2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A...

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Transcript of 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A...

Page 1: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 2: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 3: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

Plant Name & Units Date Application Received by NRC Date License Issued by NRCCalvert Cliffs 1 & 2 April 1998 March 2000Oconee 1, 2 & 3 July 1998 May 2000Arkansas Nuclear One 1 February 2000 June 2001Edwin I. Hatch 1 & 2 March 2000 January 2002Turkey Point 3 & 4 September 2000 June 2002Surry 1 & 2 May 2001 March 2003North Anna 1& 2 May 2001 March 2003McGuire 1 & 2 June 2001 December 2003Catawba 1 & 2 June 2001 December 2003Peach Bottom 2 & 3 July 2001 May 2003St. Lucie 1 & 2 November 2001 October 2003Fort Calhoun January 2002 November 2003Robinson 2 June 2002 April 2004Ginna August 2002 May 2004Summer August 2002 April 2004Dresden 2 & 3 Jaunary 2003 Under ReviewQuad Cities 1 & 2 Jaunary 2003 Under ReviewFarley 1 & 2 September 2003 Under ReviewArkansas Nuclear One 2 October 2003 Under ReviewCook 1 & 2 November 2003 Under ReviewBrowns Ferry 1, 2 & 3 January 2004 Under ReviewMillstone 2 & 3 January 2004 Under ReviewPoint Beach 1 & 2 February 2004 Under Review

Page 4: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 5: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 6: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

HTR.114

SPESJAE

SSR

2,3,4

HP TURBINE

MSEP111

MSEP112

MSEP111 DT

MSEP112DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STG RHTR111 DT

To Htrs.115-135

To LP Cond.

1STGRHTR

111

2STGRHTR

112

2STG RHTR112 DT

To Htrs.115-135

To LP Cond.

MSEP122

MSEP121

MSEP121 DT

MSEP122DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STGRHTR

121

2STGRHTR

122

2STG RHTR122 DT

To Htrs.115-135

To LP Cond.

1STG RHTR121 DT

To Htrs.115-135

To LP Cond.

To LPTCRV 456

To LPTCRV 123

REACT OR

HTR.115

HTR. 125

HTR.135

FP11

FP12

FP13

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

BP11

BP12

BP13

ToHtr. 124

ToHtr. 134

ToHtr. 114 From

Htr. 115

FromHtr. 125

FromHtr. 135

To HPCond.

To HPCond.

To HPCond.

To CRD

Inj. To MSDrn. Tk s.

CRD Flow

To Htrs.111-131

To LPCond.

COND.DEMIN.

To Htr.134

To Htr.133

To Htr.132To Htr.

131

LPCONDENSER

To Htr.124

To Htr.123

To Htr.122

To Htr.121

IPCONDENSER

To Htr.114

To Htr.113

To Htr.112

To Htr.111

HPCONDENSER

SprayPump

LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION3 3

7

7 7

7

89

1111

1313

8 9

1111

1313

8 9

1111

1313

CRV 1 CRV 6CRV 2 CRV 5CRV 3 CRV 4

CP11

CP12

CP13

2

1TO SJAE TO SSR MS BYPASS

3 4

AA

B B

A A

B B

A A

B B

Circ .W ater

In

Circ .W ater

Out

1Stg Rhtr.Drns.

From HPStg. 7

From HPStg. 7

From HPStg. 7

Moist.Sep. Drns.

FromLP Stg. 8

Moist. Sep.Drns.

FromLP Stg. 8

Moist.Sep. Drns.

1

1

1

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

SPE, SJAE Drns.

To LP Cond.

From SSR

Moist. Sep. Drn. Tk s. Cond. Dump

1Stg., 2Stg. Drn. Tk s. Cond. Dump

MS Bypass MS BypassHtr. Drns.

MS Bypass

Mak eup

ToHtrs. 115-135

Motor-Driv enFeed Pump

Motor-Driv enFeed Pump

Shaft-Driv enFeed Pump

Booster Pump

Booster Pump

Booster Pump

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

FromLP Stg. A

FromLP Stg. 8

FromLP Stg. A

FromLP Stg. A

Condensate Pump

Page 7: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 8: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

No. Plant Type % Uprate Mwt Year Approved1 Beaver Valley 1 PWR 1.4 37 20012 Beaver Valley 2 PWR 1.4 37 20013 Comanche Peak 1 PWR 1.4 47 20014 Comanche Peak 2 PWR 1 34 19995 Comanche Peak 2 PWR 0.4 13 20016 D.C.Cook 1 PWR 1.66 54 20027 D.C.Cook 2 PWR 1.66 57 20038 Fort Calhoun PWR 1.6 24 20049 Grand Gulf BWR 1.7 65 2002

10 H. B. Robinson PWR 1.7 39 200211 Hatch 1 BWR 1.5 41 200312 Hatch 2 BWR 1.5 41 200313 Hope Creek BWR 1.4 46 200114 Indian Point 2 PWR 1.4 43 200315 Indian Point 3 PWR 1.4 42.4 200216 Kewaunee PWR 1.4 23 200317 Palisades PWR 1.4 35 2005 (Expected)18 Peach Bottom 2 BWR 1.62 56 200219 Peach Bottom 3 BWR 1.62 56 200220 Pilgrim BWR 1.5 30 200321 Point Beach 1 PWR 1.4 21.5 200222 Point Beach 2 PWR 1.4 21.5 200223 River Bend BWR 1.7 52 200324 Salem 1 PWR 1.4 48 200125 Salem 2 PWR 1.4 48 200126 San Onofre 2 PWR 1.4 48 200127 San Onofre 3 PWR 1.4 48 200128 Sequoyah 1 PWR 1.3 44 200229 Sequoyah 2 PWR 1.3 44 200230 South Texas 1 PWR 1.4 53 200231 South Texas 2 PWR 1.4 53 200232 Susquehanna 1 BWR 1.4 48 200133 Susquehanna 2 BWR 1.4 48 200134 Waterford 3 PWR 1.5 51 200235 Watts Bar PWR 1.4 48 2001

Page 9: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 10: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 11: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

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 W154.60 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 = 151.881051.00 P 1280.78 H 0.56% 1280.78 H1190.37 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 P530.95 F 157.57 P 157.57 P 530.95 F525.46 h 429.31 F 429.31 F 525.46 h

1234.75 H 1,584,069 W 1234.75 H1084.03 H

174,191 W 174,191 W 174,191 W 174,191 W192,103 W 431.18 P 435.77 P 435.77 P 431.18 P 192,103 W525.46 h 452.01 F 1,584,069 W 452.01 F 525.46 h0 W 432.49 h 1084.03 H 432.49 h 0 W

1,387,321 W 1,387,321 W1,387,321 W 1190.07 H 1190.07 H1190.07 H 165.50 P 165.50 P 1,387,321 W

1190.07 H PB = 151.88 PB = 151.88PB = 909.23HB = 1190.37

174,191 W 4,558 W 4,558 W 174,191 W432.49 h 455.30 P 455.30 P 432.49 h

0 W 0 W33,100 W66.58 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 P336.35 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 H1215.96 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 H330.61 h 330.61 h 66.58 h 66.58 h

196,747 W 1,584,069 W 196,747 W336.35 h 1084.03 H 336.35 h

196,747 W 1,584,069 W 196,747 W0 W 336.35 h 1084.03 H 336.35 h 0 W66.58 h 66.58 h

393,494 W 220,355 W 393,494 W 1,450,555 W336.35 h 1084.03 H 336.35 h

128,069 W 0 W 0 W 29,270 W525.46 h

7,189 W 11,000 W116,128 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 W1084.03 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 PERFORMANCE1190.37 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 1.7692,425,255 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 993.68 994.55 998.68330.61 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 PERFORMANCEDC = 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 1.769325.59 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+09296.32 h 318,133 W 2,425,255 W ∆Η = 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 ∆Η = 0 2,974,650 W 7,308,865 W CIRC.WATER IN, F 50.00 61.68 73.20287.95 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 11.33525.46 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 17.61432.49 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 PTD = 5.43 F 1241.42 H 1116.89 H

2,425,255 W 2,425,255 W 2,425,255 W ∆Η = 3.55 TD = 6.64 F TD = 7.21 F TD = 4.69 F TD = 4.72 F356.85 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 ∆Η = 0 ∆Η = 0330.61 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 PDC = 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 F325.59 F 33,100 W ∆Η = 0296.32 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 P2,425,255 W ∆Η = 3.55 951,463 W 190.37 h

128,069 W 73,452 W 1231.80 P 2,436,288 W ∆Η = 0525.46 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 ∆Η = 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 W432.49 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 HTD = 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 W356.85 F 315.67 F 313.82 F 281.11 F 214.20 F 150.69 F 117.48 F 97.59 F330.61 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 FDC = 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 F296.32 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

SPESJAE

SSR

2,3,4

HP TURBINE

MSEP111

MSEP112

MSEP111 DT

MSEP112DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STG RHTR111 DT

To Htrs.115-135

To LP Cond.

1STGRHTR

111

2STGRHTR

112

2STG RHTR112 DT

To Htrs.115-135

To LP Cond.

MSEP122

MSEP121

MSEP121 DT

MSEP122DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STGRHTR

121

2STGRHTR

122

2STG RHTR122 DT

To Htrs.115-135

To LP Cond.

1STG RHTR121 DT

To Htrs.115-135

To LP Cond.

To LPTCRV 456

To LPTCRV 123

REACT OR

HTR.115

HTR. 125

HTR.135

FP11

FP12

FP13

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

BP11

BP12

BP13

ToHtr. 124

ToHtr. 134

ToHtr. 114 From

Htr. 115

FromHtr. 125

FromHtr. 135

To HPCond.

To HPCond.

To HPCond.

To CRD

Inj. To MSDrn. Tk s.

CRD Flow

To Htrs.111-131

To LPCond.

COND.DEMIN.

To Htr.134

To Htr.133

To Htr.132To Htr.

131

LPCONDENSER

To Htr.124

To Htr.123

To Htr.122

To Htr.121

IPCONDENSER

To Htr.114

To Htr.113

To Htr.112

To Htr.111

HPCONDENSER

SprayPump

LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION3 3

7

7 7

7

89

1111

1313

8 9

1111

1313

8 9

1111

1313

CRV 1 CRV 6CRV 2 CRV 5CRV 3 CRV 4

CP11

CP12

CP13

2

1TO SJAE TO SSR MS BYPASS

3 4

AA

B B

A A

B B

A A

B B

Circ .W ater

In

Circ .W ater

Out

1Stg Rhtr.Drns.

From HPStg. 7

From HPStg. 7

From HPStg. 7

Moist.Sep. Drns.

FromLP Stg. 8

Moist. Sep.Drns.

FromLP Stg. 8

Moist.Sep. Drns.

1

1

1

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

SPE, SJAE Drns.

To LP Cond.

From SSR

Moist. Sep. Drn. Tk s. Cond. Dump

1Stg., 2Stg. Drn. Tk s. Cond. Dump

MS Bypass MS BypassHtr. Drns.

MS Bypass

Mak eup

ToHtrs. 115-135

Motor-Driv enFeed Pump

Motor-Driv enFeed Pump

Shaft-Driv enFeed Pump

Booster Pump

Booster Pump

Booster Pump

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

FromLP Stg. A

FromLP Stg. 8

FromLP Stg. A

FromLP Stg. A

Condensate Pump

Page 12: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 13: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

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 W156.83 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 = 154.081051.00 P 1280.57 H 0.56% 1280.57 H1190.37 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 P530.95 F 159.85 P 159.85 P 530.95 F525.46 h 430.86 F 430.86 F 525.46 h

1235.29 H 1,608,186 W 1235.29 H1083.99 H

178,530 W 178,530 W 178,530 W 178,530 W191,701 W 437.92 P 442.58 P 442.58 P 437.92 P 191,701 W525.46 h 453.56 F 1,608,186 W 453.56 F 525.46 h0 W 434.24 h 1083.99 H 434.24 h 0 W

1,407,738 W 1,407,738 W1,407,738 W 1190.27 H 1190.27 H1190.27 H 167.89 P 167.89 P 1,407,738 W

1190.27 H PB = 154.08 PB = 154.08PB = 923.60HB = 1190.37

178,530 W 4,623 W 4,623 W 178,530 W434.24 h 462.42 P 462.42 P 434.24 h

0 W 0 W33,100 W67.17 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 P337.57 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 H1215.47 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 H331.61 h 331.61 h 67.17 h 67.17 h

200,448 W 1,608,186 W 200,448 W337.57 h 1083.99 H 337.57 h

200,448 W 1,608,186 W 200,448 W0 W 337.57 h 1083.99 H 337.57 h 0 W67.17 h 67.17 h

400,895 W 227,318 W 400,895 W 1,471,955 W337.57 h 1083.99 H 337.57 h

127,801 W 0 W 0 W 29,267 W525.46 h

7,247 W 11,000 W119,020 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 W1083.99 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 PERFORMANCE1190.37 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 1.8022,462,401 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 993.26 994.15 998.36331.61 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 PERFORMANCEDC = 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 1.802326.63 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+09297.40 h 323,059 W 2,462,401 W ∆Η = 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 ∆Η = 0 3,017,444 W 7,420,304 W CIRC.WATER IN, F 50.00 61.84 73.52288.79 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 11.48525.46 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 17.82434.24 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 PTD = 5.61 F 1241.24 H 1116.86 H

2,462,401 W 2,462,401 W 2,462,401 W ∆Η = 3.55 TD = 6.84 F TD = 7.43 F TD = 4.83 F TD = 4.84 F357.81 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 ∆Η = 0 ∆Η = 0331.61 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 PDC = 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 F326.63 F 33,100 W ∆Η = 0297.40 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 P2,462,401 W ∆Η = 3.55 967,213 W 190.37 h

127,801 W 75,773 W 1231.80 P 2,473,435 W ∆Η = 0525.46 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 ∆Η = 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 W434.24 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 HTD = 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 W357.81 F 316.48 F 314.63 F 281.80 F 214.81 F 151.18 F 118.04 F 98.18 F331.61 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 FDC = 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 F297.40 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

SPESJAE

SSR

2,3,4

HP TURBINE

MSEP111

MSEP112

MSEP111 DT

MSEP112DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STG RHTR111 DT

To Htrs.115-135

To LP Cond.

1STGRHTR

111

2STGRHTR

112

2STG RHTR112 DT

To Htrs.115-135

To LP Cond.

MSEP122

MSEP121

MSEP121 DT

MSEP122DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STGRHTR

121

2STGRHTR

122

2STG RHTR122 DT

To Htrs.115-135

To LP Cond.

1STG RHTR121 DT

To Htrs.115-135

To LP Cond.

To LPTCRV 456

To LPTCRV 123

REACT OR

HTR.115

HTR. 125

HTR.135

FP11

FP12

FP13

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

BP11

BP12

BP13

ToHtr. 124

ToHtr. 134

ToHtr. 114 From

Htr. 115

FromHtr. 125

FromHtr. 135

To HPCond.

To HPCond.

To HPCond.

To CRD

Inj. To MSDrn. Tk s.

CRD Flow

To Htrs.111-131

To LPCond.

COND.DEMIN.

To Htr.134

To Htr.133

To Htr.132To Htr.

131

LPCONDENSER

To Htr.124

To Htr.123

To Htr.122

To Htr.121

IPCONDENSER

To Htr.114

To Htr.113

To Htr.112

To Htr.111

HPCONDENSER

SprayPump

LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION3 3

7

7 7

7

89

1111

1313

8 9

1111

1313

8 9

1111

1313

CRV 1 CRV 6CRV 2 CRV 5CRV 3 CRV 4

CP11

CP12

CP13

2

1TO SJAE TO SSR MS BYPASS

3 4

AA

B B

A A

B B

A A

B B

Circ .W ater

In

Circ .W ater

Out

1Stg Rhtr.Drns.

From HPStg. 7

From HPStg. 7

From HPStg. 7

Moist.Sep. Drns.

FromLP Stg. 8

Moist. Sep.Drns.

FromLP Stg. 8

Moist.Sep. Drns.

1

1

1

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

SPE, SJAE Drns.

To LP Cond.

From SSR

Moist. Sep. Drn. Tk s. Cond. Dump

1Stg., 2Stg. Drn. Tk s. Cond. Dump

MS Bypass MS BypassHtr. Drns.

MS Bypass

Mak eup

ToHtrs. 115-135

Motor-Driv enFeed Pump

Motor-Driv enFeed Pump

Shaft-Driv enFeed Pump

Booster Pump

Booster Pump

Booster Pump

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

FromLP Stg. A

FromLP Stg. 8

FromLP Stg. A

FromLP Stg. A

Condensate Pump

Page 14: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 15: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 16: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

No. Plant TYPE % Uprate Mwt Year Approved1 Braidwood 1 PWR 5 170 20012 Braidwood 2 PWR 5 170 20013 Browns Ferry 2 BWR 5 164 19984 Browns Ferry 3 BWR 5 164 19985 Brunswick 1 BWR 5 122 19966 Brunswick 2 BWR 5 122 19967 Byron 1 PWR 5 170 20018 Byron 2 PWR 5 170 20019 Callaway PWR 4.5 154 1988

10 Calvert Cliffs 1 PWR 5.5 140 197711 Calvert Cliffs 2 PWR 5.5 140 197712 Crystal River 3 PWR 0.9 24 200213 Diablo Canyon 1 PWR 2 73 200014 Duane Arnold BWR 4.1 65 198515 Farley 1 PWR 5 138 199816 Farley 2 PWR 5 138 199817 Fermi 2 BWR 4 137 199218 Fitzpatrick BWR 4 100 199619 Fort Calhoun PWR 5.6 80 198020 H. B. Robinson PWR 4.5 100 197921 Hatch 1 BWR 5 122 199522 Hatch 2 BWR 5 122 199523 Kewaunee PWR 6 99 200424 La SaIle 2 BWR 5 166 200025 La Salle 1 BWR 5 166 200026 Limerick 1 BWR 5 165 199627 Limerick 2 BWR 5 165 199528 Millstone 2 PWR 5 140 197929 Nine Mile Point 2 BWR 4.3 144 199530 North Anna 1 PWR 4.2 118 198631 North Anna 2 PWR 4.2 118 198632 Palo Verde 1 PWR 2 76 199633 Palo Verde 2 PWR 2 76 199634 Palo Verde 2 PWR 2.9 114 200335 Palo Verde 3 PWR 2 76 199636 Peach Bottom 2 BWR 5 165 199437 Peach Bottom 3 BWR 5 165 199538 Perry BWR 5 178 200039 River Bend BWR 5 145 200040 Salem 1 PWR 2 73 198641 Shearon Harris PWR 4.5 138 200142 St. Lucie 1 PWR 5.5 140 198143 St. Lucie 2 PWR 5.5 140 198544 Surry 1 PWR 4.3 105 199545 Surry 2 PWR 4.3 105 199546 Susquehanna 1 BWR 4.5 148 199547 Susquehanna 2 BWR 4.5 148 199448 TMI-1 PWR 1.3 33 198849 Turkey Point 3 PWR 4.5 100 199650 Turkey Point 4 PWR 4.5 100 199651 V. C. Summer PWR 4.5 125 199652 Vogtle 1 PWR 4.5 154 199353 Vogtle 2 PWR 4.5 154 199354 WNP-2 PWR 4.9 163 199555 Wolf Creek PWR 4.5 154 1993

Page 17: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 18: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 19: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 20: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

No. Plant TYPE % Uprate Mwt Year Approved1 ANO-2 PWR 7.5 211 20022 Brunswick 1 BWR 15 365 20023 Brunswick 2 BWR 15 365 20024 Clinton BWR 20 579 20025 Dresden 2 BWR 17 430 20016 Dresden 3 BWR 17 430 20017 Duane Arnold BWR 15.3 248 20018 Hatch 1 BWR 8 205 19989 Hatch 2 BWR 8 205 1998

10 Monticello BWR 6.3 105 199811 Quad Cities 1 BWR 17.8 446 200112 Quad Cities 2 BWR 17.8 446 200113 Vermont Yankee BWR 20 319 2005 (Expected)14 Waterford PWR 8 275 2005 (Expected)

Page 21: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 22: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 23: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 24: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation

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 W190.92 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 = 187.571050.00 P 1278.49 H 0.44% 1278.49 H1190.41 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 P533.37 F 194.60 P 194.60 P 533.37 F528.46 h 451.66 F 451.66 F 528.46 h

1242.32 H 1,944,385 W 1242.32 H1096.02 H

239,025 W 239,025 W 239,025 W 239,025 W187,808 W 536.68 P 542.39 P 542.39 P 536.68 P 187,808 W528.46 h 474.36 F 1,944,385 W 474.36 F 528.46 h0 W 457.97 h 1096.02 H 457.97 h 0 W

1,718,233 W 1,718,233 W1,718,233 W 1193.59 H 1193.59 H1193.59 H 204.39 P 204.39 P 1,718,233 W

1193.59 H PB = 187.57 PB = 187.57PB = 911.33HB = 1190.41

239,025 W 5,578 W 5,578 W 239,025 W457.97 h 566.70 P 566.70 P 457.97 h

0 W 0 W33,100 W75.77 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 P354.73 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 H1218.52 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 H349.60 h 349.60 h 75.77 h 75.77 h

226,152 W 1,944,385 W 226,152 W354.73 h 1096.02 H 354.73 h

226,152 W 1,944,385 W 226,152 W0 W 354.73 h 1096.02 H 354.73 h 0 W75.77 h 75.77 h

452,304 W 321,738 W 452,304 W 1,782,536 W354.73 h 1096.02 H 354.73 h

125,206 W 0 W 0 W 29,158 W528.46 h

8,200 W 11,000 W159,350 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 W1096.02 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 PERFORMANCE1190.41 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 2.3482,980,551 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 987.92 989.14 995.03349.60 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 PERFORMANCEDC = 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 2.348341.15 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+09312.58 h 392,011 W 2,980,551 W ∆Η = 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 ∆Η = 0 3,638,388 W 8,974,753 W CIRC.WATER IN, F 50.00 64.15 78.10304.51 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 13.71528.46 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 20.85457.97 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 PTD = 4.53 F 1239.22 H 1125.32 H

2,980,551 W 2,980,551 W 2,980,551 W ∆Η = 3.55 TD = 5.78 F TD = 5.85 F TD = 4.63 F TD = 4.71 F374.93 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 ∆Η = 0 ∆Η = 0349.60 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 PDC = 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 F341.15 F 33,100 W ∆Η = 0312.58 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 P2,980,551 W ∆Η = 3.55 1,174,890 W 190.41 h

125,206 W 107,246 W 1231.80 P 2,991,584 W ∆Η = 0528.46 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 ∆Η = 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 W457.97 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 HTD = 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 W374.93 F 331.73 F 329.81 F 295.79 F 225.14 F 159.30 F 125.62 F 106.84 F349.60 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 FDC = 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 F312.58 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

SPESJAE

SSR

2,3,4

HP TURBINE

MSEP111

MSEP112

MSEP111 DT

MSEP112DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STG RHTR111 DT

To Htrs.115-135

To LP Cond.

1STGRHTR

111

2STGRHTR

112

2STG RHTR112 DT

To Htrs.115-135

To LP Cond.

MSEP122

MSEP121

MSEP121 DT

MSEP122DT

BPInj. Flow

BPInj. Flow

To Htrs.114-134

To LP Cond.

1STGRHTR

121

2STGRHTR

122

2STG RHTR122 DT

To Htrs.115-135

To LP Cond.

1STG RHTR121 DT

To Htrs.115-135

To LP Cond.

To LPTCRV 456

To LPTCRV 123

REACT OR

HTR.115

HTR. 125

HTR.135

FP11

FP12

FP13

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

BP11

BP12

BP13

ToHtr. 124

ToHtr. 134

ToHtr. 114 From

Htr. 115

FromHtr. 125

FromHtr. 135

To HPCond.

To HPCond.

To HPCond.

To CRD

Inj. To MSDrn. Tk s.

CRD Flow

To Htrs.111-131

To LPCond.

COND.DEMIN.

To Htr.134

To Htr.133

To Htr.132To Htr.

131

LPCONDENSER

To Htr.124

To Htr.123

To Htr.122

To Htr.121

IPCONDENSER

To Htr.114

To Htr.113

To Htr.112

To Htr.111

HPCONDENSER

SprayPump

LP TURBINE LP SECTION LP TURBINE IP SECTION LP TURBINE HP SECTION3 3

7

7 7

7

89

1111

1313

8 9

1111

1313

8 9

1111

1313

CRV 1 CRV 6CRV 2 CRV 5CRV 3 CRV 4

CP11

CP12

CP13

2

1TO SJAE TO SSR MS BYPASS

3 4

AA

B B

A A

B B

A A

B B

Circ .W ater

In

Circ .W ater

Out

1Stg Rhtr.Drns.

From HPStg. 7

From HPStg. 7

From HPStg. 7

Moist.Sep. Drns.

FromLP Stg. 8

Moist. Sep.Drns.

FromLP Stg. 8

Moist.Sep. Drns.

1

1

1

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 9

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 11

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

FromLP Stg. 13

FromSSR

SPE, SJAE Drns.

To LP Cond.

From SSR

Moist. Sep. Drn. Tk s. Cond. Dump

1Stg., 2Stg. Drn. Tk s. Cond. Dump

MS Bypass MS BypassHtr. Drns.

MS Bypass

Mak eup

ToHtrs. 115-135

Motor-Driv enFeed Pump

Motor-Driv enFeed Pump

Shaft-Driv enFeed Pump

Booster Pump

Booster Pump

Booster Pump

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

1Stg Rhtr.Drns.

2Stg Rhtr.Drns.

FromLP Stg. A

FromLP Stg. 8

FromLP Stg. A

FromLP Stg. A

Condensate Pump

Page 25: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation
Page 26: 2005 ASME Power Conference Performance Considerations in Power Uprates of Nuclear Power Plants - A Case Study Sunder Raj Presentation