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Plant Name & Units Date Application Received by NRC Date License Issued by NRC
Calvert Cliffs 1 & 2 April 1998 March 2000
Oconee 1, 2 & 3 July 1998 May 2000
Arkansas Nuclear One 1 February 2000 June 2001
Edwin I. Hatch 1 & 2 March 2000 January 2002
Turkey Point 3 & 4 September 2000 June 2002
Surry 1 & 2 May 2001 March 2003
North Anna 1& 2 May 2001 March 2003
McGuire 1 & 2 June 2001 December 2003
Catawba 1 & 2 June 2001 December 2003
Peach Bottom 2 & 3 July 2001 May 2003
St. Lucie 1 & 2 November 2001 October 2003
Fort Calhoun January 2002 November 2003
Robinson 2 June 2002 April 2004
Ginna August 2002 May 2004
Summer August 2002 April 2004
Dresden 2 & 3 Jaunary 2003 Under Review
Quad Cities 1 & 2 Jaunary 2003 Under Review
Farley 1 & 2 September 2003 Under Review
Arkansas Nuclear One 2 October 2003 Under Review
Cook 1 & 2 November 2003 Under Review
Browns Ferry 1, 2 & 3 January 2004 Under Review
Millstone 2 & 3 January 2004 Under Review
Point Beach 1 & 2 February 2004 Under Review
HTR.114
SPE
SJAE
SSR
2,3,4
HP TURBINE
MSEP
111
MSEP
112
MSEP
111 DT
MSEP
112
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG RHTR
111 DT
To Htrs.
115-135
To LP Cond.
1STG
RHTR
111
2STG
RHTR
112
2STG RHTR
112 DT
To Htrs.
115-135
To LP Cond.
MSEP
122
MSEP
121
MSEP
121 DT
MSEP
122
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG
RHTR
121
2STG
RHTR
122
2STG RHTR
122 DT
To Htrs.
115-135
To LP Cond.
1STG RHTR
121 DT
To Htrs.
115-135
To LP Cond.
To LPT
CRV 456
To LPT
CRV 123
REACTOR
HTR.115
HTR. 125
HTR.135
FP
11
FP
12
FP
13
HTR.124
HTR.134
HTR.113
HTR.123
HTR.133
HTR.112
HTR.122
HTR.132
HTR.111
HTR.121
HTR.131
DC 11
DC 12
DC 13
BP
11
BP
12
BP
13
To
Htr. 124
To
Htr. 134
To
Htr. 114
From
Htr. 115
From
Htr. 125
From
Htr. 135
To HP
Cond.
To HP
Cond.
To HP
Cond.
To CRD
Inj. To MS
Drn. Tks.
CRD Flow
To Htrs.
111-131
To LP
Cond.
COND.
DEMIN.
To Htr.
134
To Htr.
133
To Htr.
132To Htr.
131
LP
CONDENSER
To Htr.
124
To Htr.
123
To Htr.
122
To Htr.
121
IP
CONDENSER
To Htr.
114
To Htr.
113
To Htr.
112
To Htr.
111
HP
CONDENSER
Spray
Pump
LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION
3 3
7
7 7
7
8
9
1111
1313
8 9
11
11
1313
8 9
1111
1313
CRV 1 CRV 6CRV 2 CRV 5
CRV 3 CRV 4
CP
11
CP
12
CP
13
2
1
TO SJAE TO SSR MS BYPASS
3 4
A
A
B B
A A
B B
A
A
B B
Circ.
Water
In
Circ.
Water
Out
1Stg Rhtr.
Drns.
From HP
Stg. 7
From HP
Stg. 7
From HP
Stg. 7
Moist.
Sep. Drns.
From
LP Stg. 8
Moist. Sep.
Drns.
From
LP Stg. 8
Moist.
Sep. Drns.
1
1
1
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
SPE, SJAE Drns.
To LP Cond.
From SSR
Moist. Sep. Drn. Tks. Cond. Dump
1Stg., 2Stg. Drn. Tks. Cond. Dump
MS Bypass
MS Bypass
Htr. Drns.
MS Bypass
Makeup
To
Htrs. 115-135
Motor-Driven
Feed Pump
Motor-Driven
Feed Pump
Shaft-Driven
Feed Pump
Booster Pump
Booster Pump
Booster Pump
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
From
LP Stg. A
From
LP Stg. 8
From
LP Stg. A
From
LP Stg. A
Condensate Pump
No. Plant Type % Uprate Mwt Year Approved
1 Beaver Valley 1 PWR 1.4 37 2001
2 Beaver Valley 2 PWR 1.4 37 2001
3 Comanche Peak 1 PWR 1.4 47 2001
4 Comanche Peak 2 PWR 1 34 1999
5 Comanche Peak 2 PWR 0.4 13 2001
6 D.C.Cook 1 PWR 1.66 54 2002
7 D.C.Cook 2 PWR 1.66 57 2003
8 Fort Calhoun PWR 1.6 24 2004
9 Grand Gulf BWR 1.7 65 2002
10 H. B. Robinson PWR 1.7 39 2002
11 Hatch 1 BWR 1.5 41 2003
12 Hatch 2 BWR 1.5 41 2003
13 Hope Creek BWR 1.4 46 2001
14 Indian Point 2 PWR 1.4 43 2003
15 Indian Point 3 PWR 1.4 42.4 2002
16 Kewaunee PWR 1.4 23 2003
17 Palisades PWR 1.4 35 2005 (Expected)
18 Peach Bottom 2 BWR 1.62 56 2002
19 Peach Bottom 3 BWR 1.62 56 2002
20 Pilgrim BWR 1.5 30 2003
21 Point Beach 1 PWR 1.4 21.5 2002
22 Point Beach 2 PWR 1.4 21.5 2002
23 River Bend BWR 1.7 52 2003
24 Salem 1 PWR 1.4 48 2001
25 Salem 2 PWR 1.4 48 2001
26 San Onofre 2 PWR 1.4 48 2001
27 San Onofre 3 PWR 1.4 48 2001
28 Sequoyah 1 PWR 1.3 44 2002
29 Sequoyah 2 PWR 1.3 44 2002
30 South Texas 1 PWR 1.4 53 2002
31 South Texas 2 PWR 1.4 53 2002
32 Susquehanna 1 BWR 1.4 48 2001
33 Susquehanna 2 BWR 1.4 48 2001
34 Waterford 3 PWR 1.5 51 2002
35 Watts Bar PWR 1.4 48 2001
2,774,643 W 6,919,659 W 2,774,643 W 924,881 W 924,881 W 924,881 W 924,881 W 924,881 W 924,881 W
154.60 P 970.00 P 4,077 W 154.60 P 1280.78 H 1280.78 H 1280.78 H 1280.78 H 1280.78 H 1280.78 H
7,308,865 W 513.10 F 1190.37 H 1190.37 H 513.10 F PIV = 151.88 PIV = 151.88 PIV = 151.88 PIV = 151.88 PIV = 151.88 PIV = 151.88
1051.00 P 1280.78 H 0.56% 1280.78 H
1190.37 H 192,103 W 192,103 W 5,000 W 0 W 0 W 1,456 W 192,103 W 192,103 W
0.100% 892.38 P 961.66 P 1190.37 H 961.66 P 892.38 P
530.95 F 157.57 P 157.57 P 530.95 F
525.46 h 429.31 F 429.31 F 525.46 h
1234.75 H 1,584,069 W 1234.75 H
1084.03 H
174,191 W 174,191 W 174,191 W 174,191 W
192,103 W 431.18 P 435.77 P 435.77 P 431.18 P 192,103 W
525.46 h 452.01 F 1,584,069 W 452.01 F 525.46 h
0 W 432.49 h 1084.03 H 432.49 h 0 W
1,387,321 W 1,387,321 W
1,387,321 W 1190.07 H 1190.07 H
1190.07 H 165.50 P 165.50 P 1,387,321 W
1190.07 H PB= 151.88 PB= 151.88
PB= 909.23
HB= 1190.37
174,191 W 4,558 W 4,558 W 174,191 W
432.49 h 455.30 P 455.30 P 432.49 h
0 W 0 W
33,100 W
66.58 h 95.02 P 95.02 P 95.02 P
196,747 W 196,747 W 1241.42 H 58.54 P 1241.42 H 58.54 P 1241.42 H 58.54 P
336.35 h 336.35 h 18.75 P 1201.50 H 18.75 P 1201.50 H 18.75 P 1201.50 H
3,637,883 W 3,637,883 W 1125.22 H 1125.22 H 1125.22 H
1215.96 P 1215.96 P 165.50 P 165.50 P 5.22 P 5.22 P 5.22 P
356.85 F 356.85 F 0 W 0 W 1058.67 H 1058.67 H 1058.67 H
330.61 h 330.61 h 66.58 h 66.58 h
196,747 W 1,584,069 W 196,747 W
336.35 h 1084.03 H 336.35 h
196,747 W 1,584,069 W 196,747 W
0 W 336.35 h 1084.03 H 336.35 h 0 W
66.58 h 66.58 h
393,494 W 220,355 W 393,494 W 1,450,555 W
336.35 h 1084.03 H 336.35 h
128,069 W 0 W 0 W 29,270 W
525.46 h
7,189 W 11,000 W
116,128 W 73,452 W 52,329 W 84,079 W 669.52 H 4,000 W 29,270 W 1,450,555 W
432.49 h 157.48 P 90.24 P 118,208 W 108,132 W 4.25 P 0 W 1,450,555 W 29,270 W
1084.03 H 1241.42 H 56.07 P 16.82 P 957.13 H 1,064 W 0 W 2,854,390 W
485 W 262,329 W 1201.50 H 1125.22 H 1116.89 H 0 W 0 W 0 W LP TURBINE PERFORMANCE
1190.37 H 336.35 h 0 W LP IP HP
TD= 5.43 F TD= 6.64 F TD= 7.21 F TD= 4.69 F TD= 4.72 F PRESSURE, IN. HGA 1.171 1.383 1.769
2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 4,000 W 118,500 GPM 61.68 F 73.20 F 84.52 F ELEP, BTU/LB 972.09 979.16 989.80
356.85 F 315.67 F 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F 50.00 F UEEP, BTU/LB 993.68 994.55 998.68
330.61 h 287.95 h 284.40 h 250.84 h 183.10 h 119.48 h 86.37 h 66.58 h 118,500 GPM 61.68 F 73.20 F 84.52 F
362.28 F 320.47 F 288.32 F 218.89 F 155.41 F 50.00 F 1.17 IN.HGA 1.38 IN.HGA 1.77 IN.HGA CONDENSER PERFORMANCE
DC= 9.92 F DC= 11.77 F DC= 8.96 F DC= 10.74 F DC= 7.32 F 1116.89 H 1,479,825 W 89.14 F 97.07 F LP ZONE IP ZONE HP ZONE
83.90 F 57.16 h PRESSURE, IN. HGA 1.171 1.383 1.769
325.59 F 292.88 F 223.16 F 161.44 F 155.41 F 104.91 F 3,192 W HEAT LOAD, BTU/HR 1.384E+09 1.365E+09 1.342E+09
296.32 h 318,133 W 2,425,255 W βˆ†Ξ— = 3.55 318,133 W 262.44 h 191.50 h 129.42 h 123.37 h 72.91 h FLOW RATE, GPM 237000 237000 237000
1231.80 P 632,791 W 750,999 W 859,131 W 951,463 W 951,463 W 2,436,288 W βˆ†Ξ— = 0 2,974,650 W 7,308,865 W CIRC.WATER IN, F 50.00 61.68 73.20
287.95 h 309.00 P 373.81 P 51.92 h 65.07 h CIRC. WATER OUT, F 61.68 73.20 84.52
128,069 W 73,452 W 284.40 h 215.00 P TEMP. RISE, F 11.68 11.52 11.33
525.46 h 157.48 P CLEANLINESS, % 85.00 85.00 85.00
116,128 W 1084.03 H 118,208 W 108,132 W 84,079 W 7,189 W LMTD, F 27.64 21.18 17.61
432.49 h 485 W 262,329 W 52,329 W 56.07 P 16.82 P 4.25 P 669.52 H 0 W 6,000 W 5,000 W 2,436,288 W HEAT TRANSFER, U 416.7 480.5 523.1
1190.37 H 336.35 h 90.24 P 1201.50 H 1125.22 H 957.13 H 1,064 W 1116.89 H 1190.37 H 185.00 P
TD= 5.43 F 1241.42 H 1116.89 H
2,425,255 W 2,425,255 W 2,425,255 W βˆ†Ξ— = 3.55 TD= 6.64 F TD= 7.21 F TD= 4.69 F TD= 4.72 F
356.85 F 315.67 F 1231.80 P 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,436,288 W βˆ†Ξ— = 0 βˆ†Ξ— = 0
330.61 h 287.95 h 287.95 h 309.00 P 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F 373.81 P 2,436,288 W
362.28 F 284.40 h 284.40 h 250.84 h 183.10 h 119.48 h 86.37 h 66.58 h 215.00 P 7,308,865 W 7,308,865 W 7,308,865 W 7,308,865 W 185.00 P
DC= 9.92 F 320.47 F 288.32 F 218.89 F 155.41 F 66.58 h 65.76 h 65.07 h
DC= 11.77 F DC= 8.96 F DC= 10.74 F DC= 7.32 F
325.59 F 33,100 W βˆ†Ξ— = 0
296.32 h 318,133 W 292.88 F 223.16 F 161.44 F 155.41 F 2,436,288 W
318,133 W 262.44 h 632,791 W 191.50 h 750,999 W 129.42 h 859,131 W 123.37 h 951,463 W 5,000 W 185.00 P
2,425,255 W βˆ†Ξ— = 3.55 951,463 W 190.37 h
128,069 W 73,452 W 1231.80 P 2,436,288 W βˆ†Ξ— = 0
525.46 h 157.48 P 287.95 h 309.00 P 118,208 W 108,132 W 84,079 W 7,189 W 373.81 P βˆ†Ξ— = 0
116,128 W 1084.03 H 284.40 h 52,329 W 56.07 P 16.82 P 4.25 P 669.52 H 215.00 P 6,000 W 11,000 W
432.49 h 485 W 262,329 W 90.24 P 1201.50 H 1125.22 H 957.13 H 1,064 W 116.89 h
1190.37 H 336.35 h 1241.42 H 1116.89 H
TD= 5.43 F TD= 6.64 F TD= 7.21 F TD= 4.69 F TD= 4.72 F
2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W
356.85 F 315.67 F 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F
330.61 h 287.95 h 284.40 h 250.84 h 183.10 h 119.48 h 86.37 h 66.58 h
362.28 F 320.47 F 288.32 F 218.89 F 155.41 F
DC= 9.92 F DC= 11.77 F DC= 8.96 F DC= 10.74 F DC= 7.32 F
325.59 F 292.88 F 223.16 F 161.44 F 155.41 F 104.91 F
296.32 h 318,133 W 318,133 W 262.44 h 191.50 h 129.42 h 123.37 h 72.91 h
632,791 W 750,999 W 859,131 W 951,463 W 951,463 W
HTR.114
SPE
SJAE
SSR
2,3,4
HP TURBINE
MSEP
111
MSEP
112
MSEP
111 DT
MSEP
112
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG RHTR
111 DT
To Htrs.
115-135
To LP Cond.
1STG
RHTR
111
2STG
RHTR
112
2STG RHTR
112 DT
To Htrs.
115-135
To LP Cond.
MSEP
122
MSEP
121
MSEP
121 DT
MSEP
122
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG
RHTR
121
2STG
RHTR
122
2STG RHTR
122 DT
To Htrs.
115-135
To LP Cond.
1STG RHTR
121 DT
To Htrs.
115-135
To LP Cond.
To LPT
CRV 456
To LPT
CRV 123
REACTOR
HTR.115
HTR. 125
HTR.135
FP
11
FP
12
FP
13
HTR.124
HTR.134
HTR.113
HTR.123
HTR.133
HTR.112
HTR.122
HTR.132
HTR.111
HTR.121
HTR.131
DC 11
DC 12
DC 13
BP
11
BP
12
BP
13
To
Htr. 124
To
Htr. 134
To
Htr. 114
From
Htr. 115
From
Htr. 125
From
Htr. 135
To HP
Cond.
To HP
Cond.
To HP
Cond.
To CRD
Inj. To MS
Drn. Tks.
CRD Flow
To Htrs.
111-131
To LP
Cond.
COND.
DEMIN.
To Htr.
134
To Htr.
133
To Htr.
132To Htr.
131
LP
CONDENSER
To Htr.
124
To Htr.
123
To Htr.
122
To Htr.
121
IP
CONDENSER
To Htr.
114
To Htr.
113
To Htr.
112
To Htr.
111
HP
CONDENSER
Spray
Pump
LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION
3 3
7
7 7
7
8
9
1111
1313
8 9
11
11
1313
8 9
1111
1313
CRV 1 CRV 6CRV 2 CRV 5
CRV 3 CRV 4
CP
11
CP
12
CP
13
2
1
TO SJAE TO SSR MS BYPASS
3 4
A
A
B B
A A
B B
A
A
B B
Circ.
Water
In
Circ.
Water
Out
1Stg Rhtr.
Drns.
From HP
Stg. 7
From HP
Stg. 7
From HP
Stg. 7
Moist.
Sep. Drns.
From
LP Stg. 8
Moist. Sep.
Drns.
From
LP Stg. 8
Moist.
Sep. Drns.
1
1
1
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
SPE, SJAE Drns.
To LP Cond.
From SSR
Moist. Sep. Drn. Tks. Cond. Dump
1Stg., 2Stg. Drn. Tks. Cond. Dump
MS Bypass
MS Bypass
Htr. Drns.
MS Bypass
Makeup
To
Htrs. 115-135
Motor-Driven
Feed Pump
Motor-Driven
Feed Pump
Shaft-Driven
Feed Pump
Booster Pump
Booster Pump
Booster Pump
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
From
LP Stg. A
From
LP Stg. 8
From
LP Stg. A
From
LP Stg. A
Condensate Pump
2,815,477 W 7,031,901 W 2,815,477 W 938,492 W 938,492 W 938,492 W 938,492 W 938,492 W 938,492 W
156.83 P 970.00 P 4,135 W 156.83 P 1280.57 H 1280.57 H 1280.57 H 1280.57 H 1280.57 H 1280.57 H
7,420,304 W 513.10 F 1190.37 H 1190.37 H 513.10 F PIV = 154.08 PIV = 154.08 PIV = 154.08 PIV = 154.08 PIV = 154.08 PIV = 154.08
1051.00 P 1280.57 H 0.56% 1280.57 H
1190.37 H 191,701 W 191,701 W 5,000 W 0 W 0 W 1,398 W 191,701 W 191,701 W
0.100% 892.38 P 961.66 P 1190.37 H 961.66 P 892.38 P
530.95 F 159.85 P 159.85 P 530.95 F
525.46 h 430.86 F 430.86 F 525.46 h
1235.29 H 1,608,186 W 1235.29 H
1083.99 H
178,530 W 178,530 W 178,530 W 178,530 W
191,701 W 437.92 P 442.58 P 442.58 P 437.92 P 191,701 W
525.46 h 453.56 F 1,608,186 W 453.56 F 525.46 h
0 W 434.24 h 1083.99 H 434.24 h 0 W
1,407,738 W 1,407,738 W
1,407,738 W 1190.27 H 1190.27 H
1190.27 H 167.89 P 167.89 P 1,407,738 W
1190.27 H PB= 154.08 PB= 154.08
PB= 923.60
HB= 1190.37
178,530 W 4,623 W 4,623 W 178,530 W
434.24 h 462.42 P 462.42 P 434.24 h
0 W 0 W
33,100 W
67.17 h 96.39 P 96.39 P 96.39 P
200,448 W 200,448 W 1241.24 H 59.37 P 1241.24 H 59.37 P 1241.24 H 59.37 P
337.57 h 337.57 h 19.02 P 1201.35 H 19.02 P 1201.35 H 19.02 P 1201.35 H
3,693,602 W 3,693,602 W 1125.12 H 1125.12 H 1125.12 H
1215.47 P 1215.47 P 167.89 P 167.89 P 5.29 P 5.29 P 5.29 P
357.81 F 357.81 F 0 W 0 W 1058.49 H 1058.49 H 1058.49 H
331.61 h 331.61 h 67.17 h 67.17 h
200,448 W 1,608,186 W 200,448 W
337.57 h 1083.99 H 337.57 h
200,448 W 1,608,186 W 200,448 W
0 W 337.57 h 1083.99 H 337.57 h 0 W
67.17 h 67.17 h
400,895 W 227,318 W 400,895 W 1,471,955 W
337.57 h 1083.99 H 337.57 h
127,801 W 0 W 0 W 29,267 W
525.46 h
7,247 W 11,000 W
119,020 W 75,773 W 53,352 W 84,960 W 672.84 H 4,000 W 29,267 W 1,471,955 W
434.24 h 159.75 P 91.53 P 120,218 W 109,984 W 4.31 P 0 W 1,471,955 W 29,267 W
1083.99 H 1241.24 H 56.87 P 17.07 P 957.54 H 1,127 W 0 W 2,901,638 W
466 W 267,264 W 1201.35 H 1125.12 H 1116.86 H 0 W 0 W 0 W LP TURBINE PERFORMANCE
1190.37 H 337.57 h 0 W LP IP HP
TD= 5.61 F TD= 6.84 F TD= 7.43 F TD= 4.83 F TD= 4.84 F PRESSURE, IN. HGA 1.189 1.406 1.802
2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 4,000 W 118,500 GPM 61.84 F 73.52 F 85.00 F ELEP, BTU/LB 971.70 978.81 989.58
357.81 F 316.48 F 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F 50.00 F UEEP, BTU/LB 993.26 994.15 998.36
331.61 h 288.79 h 285.24 h 251.54 h 183.71 h 119.97 h 86.94 h 67.17 h 118,500 GPM 61.84 F 73.52 F 85.00 F
363.43 F 321.48 F 289.23 F 219.63 F 156.01 F 50.00 F 1.19 IN.HGA 1.41 IN.HGA 1.80 IN.HGA CONDENSER PERFORMANCE
DC= 10.14 F DC= 12.04 F DC= 9.21 F DC= 10.98 F DC= 7.46 F 1116.86 H 1,501,222 W 89.64 F 97.69 F LP ZONE IP ZONE HP ZONE
84.36 F 57.66 h PRESSURE, IN. HGA 1.189 1.406 1.802
326.63 F 293.84 F 224.01 F 162.16 F 156.01 F 105.64 F 3,381 W HEAT LOAD, BTU/HR 1.403E+09 1.383E+09 1.360E+09
297.40 h 323,059 W 2,462,401 W βˆ†Ξ— = 3.55 323,059 W 263.43 h 192.37 h 130.15 h 123.97 h 73.63 h FLOW RATE, GPM 237000 237000 237000
1231.80 P 643,675 W 763,893 W 873,878 W 967,213 W 967,213 W 2,473,435 W βˆ†Ξ— = 0 3,017,444 W 7,420,304 W CIRC.WATER IN, F 50.00 61.84 73.52
288.79 h 309.00 P 375.81 P 52.39 h 65.69 h CIRC. WATER OUT, F 61.84 73.52 85.00
127,801 W 75,773 W 285.24 h 215.00 P TEMP. RISE, F 11.84 11.67 11.48
525.46 h 159.75 P CLEANLINESS, % 85.00 85.00 85.00
119,020 W 1083.99 H 120,218 W 109,984 W 84,960 W 7,247 W LMTD, F 28.03 21.44 17.82
434.24 h 466 W 267,264 W 53,352 W 56.87 P 17.07 P 4.31 P 672.84 H 0 W 6,000 W 5,000 W 2,473,435 W HEAT TRANSFER, U 416.7 481.2 524.0
1190.37 H 337.57 h 91.53 P 1201.35 H 1125.12 H 957.54 H 1,127 W 1116.86 H 1190.37 H 185.00 P
TD= 5.61 F 1241.24 H 1116.86 H
2,462,401 W 2,462,401 W 2,462,401 W βˆ†Ξ— = 3.55 TD= 6.84 F TD= 7.43 F TD= 4.83 F TD= 4.84 F
357.81 F 316.48 F 1231.80 P 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,473,435 W βˆ†Ξ— = 0 βˆ†Ξ— = 0
331.61 h 288.79 h 288.79 h 309.00 P 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F 375.81 P 2,473,435 W
363.43 F 285.24 h 285.24 h 251.54 h 183.71 h 119.97 h 86.94 h 67.17 h 215.00 P 7,420,304 W 7,420,304 W 7,420,304 W 7,420,304 W 185.00 P
DC= 10.14 F 321.48 F 289.23 F 219.63 F 156.01 F 67.17 h 66.36 h 65.69 h
DC= 12.04 F DC= 9.21 F DC= 10.98 F DC= 7.46 F
326.63 F 33,100 W βˆ†Ξ— = 0
297.40 h 323,059 W 293.84 F 224.01 F 162.16 F 156.01 F 2,473,435 W
323,059 W 263.43 h 643,675 W 192.37 h 763,893 W 130.15 h 873,878 W 123.97 h 967,213 W 5,000 W 185.00 P
2,462,401 W βˆ†Ξ— = 3.55 967,213 W 190.37 h
127,801 W 75,773 W 1231.80 P 2,473,435 W βˆ†Ξ— = 0
525.46 h 159.75 P 288.79 h 309.00 P 120,218 W 109,984 W 84,960 W 7,247 W 375.81 P βˆ†Ξ— = 0
119,020 W 1083.99 H 285.24 h 53,352 W 56.87 P 17.07 P 4.31 P 672.84 H 215.00 P 6,000 W 11,000 W
434.24 h 466 W 267,264 W 91.53 P 1201.35 H 1125.12 H 957.54 H 1,127 W 116.86 h
1190.37 H 337.57 h 1241.24 H 1116.86 H
TD= 5.61 F TD= 6.84 F TD= 7.43 F TD= 4.83 F TD= 4.84 F
2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W
357.81 F 316.48 F 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F
331.61 h 288.79 h 285.24 h 251.54 h 183.71 h 119.97 h 86.94 h 67.17 h
363.43 F 321.48 F 289.23 F 219.63 F 156.01 F
DC= 10.14 F DC= 12.04 F DC= 9.21 F DC= 10.98 F DC= 7.46 F
326.63 F 293.84 F 224.01 F 162.16 F 156.01 F 105.64 F
297.40 h 323,059 W 323,059 W 263.43 h 192.37 h 130.15 h 123.97 h 73.63 h
643,675 W 763,893 W 873,878 W 967,213 W 967,213 W
HTR.114
SPE
SJAE
SSR
2,3,4
HP TURBINE
MSEP
111
MSEP
112
MSEP
111 DT
MSEP
112
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG RHTR
111 DT
To Htrs.
115-135
To LP Cond.
1STG
RHTR
111
2STG
RHTR
112
2STG RHTR
112 DT
To Htrs.
115-135
To LP Cond.
MSEP
122
MSEP
121
MSEP
121 DT
MSEP
122
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG
RHTR
121
2STG
RHTR
122
2STG RHTR
122 DT
To Htrs.
115-135
To LP Cond.
1STG RHTR
121 DT
To Htrs.
115-135
To LP Cond.
To LPT
CRV 456
To LPT
CRV 123
REACTOR
HTR.115
HTR. 125
HTR.135
FP
11
FP
12
FP
13
HTR.124
HTR.134
HTR.113
HTR.123
HTR.133
HTR.112
HTR.122
HTR.132
HTR.111
HTR.121
HTR.131
DC 11
DC 12
DC 13
BP
11
BP
12
BP
13
To
Htr. 124
To
Htr. 134
To
Htr. 114
From
Htr. 115
From
Htr. 125
From
Htr. 135
To HP
Cond.
To HP
Cond.
To HP
Cond.
To CRD
Inj. To MS
Drn. Tks.
CRD Flow
To Htrs.
111-131
To LP
Cond.
COND.
DEMIN.
To Htr.
134
To Htr.
133
To Htr.
132To Htr.
131
LP
CONDENSER
To Htr.
124
To Htr.
123
To Htr.
122
To Htr.
121
IP
CONDENSER
To Htr.
114
To Htr.
113
To Htr.
112
To Htr.
111
HP
CONDENSER
Spray
Pump
LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION
3 3
7
7 7
7
8
9
1111
1313
8 9
11
11
1313
8 9
1111
1313
CRV 1 CRV 6CRV 2 CRV 5
CRV 3 CRV 4
CP
11
CP
12
CP
13
2
1
TO SJAE TO SSR MS BYPASS
3 4
A
A
B B
A A
B B
A
A
B B
Circ.
Water
In
Circ.
Water
Out
1Stg Rhtr.
Drns.
From HP
Stg. 7
From HP
Stg. 7
From HP
Stg. 7
Moist.
Sep. Drns.
From
LP Stg. 8
Moist. Sep.
Drns.
From
LP Stg. 8
Moist.
Sep. Drns.
1
1
1
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
SPE, SJAE Drns.
To LP Cond.
From SSR
Moist. Sep. Drn. Tks. Cond. Dump
1Stg., 2Stg. Drn. Tks. Cond. Dump
MS Bypass
MS Bypass
Htr. Drns.
MS Bypass
Makeup
To
Htrs. 115-135
Motor-Driven
Feed Pump
Motor-Driven
Feed Pump
Shaft-Driven
Feed Pump
Booster Pump
Booster Pump
Booster Pump
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
From
LP Stg. A
From
LP Stg. 8
From
LP Stg. A
From
LP Stg. A
Condensate Pump
No. Plant TYPE % Uprate Mwt Year Approved
1 Braidwood 1 PW R 5 170 2001
2 Braidwood 2 PW R 5 170 2001
3 Browns Ferry 2 BW R 5 164 1998
4 Browns Ferry 3 BW R 5 164 1998
5 Brunswick 1 BW R 5 122 1996
6 Brunswick 2 BW R 5 122 1996
7 Byron 1 PW R 5 170 2001
8 Byron 2 PW R 5 170 2001
9 Callaway PW R 4.5 154 1988
10 Calv ert Cliffs 1 PW R 5.5 140 1977
11 Calv ert Cliffs 2 PW R 5.5 140 1977
12 Crystal Riv er 3 PW R 0.9 24 2002
13 Diablo Canyon 1 PW R 2 73 2000
14 Duane Arnold BW R 4.1 65 1985
15 Farley 1 PW R 5 138 1998
16 Farley 2 PW R 5 138 1998
17 Fermi 2 BW R 4 137 1992
18 Fitzpatrick BW R 4 100 1996
19 Fort Calhoun PW R 5.6 80 1980
20 H. B. Robinson PW R 4.5 100 1979
21 Hatch 1 BW R 5 122 1995
22 Hatch 2 BW R 5 122 1995
23 Kewaunee PW R 6 99 2004
24 La SaIle 2 BW R 5 166 2000
25 La Salle 1 BW R 5 166 2000
26 Limerick 1 BW R 5 165 1996
27 Limerick 2 BW R 5 165 1995
28 Millstone 2 PW R 5 140 1979
29 Nine Mile Point 2 BW R 4.3 144 1995
30 North Anna 1 PW R 4.2 118 1986
31 North Anna 2 PW R 4.2 118 1986
32 Palo Verde 1 PW R 2 76 1996
33 Palo Verde 2 PW R 2 76 1996
34 Palo Verde 2 PW R 2.9 114 2003
35 Palo Verde 3 PW R 2 76 1996
36 Peach Bottom 2 BW R 5 165 1994
37 Peach Bottom 3 BW R 5 165 1995
38 Perry BW R 5 178 2000
39 Riv er Bend BW R 5 145 2000
40 Salem 1 PW R 2 73 1986
41 Shearon Harris PW R 4.5 138 2001
42 St. Lucie 1 PW R 5.5 140 1981
43 St. Lucie 2 PW R 5.5 140 1985
44 Surry 1 PW R 4.3 105 1995
45 Surry 2 PW R 4.3 105 1995
46 Susquehanna 1 BW R 4.5 148 1995
47 Susquehanna 2 BW R 4.5 148 1994
48 TMI-1 PW R 1.3 33 1988
49 Turkey Point 3 PW R 4.5 100 1996
50 Turkey Point 4 PW R 4.5 100 1996
51 V. C. Summer PW R 4.5 125 1996
52 Vogtle 1 PW R 4.5 154 1993
53 Vogtle 2 PW R 4.5 154 1993
54 W NP-2 PW R 4.9 163 1995
55 W olf Creek PW R 4.5 154 1993
No. Plant TYPE % Uprate Mwt Year Approved
1 ANO-2 PWR 7.5 211 2002
2 Brunswick 1 BWR 15 365 2002
3 Brunswick 2 BWR 15 365 2002
4 Clinton BWR 20 579 2002
5 Dresden 2 BWR 17 430 2001
6 Dresden 3 BWR 17 430 2001
7 Duane Arnold BWR 15.3 248 2001
8 Hatch 1 BWR 8 205 1998
9 Hatch 2 BWR 8 205 1998
10 Monticello BWR 6.3 105 1998
11 Quad Cities 1 BWR 17.8 446 2001
12 Quad Cities 2 BWR 17.8 446 2001
13 Vermont Yankee BWR 20 319 2005 (Expected)
14 Waterford PWR 8 275 2005 (Expected)
3,436,466 W 8,594,137 W 3,436,466 W 1,145,489 W 1,145,489 W 1,145,489 W 1,145,489 W 1,145,489 W 1,145,489 W
190.92 P 990.00 P 5,023 W 190.92 P 1278.49 H 1278.49 H 1278.49 H 1278.49 H 1278.49 H 1278.49 H
8,974,753 W 515.52 F 1190.41 H 1190.41 H 515.52 F PIV =187.57 PIV =187.57 PIV =187.57 PIV =187.57 PIV =187.57 PIV =187.57
1050.00 P 1278.49 H 0.44% 1278.49 H
1190.41 H 187,808 W 187,808 W 5,000 W 0 W 0 W 627 W 187,808 W 187,808 W
0.100% 910.78 P 981.49 P 1190.41 H 981.49 P 910.78 P
533.37 F 194.60 P 194.60 P 533.37 F
528.46 h 451.66 F 451.66 F 528.46 h
1242.32 H 1,944,385 W 1242.32 H
1096.02 H
239,025 W 239,025 W 239,025 W 239,025 W
187,808 W 536.68 P 542.39 P 542.39 P 536.68 P 187,808 W
528.46 h 474.36 F 1,944,385 W 474.36 F 528.46 h
0 W 457.97 h 1096.02 H 457.97 h 0 W
1,718,233 W 1,718,233 W
1,718,233 W 1193.59 H 1193.59 H
1193.59 H 204.39 P 204.39 P 1,718,233 W
1193.59 H PB=187.57 PB=187.57
PB=911.33
HB=1190.41
239,025 W 5,578 W 5,578 W 239,025 W
457.97 h 566.70 P 566.70 P 457.97 h
0 W 0 W
33,100 W
75.77 h 117.10 P 117.10 P 117.10 P
226,152 W 226,152 W 1239.22 H 71.70 P 1239.22 H 71.70 P 1239.22 H 71.70 P
354.73 h 354.73 h 23.06 P 1199.11 H 23.06 P 1199.11 H 23.06 P 1199.11 H
4,470,827 W 4,470,827 W 1123.48 H 1123.48 H 1123.48 H
1218.52 P 1218.52 P 204.39 P 204.39 P 6.40 P 6.40 P 6.40 P
374.93 F 374.93 F 0 W 0 W 1055.96 H 1055.96 H 1055.96 H
349.60 h 349.60 h 75.77 h 75.77 h
226,152 W 1,944,385 W 226,152 W
354.73 h 1096.02 H 354.73 h
226,152 W 1,944,385 W 226,152 W
0 W 354.73 h 1096.02 H 354.73 h 0 W
75.77 h 75.77 h
452,304 W 321,738 W 452,304 W 1,782,536 W
354.73 h 1096.02 H 354.73 h
125,206 W 0 W 0 W 29,158 W
528.46 h
8,200 W 11,000 W
159,350 W 107,246 W 69,718 W 105,649 W 710.27 H 4,000 W 29,158 W 1,782,536 W
457.97 h 194.48 P 111.20 P 158,134 W 137,583 W 5.21 P 0 W 1,782,536 W 29,158 W
1096.02 H 1239.22 H 68.67 P 20.69 P 967.71 H 2,060 W 0 W 3,524,671 W
209 W 301,536 W 1199.11 H 1123.48 H 1125.32 H 0 W 0 W 0 W LP TURBINE PERFORMANCE
1190.41 H 354.73 h 0 W LP IP HP
TD=4.53 F TD=5.78 F TD=5.85 F TD=4.63 F TD=4.71 F PRESSURE, IN. HGA 1.470 1.757 2.348
2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 4,000 W 118,500 GPM 64.15 F 78.10 F 91.82 F ELEP, BTU/LB 967.42 974.98 987.57
374.93 F 331.73 F 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F 50.00 F UEEP, BTU/LB 987.92 989.14 995.03
349.60 h 304.51 h 300.96 h 265.86 h 194.10 h 128.07 h 94.48 h 75.77 h 118,500 GPM 64.15 F 78.10 F 91.82 F
379.46 F 335.59 F 301.64 F 229.76 F 164.01 F 50.00 F 1.47 IN.HGA 1.76 IN.HGA 2.35 IN.HGA CONDENSER PERFORMANCE
DC=9.42 F DC=11.05 F DC=9.37 F DC=9.41 F DC=9.69 F 1125.32 H 1,811,694 W 96.86 F 106.56 F LP ZONE IP ZONE HP ZONE
91.07 F 64.86 h PRESSURE, IN. HGA 1.470 1.757 2.348
341.15 F 306.84 F 234.50 F 168.71 F 164.01 F 116.52 F 6,179 W HEAT LOAD, BTU/HR 1.677E+09 1.653E+09 1.625E+09
312.58 h 392,011 W 2,980,551 W βˆ†Ξ— = 3.55 392,011 W 276.84 h 202.98 h 136.71 h 131.97 h 84.50 h FLOW RATE, GPM 237000 237000 237000
1231.80 P 763,265 W 921,399 W 1,058,982 W 1,174,890 W 1,174,890 W 2,991,584 W βˆ†Ξ— = 0 3,638,388 W 8,974,753 W CIRC.WATER IN, F 50.00 64.15 78.10
304.51 h 309.00 P 363.32 P 59.09 h 74.54 h CIRC. WATER OUT, F 64.15 78.10 91.82
125,206 W 107,246 W 300.96 h 215.00 P TEMP. RISE, F 14.15 13.95 13.71
528.46 h 194.48 P CLEANLINESS, % 85.00 85.00 85.00
159,350 W 1096.02 H 158,134 W 137,583 W 105,649 W 8,200 W LMTD, F 33.50 25.08 20.85
457.97 h 209 W 301,536 W 69,718 W 68.67 P 20.69 P 5.21 P 710.27 H 0 W 6,000 W 5,000 W 2,991,584 W HEAT TRANSFER, U 416.7 491.4 534.9
1190.41 H 354.73 h 111.20 P 1199.11 H 1123.48 H 967.71 H 2,060 W 1125.32 H 1190.41 H 185.00 P
TD=4.53 F 1239.22 H 1125.32 H
2,980,551 W 2,980,551 W 2,980,551 W βˆ†Ξ— = 3.55 TD=5.78 F TD=5.85 F TD=4.63 F TD=4.71 F
374.93 F 331.73 F 1231.80 P 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,991,584 W βˆ†Ξ— = 0 βˆ†Ξ— = 0
349.60 h 304.51 h 304.51 h 309.00 P 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F 363.32 P 2,991,584 W
379.46 F 300.96 h 300.96 h 265.86 h 194.10 h 128.07 h 94.48 h 75.77 h 215.00 P 8,974,753 W 8,974,753 W 8,974,753 W 8,974,753 W 185.00 P
DC=9.42 F 335.59 F 301.64 F 229.76 F 164.01 F 75.77 h 75.10 h 74.54 h
DC=11.05 F DC=9.37 F DC=9.41 F DC=9.69 F
341.15 F 33,100 W βˆ†Ξ— = 0
312.58 h 392,011 W 306.84 F 234.50 F 168.71 F 164.01 F 2,991,584 W
392,011 W 276.84 h 763,265 W 202.98 h 921,399 W 136.71 h 1,058,982 W 131.97 h 1,174,890 W 5,000 W 185.00 P
2,980,551 W βˆ†Ξ— = 3.55 1,174,890 W 190.41 h
125,206 W 107,246 W 1231.80 P 2,991,584 W βˆ†Ξ— = 0
528.46 h 194.48 P 304.51 h 309.00 P 158,134 W 137,583 W 105,649 W 8,200 W 363.32 P βˆ†Ξ— = 0
159,350 W 1096.02 H 300.96 h 69,718 W 68.67 P 20.69 P 5.21 P 710.27 H 215.00 P 6,000 W 11,000 W
457.97 h 209 W 301,536 W 111.20 P 1199.11 H 1123.48 H 967.71 H 2,060 W 125.32 h
1190.41 H 354.73 h 1239.22 H 1125.32 H
TD=4.53 F TD=5.78 F TD=5.85 F TD=4.63 F TD=4.71 F
2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W
374.93 F 331.73 F 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F
349.60 h 304.51 h 300.96 h 265.86 h 194.10 h 128.07 h 94.48 h 75.77 h
379.46 F 335.59 F 301.64 F 229.76 F 164.01 F
DC=9.42 F DC=11.05 F DC=9.37 F DC=9.41 F DC=9.69 F
341.15 F 306.84 F 234.50 F 168.71 F 164.01 F 116.52 F
312.58 h 392,011 W 392,011 W 276.84 h 202.98 h 136.71 h 131.97 h 84.50 h
763,265 W 921,399 W 1,058,982 W 1,174,890 W 1,174,890 W
HTR.114
SPE
SJAE
SSR
2,3,4
HP TURBINE
MSEP
111
MSEP
112
MSEP
111 DT
MSEP
112
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG RHTR
111 DT
To Htrs.
115-135
To LP Cond.
1STG
RHTR
111
2STG
RHTR
112
2STG RHTR
112 DT
To Htrs.
115-135
To LP Cond.
MSEP
122
MSEP
121
MSEP
121 DT
MSEP
122
DT
BP
Inj. Flow
BP
Inj. Flow
To Htrs.
114-134
To LP Cond.
1STG
RHTR
121
2STG
RHTR
122
2STG RHTR
122 DT
To Htrs.
115-135
To LP Cond.
1STG RHTR
121 DT
To Htrs.
115-135
To LP Cond.
To LPT
CRV 456
To LPT
CRV 123
REACTOR
HTR.115
HTR. 125
HTR.135
FP
11
FP
12
FP
13
HTR.124
HTR.134
HTR.113
HTR.123
HTR.133
HTR.112
HTR.122
HTR.132
HTR.111
HTR.121
HTR.131
DC 11
DC 12
DC 13
BP
11
BP
12
BP
13
To
Htr. 124
To
Htr. 134
To
Htr. 114
From
Htr. 115
From
Htr. 125
From
Htr. 135
To HP
Cond.
To HP
Cond.
To HP
Cond.
To CRD
Inj. To MS
Drn. Tks.
CRD Flow
To Htrs.
111-131
To LP
Cond.
COND.
DEMIN.
To Htr.
134
To Htr.
133
To Htr.
132To Htr.
131
LP
CONDENSER
To Htr.
124
To Htr.
123
To Htr.
122
To Htr.
121
IP
CONDENSER
To Htr.
114
To Htr.
113
To Htr.
112
To Htr.
111
HP
CONDENSER
Spray
Pump
LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION
3 3
7
7 7
7
8
9
1111
1313
8 9
11
11
1313
8 9
1111
1313
CRV 1 CRV 6CRV 2 CRV 5
CRV 3 CRV 4
CP
11
CP
12
CP
13
2
1
TO SJAE TO SSR MS BYPASS
3 4
A
A
B B
A A
B B
A
A
B B
Circ.
Water
In
Circ.
Water
Out
1Stg Rhtr.
Drns.
From HP
Stg. 7
From HP
Stg. 7
From HP
Stg. 7
Moist.
Sep. Drns.
From
LP Stg. 8
Moist. Sep.
Drns.
From
LP Stg. 8
Moist.
Sep. Drns.
1
1
1
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 9
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 11
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
From
LP Stg. 13
From
SSR
SPE, SJAE Drns.
To LP Cond.
From SSR
Moist. Sep. Drn. Tks. Cond. Dump
1Stg., 2Stg. Drn. Tks. Cond. Dump
MS Bypass
MS Bypass
Htr. Drns.
MS Bypass
Makeup
To
Htrs. 115-135
Motor-Driven
Feed Pump
Motor-Driven
Feed Pump
Shaft-Driven
Feed Pump
Booster Pump
Booster Pump
Booster Pump
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
1Stg Rhtr.
Drns.
2Stg Rhtr.
Drns.
From
LP Stg. A
From
LP Stg. 8
From
LP Stg. A
From
LP Stg. A
Condensate Pump
2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

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2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

  • 1.
  • 2.
  • 3. Plant Name & Units Date Application Received by NRC Date License Issued by NRC Calvert Cliffs 1 & 2 April 1998 March 2000 Oconee 1, 2 & 3 July 1998 May 2000 Arkansas Nuclear One 1 February 2000 June 2001 Edwin I. Hatch 1 & 2 March 2000 January 2002 Turkey Point 3 & 4 September 2000 June 2002 Surry 1 & 2 May 2001 March 2003 North Anna 1& 2 May 2001 March 2003 McGuire 1 & 2 June 2001 December 2003 Catawba 1 & 2 June 2001 December 2003 Peach Bottom 2 & 3 July 2001 May 2003 St. Lucie 1 & 2 November 2001 October 2003 Fort Calhoun January 2002 November 2003 Robinson 2 June 2002 April 2004 Ginna August 2002 May 2004 Summer August 2002 April 2004 Dresden 2 & 3 Jaunary 2003 Under Review Quad Cities 1 & 2 Jaunary 2003 Under Review Farley 1 & 2 September 2003 Under Review Arkansas Nuclear One 2 October 2003 Under Review Cook 1 & 2 November 2003 Under Review Browns Ferry 1, 2 & 3 January 2004 Under Review Millstone 2 & 3 January 2004 Under Review Point Beach 1 & 2 February 2004 Under Review
  • 4.
  • 5.
  • 6. HTR.114 SPE SJAE SSR 2,3,4 HP TURBINE MSEP 111 MSEP 112 MSEP 111 DT MSEP 112 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 111 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 111 2STG RHTR 112 2STG RHTR 112 DT To Htrs. 115-135 To LP Cond. MSEP 122 MSEP 121 MSEP 121 DT MSEP 122 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 121 2STG RHTR 122 2STG RHTR 122 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 121 DT To Htrs. 115-135 To LP Cond. To LPT CRV 456 To LPT CRV 123 REACTOR HTR.115 HTR. 125 HTR.135 FP 11 FP 12 FP 13 HTR.124 HTR.134 HTR.113 HTR.123 HTR.133 HTR.112 HTR.122 HTR.132 HTR.111 HTR.121 HTR.131 DC 11 DC 12 DC 13 BP 11 BP 12 BP 13 To Htr. 124 To Htr. 134 To Htr. 114 From Htr. 115 From Htr. 125 From Htr. 135 To HP Cond. To HP Cond. To HP Cond. To CRD Inj. To MS Drn. Tks. CRD Flow To Htrs. 111-131 To LP Cond. COND. DEMIN. To Htr. 134 To Htr. 133 To Htr. 132To Htr. 131 LP CONDENSER To Htr. 124 To Htr. 123 To Htr. 122 To Htr. 121 IP CONDENSER To Htr. 114 To Htr. 113 To Htr. 112 To Htr. 111 HP CONDENSER Spray Pump LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION 3 3 7 7 7 7 8 9 1111 1313 8 9 11 11 1313 8 9 1111 1313 CRV 1 CRV 6CRV 2 CRV 5 CRV 3 CRV 4 CP 11 CP 12 CP 13 2 1 TO SJAE TO SSR MS BYPASS 3 4 A A B B A A B B A A B B Circ. Water In Circ. Water Out 1Stg Rhtr. Drns. From HP Stg. 7 From HP Stg. 7 From HP Stg. 7 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. 1 1 1 From LP Stg. 9 From LP Stg. 9 From LP Stg. 9 From LP Stg. 11 From LP Stg. 11 From LP Stg. 11 From LP Stg. 13 From SSR From LP Stg. 13 From SSR From LP Stg. 13 From SSR SPE, SJAE Drns. To LP Cond. From SSR Moist. Sep. Drn. Tks. Cond. Dump 1Stg., 2Stg. Drn. Tks. Cond. Dump MS Bypass MS Bypass Htr. Drns. MS Bypass Makeup To Htrs. 115-135 Motor-Driven Feed Pump Motor-Driven Feed Pump Shaft-Driven Feed Pump Booster Pump Booster Pump Booster Pump 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. From LP Stg. A From LP Stg. 8 From LP Stg. A From LP Stg. A Condensate Pump
  • 7.
  • 8. No. Plant Type % Uprate Mwt Year Approved 1 Beaver Valley 1 PWR 1.4 37 2001 2 Beaver Valley 2 PWR 1.4 37 2001 3 Comanche Peak 1 PWR 1.4 47 2001 4 Comanche Peak 2 PWR 1 34 1999 5 Comanche Peak 2 PWR 0.4 13 2001 6 D.C.Cook 1 PWR 1.66 54 2002 7 D.C.Cook 2 PWR 1.66 57 2003 8 Fort Calhoun PWR 1.6 24 2004 9 Grand Gulf BWR 1.7 65 2002 10 H. B. Robinson PWR 1.7 39 2002 11 Hatch 1 BWR 1.5 41 2003 12 Hatch 2 BWR 1.5 41 2003 13 Hope Creek BWR 1.4 46 2001 14 Indian Point 2 PWR 1.4 43 2003 15 Indian Point 3 PWR 1.4 42.4 2002 16 Kewaunee PWR 1.4 23 2003 17 Palisades PWR 1.4 35 2005 (Expected) 18 Peach Bottom 2 BWR 1.62 56 2002 19 Peach Bottom 3 BWR 1.62 56 2002 20 Pilgrim BWR 1.5 30 2003 21 Point Beach 1 PWR 1.4 21.5 2002 22 Point Beach 2 PWR 1.4 21.5 2002 23 River Bend BWR 1.7 52 2003 24 Salem 1 PWR 1.4 48 2001 25 Salem 2 PWR 1.4 48 2001 26 San Onofre 2 PWR 1.4 48 2001 27 San Onofre 3 PWR 1.4 48 2001 28 Sequoyah 1 PWR 1.3 44 2002 29 Sequoyah 2 PWR 1.3 44 2002 30 South Texas 1 PWR 1.4 53 2002 31 South Texas 2 PWR 1.4 53 2002 32 Susquehanna 1 BWR 1.4 48 2001 33 Susquehanna 2 BWR 1.4 48 2001 34 Waterford 3 PWR 1.5 51 2002 35 Watts Bar PWR 1.4 48 2001
  • 9.
  • 10.
  • 11. 2,774,643 W 6,919,659 W 2,774,643 W 924,881 W 924,881 W 924,881 W 924,881 W 924,881 W 924,881 W 154.60 P 970.00 P 4,077 W 154.60 P 1280.78 H 1280.78 H 1280.78 H 1280.78 H 1280.78 H 1280.78 H 7,308,865 W 513.10 F 1190.37 H 1190.37 H 513.10 F PIV = 151.88 PIV = 151.88 PIV = 151.88 PIV = 151.88 PIV = 151.88 PIV = 151.88 1051.00 P 1280.78 H 0.56% 1280.78 H 1190.37 H 192,103 W 192,103 W 5,000 W 0 W 0 W 1,456 W 192,103 W 192,103 W 0.100% 892.38 P 961.66 P 1190.37 H 961.66 P 892.38 P 530.95 F 157.57 P 157.57 P 530.95 F 525.46 h 429.31 F 429.31 F 525.46 h 1234.75 H 1,584,069 W 1234.75 H 1084.03 H 174,191 W 174,191 W 174,191 W 174,191 W 192,103 W 431.18 P 435.77 P 435.77 P 431.18 P 192,103 W 525.46 h 452.01 F 1,584,069 W 452.01 F 525.46 h 0 W 432.49 h 1084.03 H 432.49 h 0 W 1,387,321 W 1,387,321 W 1,387,321 W 1190.07 H 1190.07 H 1190.07 H 165.50 P 165.50 P 1,387,321 W 1190.07 H PB= 151.88 PB= 151.88 PB= 909.23 HB= 1190.37 174,191 W 4,558 W 4,558 W 174,191 W 432.49 h 455.30 P 455.30 P 432.49 h 0 W 0 W 33,100 W 66.58 h 95.02 P 95.02 P 95.02 P 196,747 W 196,747 W 1241.42 H 58.54 P 1241.42 H 58.54 P 1241.42 H 58.54 P 336.35 h 336.35 h 18.75 P 1201.50 H 18.75 P 1201.50 H 18.75 P 1201.50 H 3,637,883 W 3,637,883 W 1125.22 H 1125.22 H 1125.22 H 1215.96 P 1215.96 P 165.50 P 165.50 P 5.22 P 5.22 P 5.22 P 356.85 F 356.85 F 0 W 0 W 1058.67 H 1058.67 H 1058.67 H 330.61 h 330.61 h 66.58 h 66.58 h 196,747 W 1,584,069 W 196,747 W 336.35 h 1084.03 H 336.35 h 196,747 W 1,584,069 W 196,747 W 0 W 336.35 h 1084.03 H 336.35 h 0 W 66.58 h 66.58 h 393,494 W 220,355 W 393,494 W 1,450,555 W 336.35 h 1084.03 H 336.35 h 128,069 W 0 W 0 W 29,270 W 525.46 h 7,189 W 11,000 W 116,128 W 73,452 W 52,329 W 84,079 W 669.52 H 4,000 W 29,270 W 1,450,555 W 432.49 h 157.48 P 90.24 P 118,208 W 108,132 W 4.25 P 0 W 1,450,555 W 29,270 W 1084.03 H 1241.42 H 56.07 P 16.82 P 957.13 H 1,064 W 0 W 2,854,390 W 485 W 262,329 W 1201.50 H 1125.22 H 1116.89 H 0 W 0 W 0 W LP TURBINE PERFORMANCE 1190.37 H 336.35 h 0 W LP IP HP TD= 5.43 F TD= 6.64 F TD= 7.21 F TD= 4.69 F TD= 4.72 F PRESSURE, IN. HGA 1.171 1.383 1.769 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 4,000 W 118,500 GPM 61.68 F 73.20 F 84.52 F ELEP, BTU/LB 972.09 979.16 989.80 356.85 F 315.67 F 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F 50.00 F UEEP, BTU/LB 993.68 994.55 998.68 330.61 h 287.95 h 284.40 h 250.84 h 183.10 h 119.48 h 86.37 h 66.58 h 118,500 GPM 61.68 F 73.20 F 84.52 F 362.28 F 320.47 F 288.32 F 218.89 F 155.41 F 50.00 F 1.17 IN.HGA 1.38 IN.HGA 1.77 IN.HGA CONDENSER PERFORMANCE DC= 9.92 F DC= 11.77 F DC= 8.96 F DC= 10.74 F DC= 7.32 F 1116.89 H 1,479,825 W 89.14 F 97.07 F LP ZONE IP ZONE HP ZONE 83.90 F 57.16 h PRESSURE, IN. HGA 1.171 1.383 1.769 325.59 F 292.88 F 223.16 F 161.44 F 155.41 F 104.91 F 3,192 W HEAT LOAD, BTU/HR 1.384E+09 1.365E+09 1.342E+09 296.32 h 318,133 W 2,425,255 W βˆ†Ξ— = 3.55 318,133 W 262.44 h 191.50 h 129.42 h 123.37 h 72.91 h FLOW RATE, GPM 237000 237000 237000 1231.80 P 632,791 W 750,999 W 859,131 W 951,463 W 951,463 W 2,436,288 W βˆ†Ξ— = 0 2,974,650 W 7,308,865 W CIRC.WATER IN, F 50.00 61.68 73.20 287.95 h 309.00 P 373.81 P 51.92 h 65.07 h CIRC. WATER OUT, F 61.68 73.20 84.52 128,069 W 73,452 W 284.40 h 215.00 P TEMP. RISE, F 11.68 11.52 11.33 525.46 h 157.48 P CLEANLINESS, % 85.00 85.00 85.00 116,128 W 1084.03 H 118,208 W 108,132 W 84,079 W 7,189 W LMTD, F 27.64 21.18 17.61 432.49 h 485 W 262,329 W 52,329 W 56.07 P 16.82 P 4.25 P 669.52 H 0 W 6,000 W 5,000 W 2,436,288 W HEAT TRANSFER, U 416.7 480.5 523.1 1190.37 H 336.35 h 90.24 P 1201.50 H 1125.22 H 957.13 H 1,064 W 1116.89 H 1190.37 H 185.00 P TD= 5.43 F 1241.42 H 1116.89 H 2,425,255 W 2,425,255 W 2,425,255 W βˆ†Ξ— = 3.55 TD= 6.64 F TD= 7.21 F TD= 4.69 F TD= 4.72 F 356.85 F 315.67 F 1231.80 P 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,436,288 W βˆ†Ξ— = 0 βˆ†Ξ— = 0 330.61 h 287.95 h 287.95 h 309.00 P 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F 373.81 P 2,436,288 W 362.28 F 284.40 h 284.40 h 250.84 h 183.10 h 119.48 h 86.37 h 66.58 h 215.00 P 7,308,865 W 7,308,865 W 7,308,865 W 7,308,865 W 185.00 P DC= 9.92 F 320.47 F 288.32 F 218.89 F 155.41 F 66.58 h 65.76 h 65.07 h DC= 11.77 F DC= 8.96 F DC= 10.74 F DC= 7.32 F 325.59 F 33,100 W βˆ†Ξ— = 0 296.32 h 318,133 W 292.88 F 223.16 F 161.44 F 155.41 F 2,436,288 W 318,133 W 262.44 h 632,791 W 191.50 h 750,999 W 129.42 h 859,131 W 123.37 h 951,463 W 5,000 W 185.00 P 2,425,255 W βˆ†Ξ— = 3.55 951,463 W 190.37 h 128,069 W 73,452 W 1231.80 P 2,436,288 W βˆ†Ξ— = 0 525.46 h 157.48 P 287.95 h 309.00 P 118,208 W 108,132 W 84,079 W 7,189 W 373.81 P βˆ†Ξ— = 0 116,128 W 1084.03 H 284.40 h 52,329 W 56.07 P 16.82 P 4.25 P 669.52 H 215.00 P 6,000 W 11,000 W 432.49 h 485 W 262,329 W 90.24 P 1201.50 H 1125.22 H 957.13 H 1,064 W 116.89 h 1190.37 H 336.35 h 1241.42 H 1116.89 H TD= 5.43 F TD= 6.64 F TD= 7.21 F TD= 4.69 F TD= 4.72 F 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 2,425,255 W 356.85 F 315.67 F 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F 330.61 h 287.95 h 284.40 h 250.84 h 183.10 h 119.48 h 86.37 h 66.58 h 362.28 F 320.47 F 288.32 F 218.89 F 155.41 F DC= 9.92 F DC= 11.77 F DC= 8.96 F DC= 10.74 F DC= 7.32 F 325.59 F 292.88 F 223.16 F 161.44 F 155.41 F 104.91 F 296.32 h 318,133 W 318,133 W 262.44 h 191.50 h 129.42 h 123.37 h 72.91 h 632,791 W 750,999 W 859,131 W 951,463 W 951,463 W HTR.114 SPE SJAE SSR 2,3,4 HP TURBINE MSEP 111 MSEP 112 MSEP 111 DT MSEP 112 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 111 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 111 2STG RHTR 112 2STG RHTR 112 DT To Htrs. 115-135 To LP Cond. MSEP 122 MSEP 121 MSEP 121 DT MSEP 122 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 121 2STG RHTR 122 2STG RHTR 122 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 121 DT To Htrs. 115-135 To LP Cond. To LPT CRV 456 To LPT CRV 123 REACTOR HTR.115 HTR. 125 HTR.135 FP 11 FP 12 FP 13 HTR.124 HTR.134 HTR.113 HTR.123 HTR.133 HTR.112 HTR.122 HTR.132 HTR.111 HTR.121 HTR.131 DC 11 DC 12 DC 13 BP 11 BP 12 BP 13 To Htr. 124 To Htr. 134 To Htr. 114 From Htr. 115 From Htr. 125 From Htr. 135 To HP Cond. To HP Cond. To HP Cond. To CRD Inj. To MS Drn. Tks. CRD Flow To Htrs. 111-131 To LP Cond. COND. DEMIN. To Htr. 134 To Htr. 133 To Htr. 132To Htr. 131 LP CONDENSER To Htr. 124 To Htr. 123 To Htr. 122 To Htr. 121 IP CONDENSER To Htr. 114 To Htr. 113 To Htr. 112 To Htr. 111 HP CONDENSER Spray Pump LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION 3 3 7 7 7 7 8 9 1111 1313 8 9 11 11 1313 8 9 1111 1313 CRV 1 CRV 6CRV 2 CRV 5 CRV 3 CRV 4 CP 11 CP 12 CP 13 2 1 TO SJAE TO SSR MS BYPASS 3 4 A A B B A A B B A A B B Circ. Water In Circ. Water Out 1Stg Rhtr. Drns. From HP Stg. 7 From HP Stg. 7 From HP Stg. 7 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. 1 1 1 From LP Stg. 9 From LP Stg. 9 From LP Stg. 9 From LP Stg. 11 From LP Stg. 11 From LP Stg. 11 From LP Stg. 13 From SSR From LP Stg. 13 From SSR From LP Stg. 13 From SSR SPE, SJAE Drns. To LP Cond. From SSR Moist. Sep. Drn. Tks. Cond. Dump 1Stg., 2Stg. Drn. Tks. Cond. Dump MS Bypass MS Bypass Htr. Drns. MS Bypass Makeup To Htrs. 115-135 Motor-Driven Feed Pump Motor-Driven Feed Pump Shaft-Driven Feed Pump Booster Pump Booster Pump Booster Pump 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. From LP Stg. A From LP Stg. 8 From LP Stg. A From LP Stg. A Condensate Pump
  • 12.
  • 13. 2,815,477 W 7,031,901 W 2,815,477 W 938,492 W 938,492 W 938,492 W 938,492 W 938,492 W 938,492 W 156.83 P 970.00 P 4,135 W 156.83 P 1280.57 H 1280.57 H 1280.57 H 1280.57 H 1280.57 H 1280.57 H 7,420,304 W 513.10 F 1190.37 H 1190.37 H 513.10 F PIV = 154.08 PIV = 154.08 PIV = 154.08 PIV = 154.08 PIV = 154.08 PIV = 154.08 1051.00 P 1280.57 H 0.56% 1280.57 H 1190.37 H 191,701 W 191,701 W 5,000 W 0 W 0 W 1,398 W 191,701 W 191,701 W 0.100% 892.38 P 961.66 P 1190.37 H 961.66 P 892.38 P 530.95 F 159.85 P 159.85 P 530.95 F 525.46 h 430.86 F 430.86 F 525.46 h 1235.29 H 1,608,186 W 1235.29 H 1083.99 H 178,530 W 178,530 W 178,530 W 178,530 W 191,701 W 437.92 P 442.58 P 442.58 P 437.92 P 191,701 W 525.46 h 453.56 F 1,608,186 W 453.56 F 525.46 h 0 W 434.24 h 1083.99 H 434.24 h 0 W 1,407,738 W 1,407,738 W 1,407,738 W 1190.27 H 1190.27 H 1190.27 H 167.89 P 167.89 P 1,407,738 W 1190.27 H PB= 154.08 PB= 154.08 PB= 923.60 HB= 1190.37 178,530 W 4,623 W 4,623 W 178,530 W 434.24 h 462.42 P 462.42 P 434.24 h 0 W 0 W 33,100 W 67.17 h 96.39 P 96.39 P 96.39 P 200,448 W 200,448 W 1241.24 H 59.37 P 1241.24 H 59.37 P 1241.24 H 59.37 P 337.57 h 337.57 h 19.02 P 1201.35 H 19.02 P 1201.35 H 19.02 P 1201.35 H 3,693,602 W 3,693,602 W 1125.12 H 1125.12 H 1125.12 H 1215.47 P 1215.47 P 167.89 P 167.89 P 5.29 P 5.29 P 5.29 P 357.81 F 357.81 F 0 W 0 W 1058.49 H 1058.49 H 1058.49 H 331.61 h 331.61 h 67.17 h 67.17 h 200,448 W 1,608,186 W 200,448 W 337.57 h 1083.99 H 337.57 h 200,448 W 1,608,186 W 200,448 W 0 W 337.57 h 1083.99 H 337.57 h 0 W 67.17 h 67.17 h 400,895 W 227,318 W 400,895 W 1,471,955 W 337.57 h 1083.99 H 337.57 h 127,801 W 0 W 0 W 29,267 W 525.46 h 7,247 W 11,000 W 119,020 W 75,773 W 53,352 W 84,960 W 672.84 H 4,000 W 29,267 W 1,471,955 W 434.24 h 159.75 P 91.53 P 120,218 W 109,984 W 4.31 P 0 W 1,471,955 W 29,267 W 1083.99 H 1241.24 H 56.87 P 17.07 P 957.54 H 1,127 W 0 W 2,901,638 W 466 W 267,264 W 1201.35 H 1125.12 H 1116.86 H 0 W 0 W 0 W LP TURBINE PERFORMANCE 1190.37 H 337.57 h 0 W LP IP HP TD= 5.61 F TD= 6.84 F TD= 7.43 F TD= 4.83 F TD= 4.84 F PRESSURE, IN. HGA 1.189 1.406 1.802 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 4,000 W 118,500 GPM 61.84 F 73.52 F 85.00 F ELEP, BTU/LB 971.70 978.81 989.58 357.81 F 316.48 F 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F 50.00 F UEEP, BTU/LB 993.26 994.15 998.36 331.61 h 288.79 h 285.24 h 251.54 h 183.71 h 119.97 h 86.94 h 67.17 h 118,500 GPM 61.84 F 73.52 F 85.00 F 363.43 F 321.48 F 289.23 F 219.63 F 156.01 F 50.00 F 1.19 IN.HGA 1.41 IN.HGA 1.80 IN.HGA CONDENSER PERFORMANCE DC= 10.14 F DC= 12.04 F DC= 9.21 F DC= 10.98 F DC= 7.46 F 1116.86 H 1,501,222 W 89.64 F 97.69 F LP ZONE IP ZONE HP ZONE 84.36 F 57.66 h PRESSURE, IN. HGA 1.189 1.406 1.802 326.63 F 293.84 F 224.01 F 162.16 F 156.01 F 105.64 F 3,381 W HEAT LOAD, BTU/HR 1.403E+09 1.383E+09 1.360E+09 297.40 h 323,059 W 2,462,401 W βˆ†Ξ— = 3.55 323,059 W 263.43 h 192.37 h 130.15 h 123.97 h 73.63 h FLOW RATE, GPM 237000 237000 237000 1231.80 P 643,675 W 763,893 W 873,878 W 967,213 W 967,213 W 2,473,435 W βˆ†Ξ— = 0 3,017,444 W 7,420,304 W CIRC.WATER IN, F 50.00 61.84 73.52 288.79 h 309.00 P 375.81 P 52.39 h 65.69 h CIRC. WATER OUT, F 61.84 73.52 85.00 127,801 W 75,773 W 285.24 h 215.00 P TEMP. RISE, F 11.84 11.67 11.48 525.46 h 159.75 P CLEANLINESS, % 85.00 85.00 85.00 119,020 W 1083.99 H 120,218 W 109,984 W 84,960 W 7,247 W LMTD, F 28.03 21.44 17.82 434.24 h 466 W 267,264 W 53,352 W 56.87 P 17.07 P 4.31 P 672.84 H 0 W 6,000 W 5,000 W 2,473,435 W HEAT TRANSFER, U 416.7 481.2 524.0 1190.37 H 337.57 h 91.53 P 1201.35 H 1125.12 H 957.54 H 1,127 W 1116.86 H 1190.37 H 185.00 P TD= 5.61 F 1241.24 H 1116.86 H 2,462,401 W 2,462,401 W 2,462,401 W βˆ†Ξ— = 3.55 TD= 6.84 F TD= 7.43 F TD= 4.83 F TD= 4.84 F 357.81 F 316.48 F 1231.80 P 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,473,435 W βˆ†Ξ— = 0 βˆ†Ξ— = 0 331.61 h 288.79 h 288.79 h 309.00 P 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F 375.81 P 2,473,435 W 363.43 F 285.24 h 285.24 h 251.54 h 183.71 h 119.97 h 86.94 h 67.17 h 215.00 P 7,420,304 W 7,420,304 W 7,420,304 W 7,420,304 W 185.00 P DC= 10.14 F 321.48 F 289.23 F 219.63 F 156.01 F 67.17 h 66.36 h 65.69 h DC= 12.04 F DC= 9.21 F DC= 10.98 F DC= 7.46 F 326.63 F 33,100 W βˆ†Ξ— = 0 297.40 h 323,059 W 293.84 F 224.01 F 162.16 F 156.01 F 2,473,435 W 323,059 W 263.43 h 643,675 W 192.37 h 763,893 W 130.15 h 873,878 W 123.97 h 967,213 W 5,000 W 185.00 P 2,462,401 W βˆ†Ξ— = 3.55 967,213 W 190.37 h 127,801 W 75,773 W 1231.80 P 2,473,435 W βˆ†Ξ— = 0 525.46 h 159.75 P 288.79 h 309.00 P 120,218 W 109,984 W 84,960 W 7,247 W 375.81 P βˆ†Ξ— = 0 119,020 W 1083.99 H 285.24 h 53,352 W 56.87 P 17.07 P 4.31 P 672.84 H 215.00 P 6,000 W 11,000 W 434.24 h 466 W 267,264 W 91.53 P 1201.35 H 1125.12 H 957.54 H 1,127 W 116.86 h 1190.37 H 337.57 h 1241.24 H 1116.86 H TD= 5.61 F TD= 6.84 F TD= 7.43 F TD= 4.83 F TD= 4.84 F 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 2,462,401 W 357.81 F 316.48 F 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F 331.61 h 288.79 h 285.24 h 251.54 h 183.71 h 119.97 h 86.94 h 67.17 h 363.43 F 321.48 F 289.23 F 219.63 F 156.01 F DC= 10.14 F DC= 12.04 F DC= 9.21 F DC= 10.98 F DC= 7.46 F 326.63 F 293.84 F 224.01 F 162.16 F 156.01 F 105.64 F 297.40 h 323,059 W 323,059 W 263.43 h 192.37 h 130.15 h 123.97 h 73.63 h 643,675 W 763,893 W 873,878 W 967,213 W 967,213 W HTR.114 SPE SJAE SSR 2,3,4 HP TURBINE MSEP 111 MSEP 112 MSEP 111 DT MSEP 112 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 111 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 111 2STG RHTR 112 2STG RHTR 112 DT To Htrs. 115-135 To LP Cond. MSEP 122 MSEP 121 MSEP 121 DT MSEP 122 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 121 2STG RHTR 122 2STG RHTR 122 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 121 DT To Htrs. 115-135 To LP Cond. To LPT CRV 456 To LPT CRV 123 REACTOR HTR.115 HTR. 125 HTR.135 FP 11 FP 12 FP 13 HTR.124 HTR.134 HTR.113 HTR.123 HTR.133 HTR.112 HTR.122 HTR.132 HTR.111 HTR.121 HTR.131 DC 11 DC 12 DC 13 BP 11 BP 12 BP 13 To Htr. 124 To Htr. 134 To Htr. 114 From Htr. 115 From Htr. 125 From Htr. 135 To HP Cond. To HP Cond. To HP Cond. To CRD Inj. To MS Drn. Tks. CRD Flow To Htrs. 111-131 To LP Cond. COND. DEMIN. To Htr. 134 To Htr. 133 To Htr. 132To Htr. 131 LP CONDENSER To Htr. 124 To Htr. 123 To Htr. 122 To Htr. 121 IP CONDENSER To Htr. 114 To Htr. 113 To Htr. 112 To Htr. 111 HP CONDENSER Spray Pump LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION 3 3 7 7 7 7 8 9 1111 1313 8 9 11 11 1313 8 9 1111 1313 CRV 1 CRV 6CRV 2 CRV 5 CRV 3 CRV 4 CP 11 CP 12 CP 13 2 1 TO SJAE TO SSR MS BYPASS 3 4 A A B B A A B B A A B B Circ. Water In Circ. Water Out 1Stg Rhtr. Drns. From HP Stg. 7 From HP Stg. 7 From HP Stg. 7 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. 1 1 1 From LP Stg. 9 From LP Stg. 9 From LP Stg. 9 From LP Stg. 11 From LP Stg. 11 From LP Stg. 11 From LP Stg. 13 From SSR From LP Stg. 13 From SSR From LP Stg. 13 From SSR SPE, SJAE Drns. To LP Cond. From SSR Moist. Sep. Drn. Tks. Cond. Dump 1Stg., 2Stg. Drn. Tks. Cond. Dump MS Bypass MS Bypass Htr. Drns. MS Bypass Makeup To Htrs. 115-135 Motor-Driven Feed Pump Motor-Driven Feed Pump Shaft-Driven Feed Pump Booster Pump Booster Pump Booster Pump 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. From LP Stg. A From LP Stg. 8 From LP Stg. A From LP Stg. A Condensate Pump
  • 14.
  • 15.
  • 16. No. Plant TYPE % Uprate Mwt Year Approved 1 Braidwood 1 PW R 5 170 2001 2 Braidwood 2 PW R 5 170 2001 3 Browns Ferry 2 BW R 5 164 1998 4 Browns Ferry 3 BW R 5 164 1998 5 Brunswick 1 BW R 5 122 1996 6 Brunswick 2 BW R 5 122 1996 7 Byron 1 PW R 5 170 2001 8 Byron 2 PW R 5 170 2001 9 Callaway PW R 4.5 154 1988 10 Calv ert Cliffs 1 PW R 5.5 140 1977 11 Calv ert Cliffs 2 PW R 5.5 140 1977 12 Crystal Riv er 3 PW R 0.9 24 2002 13 Diablo Canyon 1 PW R 2 73 2000 14 Duane Arnold BW R 4.1 65 1985 15 Farley 1 PW R 5 138 1998 16 Farley 2 PW R 5 138 1998 17 Fermi 2 BW R 4 137 1992 18 Fitzpatrick BW R 4 100 1996 19 Fort Calhoun PW R 5.6 80 1980 20 H. B. Robinson PW R 4.5 100 1979 21 Hatch 1 BW R 5 122 1995 22 Hatch 2 BW R 5 122 1995 23 Kewaunee PW R 6 99 2004 24 La SaIle 2 BW R 5 166 2000 25 La Salle 1 BW R 5 166 2000 26 Limerick 1 BW R 5 165 1996 27 Limerick 2 BW R 5 165 1995 28 Millstone 2 PW R 5 140 1979 29 Nine Mile Point 2 BW R 4.3 144 1995 30 North Anna 1 PW R 4.2 118 1986 31 North Anna 2 PW R 4.2 118 1986 32 Palo Verde 1 PW R 2 76 1996 33 Palo Verde 2 PW R 2 76 1996 34 Palo Verde 2 PW R 2.9 114 2003 35 Palo Verde 3 PW R 2 76 1996 36 Peach Bottom 2 BW R 5 165 1994 37 Peach Bottom 3 BW R 5 165 1995 38 Perry BW R 5 178 2000 39 Riv er Bend BW R 5 145 2000 40 Salem 1 PW R 2 73 1986 41 Shearon Harris PW R 4.5 138 2001 42 St. Lucie 1 PW R 5.5 140 1981 43 St. Lucie 2 PW R 5.5 140 1985 44 Surry 1 PW R 4.3 105 1995 45 Surry 2 PW R 4.3 105 1995 46 Susquehanna 1 BW R 4.5 148 1995 47 Susquehanna 2 BW R 4.5 148 1994 48 TMI-1 PW R 1.3 33 1988 49 Turkey Point 3 PW R 4.5 100 1996 50 Turkey Point 4 PW R 4.5 100 1996 51 V. C. Summer PW R 4.5 125 1996 52 Vogtle 1 PW R 4.5 154 1993 53 Vogtle 2 PW R 4.5 154 1993 54 W NP-2 PW R 4.9 163 1995 55 W olf Creek PW R 4.5 154 1993
  • 17.
  • 18.
  • 19.
  • 20. No. Plant TYPE % Uprate Mwt Year Approved 1 ANO-2 PWR 7.5 211 2002 2 Brunswick 1 BWR 15 365 2002 3 Brunswick 2 BWR 15 365 2002 4 Clinton BWR 20 579 2002 5 Dresden 2 BWR 17 430 2001 6 Dresden 3 BWR 17 430 2001 7 Duane Arnold BWR 15.3 248 2001 8 Hatch 1 BWR 8 205 1998 9 Hatch 2 BWR 8 205 1998 10 Monticello BWR 6.3 105 1998 11 Quad Cities 1 BWR 17.8 446 2001 12 Quad Cities 2 BWR 17.8 446 2001 13 Vermont Yankee BWR 20 319 2005 (Expected) 14 Waterford PWR 8 275 2005 (Expected)
  • 21.
  • 22.
  • 23.
  • 24. 3,436,466 W 8,594,137 W 3,436,466 W 1,145,489 W 1,145,489 W 1,145,489 W 1,145,489 W 1,145,489 W 1,145,489 W 190.92 P 990.00 P 5,023 W 190.92 P 1278.49 H 1278.49 H 1278.49 H 1278.49 H 1278.49 H 1278.49 H 8,974,753 W 515.52 F 1190.41 H 1190.41 H 515.52 F PIV =187.57 PIV =187.57 PIV =187.57 PIV =187.57 PIV =187.57 PIV =187.57 1050.00 P 1278.49 H 0.44% 1278.49 H 1190.41 H 187,808 W 187,808 W 5,000 W 0 W 0 W 627 W 187,808 W 187,808 W 0.100% 910.78 P 981.49 P 1190.41 H 981.49 P 910.78 P 533.37 F 194.60 P 194.60 P 533.37 F 528.46 h 451.66 F 451.66 F 528.46 h 1242.32 H 1,944,385 W 1242.32 H 1096.02 H 239,025 W 239,025 W 239,025 W 239,025 W 187,808 W 536.68 P 542.39 P 542.39 P 536.68 P 187,808 W 528.46 h 474.36 F 1,944,385 W 474.36 F 528.46 h 0 W 457.97 h 1096.02 H 457.97 h 0 W 1,718,233 W 1,718,233 W 1,718,233 W 1193.59 H 1193.59 H 1193.59 H 204.39 P 204.39 P 1,718,233 W 1193.59 H PB=187.57 PB=187.57 PB=911.33 HB=1190.41 239,025 W 5,578 W 5,578 W 239,025 W 457.97 h 566.70 P 566.70 P 457.97 h 0 W 0 W 33,100 W 75.77 h 117.10 P 117.10 P 117.10 P 226,152 W 226,152 W 1239.22 H 71.70 P 1239.22 H 71.70 P 1239.22 H 71.70 P 354.73 h 354.73 h 23.06 P 1199.11 H 23.06 P 1199.11 H 23.06 P 1199.11 H 4,470,827 W 4,470,827 W 1123.48 H 1123.48 H 1123.48 H 1218.52 P 1218.52 P 204.39 P 204.39 P 6.40 P 6.40 P 6.40 P 374.93 F 374.93 F 0 W 0 W 1055.96 H 1055.96 H 1055.96 H 349.60 h 349.60 h 75.77 h 75.77 h 226,152 W 1,944,385 W 226,152 W 354.73 h 1096.02 H 354.73 h 226,152 W 1,944,385 W 226,152 W 0 W 354.73 h 1096.02 H 354.73 h 0 W 75.77 h 75.77 h 452,304 W 321,738 W 452,304 W 1,782,536 W 354.73 h 1096.02 H 354.73 h 125,206 W 0 W 0 W 29,158 W 528.46 h 8,200 W 11,000 W 159,350 W 107,246 W 69,718 W 105,649 W 710.27 H 4,000 W 29,158 W 1,782,536 W 457.97 h 194.48 P 111.20 P 158,134 W 137,583 W 5.21 P 0 W 1,782,536 W 29,158 W 1096.02 H 1239.22 H 68.67 P 20.69 P 967.71 H 2,060 W 0 W 3,524,671 W 209 W 301,536 W 1199.11 H 1123.48 H 1125.32 H 0 W 0 W 0 W LP TURBINE PERFORMANCE 1190.41 H 354.73 h 0 W LP IP HP TD=4.53 F TD=5.78 F TD=5.85 F TD=4.63 F TD=4.71 F PRESSURE, IN. HGA 1.470 1.757 2.348 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 4,000 W 118,500 GPM 64.15 F 78.10 F 91.82 F ELEP, BTU/LB 967.42 974.98 987.57 374.93 F 331.73 F 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F 50.00 F UEEP, BTU/LB 987.92 989.14 995.03 349.60 h 304.51 h 300.96 h 265.86 h 194.10 h 128.07 h 94.48 h 75.77 h 118,500 GPM 64.15 F 78.10 F 91.82 F 379.46 F 335.59 F 301.64 F 229.76 F 164.01 F 50.00 F 1.47 IN.HGA 1.76 IN.HGA 2.35 IN.HGA CONDENSER PERFORMANCE DC=9.42 F DC=11.05 F DC=9.37 F DC=9.41 F DC=9.69 F 1125.32 H 1,811,694 W 96.86 F 106.56 F LP ZONE IP ZONE HP ZONE 91.07 F 64.86 h PRESSURE, IN. HGA 1.470 1.757 2.348 341.15 F 306.84 F 234.50 F 168.71 F 164.01 F 116.52 F 6,179 W HEAT LOAD, BTU/HR 1.677E+09 1.653E+09 1.625E+09 312.58 h 392,011 W 2,980,551 W βˆ†Ξ— = 3.55 392,011 W 276.84 h 202.98 h 136.71 h 131.97 h 84.50 h FLOW RATE, GPM 237000 237000 237000 1231.80 P 763,265 W 921,399 W 1,058,982 W 1,174,890 W 1,174,890 W 2,991,584 W βˆ†Ξ— = 0 3,638,388 W 8,974,753 W CIRC.WATER IN, F 50.00 64.15 78.10 304.51 h 309.00 P 363.32 P 59.09 h 74.54 h CIRC. WATER OUT, F 64.15 78.10 91.82 125,206 W 107,246 W 300.96 h 215.00 P TEMP. RISE, F 14.15 13.95 13.71 528.46 h 194.48 P CLEANLINESS, % 85.00 85.00 85.00 159,350 W 1096.02 H 158,134 W 137,583 W 105,649 W 8,200 W LMTD, F 33.50 25.08 20.85 457.97 h 209 W 301,536 W 69,718 W 68.67 P 20.69 P 5.21 P 710.27 H 0 W 6,000 W 5,000 W 2,991,584 W HEAT TRANSFER, U 416.7 491.4 534.9 1190.41 H 354.73 h 111.20 P 1199.11 H 1123.48 H 967.71 H 2,060 W 1125.32 H 1190.41 H 185.00 P TD=4.53 F 1239.22 H 1125.32 H 2,980,551 W 2,980,551 W 2,980,551 W βˆ†Ξ— = 3.55 TD=5.78 F TD=5.85 F TD=4.63 F TD=4.71 F 374.93 F 331.73 F 1231.80 P 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,991,584 W βˆ†Ξ— = 0 βˆ†Ξ— = 0 349.60 h 304.51 h 304.51 h 309.00 P 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F 363.32 P 2,991,584 W 379.46 F 300.96 h 300.96 h 265.86 h 194.10 h 128.07 h 94.48 h 75.77 h 215.00 P 8,974,753 W 8,974,753 W 8,974,753 W 8,974,753 W 185.00 P DC=9.42 F 335.59 F 301.64 F 229.76 F 164.01 F 75.77 h 75.10 h 74.54 h DC=11.05 F DC=9.37 F DC=9.41 F DC=9.69 F 341.15 F 33,100 W βˆ†Ξ— = 0 312.58 h 392,011 W 306.84 F 234.50 F 168.71 F 164.01 F 2,991,584 W 392,011 W 276.84 h 763,265 W 202.98 h 921,399 W 136.71 h 1,058,982 W 131.97 h 1,174,890 W 5,000 W 185.00 P 2,980,551 W βˆ†Ξ— = 3.55 1,174,890 W 190.41 h 125,206 W 107,246 W 1231.80 P 2,991,584 W βˆ†Ξ— = 0 528.46 h 194.48 P 304.51 h 309.00 P 158,134 W 137,583 W 105,649 W 8,200 W 363.32 P βˆ†Ξ— = 0 159,350 W 1096.02 H 300.96 h 69,718 W 68.67 P 20.69 P 5.21 P 710.27 H 215.00 P 6,000 W 11,000 W 457.97 h 209 W 301,536 W 111.20 P 1199.11 H 1123.48 H 967.71 H 2,060 W 125.32 h 1190.41 H 354.73 h 1239.22 H 1125.32 H TD=4.53 F TD=5.78 F TD=5.85 F TD=4.63 F TD=4.71 F 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 2,980,551 W 374.93 F 331.73 F 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F 349.60 h 304.51 h 300.96 h 265.86 h 194.10 h 128.07 h 94.48 h 75.77 h 379.46 F 335.59 F 301.64 F 229.76 F 164.01 F DC=9.42 F DC=11.05 F DC=9.37 F DC=9.41 F DC=9.69 F 341.15 F 306.84 F 234.50 F 168.71 F 164.01 F 116.52 F 312.58 h 392,011 W 392,011 W 276.84 h 202.98 h 136.71 h 131.97 h 84.50 h 763,265 W 921,399 W 1,058,982 W 1,174,890 W 1,174,890 W HTR.114 SPE SJAE SSR 2,3,4 HP TURBINE MSEP 111 MSEP 112 MSEP 111 DT MSEP 112 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 111 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 111 2STG RHTR 112 2STG RHTR 112 DT To Htrs. 115-135 To LP Cond. MSEP 122 MSEP 121 MSEP 121 DT MSEP 122 DT BP Inj. Flow BP Inj. Flow To Htrs. 114-134 To LP Cond. 1STG RHTR 121 2STG RHTR 122 2STG RHTR 122 DT To Htrs. 115-135 To LP Cond. 1STG RHTR 121 DT To Htrs. 115-135 To LP Cond. To LPT CRV 456 To LPT CRV 123 REACTOR HTR.115 HTR. 125 HTR.135 FP 11 FP 12 FP 13 HTR.124 HTR.134 HTR.113 HTR.123 HTR.133 HTR.112 HTR.122 HTR.132 HTR.111 HTR.121 HTR.131 DC 11 DC 12 DC 13 BP 11 BP 12 BP 13 To Htr. 124 To Htr. 134 To Htr. 114 From Htr. 115 From Htr. 125 From Htr. 135 To HP Cond. To HP Cond. To HP Cond. To CRD Inj. To MS Drn. Tks. CRD Flow To Htrs. 111-131 To LP Cond. COND. DEMIN. To Htr. 134 To Htr. 133 To Htr. 132To Htr. 131 LP CONDENSER To Htr. 124 To Htr. 123 To Htr. 122 To Htr. 121 IP CONDENSER To Htr. 114 To Htr. 113 To Htr. 112 To Htr. 111 HP CONDENSER Spray Pump LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION 3 3 7 7 7 7 8 9 1111 1313 8 9 11 11 1313 8 9 1111 1313 CRV 1 CRV 6CRV 2 CRV 5 CRV 3 CRV 4 CP 11 CP 12 CP 13 2 1 TO SJAE TO SSR MS BYPASS 3 4 A A B B A A B B A A B B Circ. Water In Circ. Water Out 1Stg Rhtr. Drns. From HP Stg. 7 From HP Stg. 7 From HP Stg. 7 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. From LP Stg. 8 Moist. Sep. Drns. 1 1 1 From LP Stg. 9 From LP Stg. 9 From LP Stg. 9 From LP Stg. 11 From LP Stg. 11 From LP Stg. 11 From LP Stg. 13 From SSR From LP Stg. 13 From SSR From LP Stg. 13 From SSR SPE, SJAE Drns. To LP Cond. From SSR Moist. Sep. Drn. Tks. Cond. Dump 1Stg., 2Stg. Drn. Tks. Cond. Dump MS Bypass MS Bypass Htr. Drns. MS Bypass Makeup To Htrs. 115-135 Motor-Driven Feed Pump Motor-Driven Feed Pump Shaft-Driven Feed Pump Booster Pump Booster Pump Booster Pump 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. 1Stg Rhtr. Drns. 2Stg Rhtr. Drns. From LP Stg. A From LP Stg. 8 From LP Stg. A From LP Stg. A Condensate Pump