Cycle... An actual steam power plant operates on a conventional Rankine cycle with the following data: Pump inlet and exit pressures are 9kPa and 16.2 MPa, respectively; Pump inlet and exit temperatures are 38°C and 35 °C ; isentropic pump efficiency is 0.86. Note that this is an actual plant and thus, temperature may drop due to heat loss in the piping between the pump and the boiler. Boiler inlet pressure and temperature are 16 MPa, and 36°C, respectively; Boiler exit pressure and temperature are 15.2 MPa and 630°C, respectively. • Turbine inlet pressure and temperature are 15 MPa and 605 °C, respectively; Turbine exit pressure is 11 kPa; Isentropic Turbine efficiency is 0.9. a. Draw the plant schematic diagram showing the components and mark the temperature and pressure values at different points along the path. b. Draw the Rankine Cycle on T-S diagram c. Calculate the thermal efficiency of the cycle d. Calculate the plant net power output for a mass flow rate of 20 kg/s e. For the Steam power plant described in Problem 1, list all possible techniques that can be implemented to increase the thermal efficiency of the plant. Briefly provide explanation of each technique and the typical range of improvements (if possible) in % that each technique can achieve.
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