A nuclear reactor power plant utilizing water as the working fluid is shown schematically below. The high-temperature compressed liquid from the reactor is throttled into the flash evaporator. That fraction of the water that flashes into vapour flows to the turbine, while that which remains liquid flows to the mixing chamber. Determine the exergy of the water (with respect to the surroundings) leaving the reactor. Use an ambient temperature of To = 290K and ambient pressure of po = 0.1MPa.
A nuclear reactor power plant utilizing water as the working fluid is shown schematically below. The high-temperature compressed liquid from the reactor is throttled into the flash evaporator. That fraction of the water that flashes into vapour flows to the turbine, while that which remains liquid flows to the mixing chamber. Determine the exergy of the water (with respect to the surroundings) leaving the reactor. Use an ambient temperature of To = 290K and ambient pressure of po = 0.1MPa.
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
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ANS IS: 296.7kJ/kg
![A nuclear reactor power plant utilizing water as the working fluid is shown schematically
below. The high-temperature compressed liquid from the reactor is throttled into the flash
evaporator. That fraction of the water that flashes into vapour flows to the turbine, while that
which remains liquid flows to the mixing chamber. Determine the exergy of the water (with
respect to the surroundings) leaving the reactor.
Use an ambient temperature of To = 290K and ambient pressure of po = 0.1MPa.
Reactor
p-10 MP
p-10 MPa
T-530 K
WWW
Pump
2
2
Liquid and
vapor in
equilibrium
at 2 MP
10
0.1
Valve
Mixing
chamber
state
Saturated vapor at 2 MPa
Saturated liquid
at 2 MP
Figure 2: Nuclear power generation plan.
sat. vapor
p-2 MPa
p-7 kPa
Table 3: Thermodynamic data for water from the NIST chemistry webbook.
T
P
V
U
H
S
(K) (MPa)
(m³ kg-¹) (kJ kg ¹) (kJ kg ¹) (kJ kg-¹K-¹)
2.4468
6.3390
2.8421
0.25125
0.55903
8.2745
0.55903
1.9918
2.2737
Condenser
p-7 kPa
485.53
sat. liquid
485.53
sat. vapor
0.0011767 906.14 908.50
0.099585 2599.1 2798.3
liquid 0.0012574 1106.3 1118.9
530.00
290.00
liquid 0.0010012 70.722 70.822
312.15 0.007 sat. liquid 0.0010075
163.34
163.35
20.524
2428.0
2571.7
312.15 0.007
312.21
2
liquid 0.0010066
163.34
165.36
438.26
2
liquid 0.0011072 696.23
698.45
467.26
2 liquid 0.0011469 823.78
826.08
Pump](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fde55ad6b-27eb-44c5-bca1-afdb32f2dfc7%2F869a092c-0b4f-456f-8f60-caac228f3517%2Fezjgpev_processed.png&w=3840&q=75)
Transcribed Image Text:A nuclear reactor power plant utilizing water as the working fluid is shown schematically
below. The high-temperature compressed liquid from the reactor is throttled into the flash
evaporator. That fraction of the water that flashes into vapour flows to the turbine, while that
which remains liquid flows to the mixing chamber. Determine the exergy of the water (with
respect to the surroundings) leaving the reactor.
Use an ambient temperature of To = 290K and ambient pressure of po = 0.1MPa.
Reactor
p-10 MP
p-10 MPa
T-530 K
WWW
Pump
2
2
Liquid and
vapor in
equilibrium
at 2 MP
10
0.1
Valve
Mixing
chamber
state
Saturated vapor at 2 MPa
Saturated liquid
at 2 MP
Figure 2: Nuclear power generation plan.
sat. vapor
p-2 MPa
p-7 kPa
Table 3: Thermodynamic data for water from the NIST chemistry webbook.
T
P
V
U
H
S
(K) (MPa)
(m³ kg-¹) (kJ kg ¹) (kJ kg ¹) (kJ kg-¹K-¹)
2.4468
6.3390
2.8421
0.25125
0.55903
8.2745
0.55903
1.9918
2.2737
Condenser
p-7 kPa
485.53
sat. liquid
485.53
sat. vapor
0.0011767 906.14 908.50
0.099585 2599.1 2798.3
liquid 0.0012574 1106.3 1118.9
530.00
290.00
liquid 0.0010012 70.722 70.822
312.15 0.007 sat. liquid 0.0010075
163.34
163.35
20.524
2428.0
2571.7
312.15 0.007
312.21
2
liquid 0.0010066
163.34
165.36
438.26
2
liquid 0.0011072 696.23
698.45
467.26
2 liquid 0.0011469 823.78
826.08
Pump
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