FENOC. March 9, 2001 PY-CEI/NRR-2551 L. United States Nuclear Regulatory Commission Document Control Desk Washington, D.C

Transcription

1 FENOC FirstEnergy Nuclear Operating Company Perry Nuclear 10 Center Power Road Plant Perry Ohio John K. Wood Vice President, Nuclear March 9, 2001 PY-CEI/NRR-2551 L United States Nuclear Regulatory Commission Document Control Desk Washington, D.C Perry Nuclear Power Plant Docket No Submission of Core Operating Limits Report Ladies and Gentlemen: Enclosed is a copy of the revised Cycle 9 Core Operating Limits Report (COLR) for Unit 1 of the Perry Nuclear Power Plant (PNPP). The COLR is submitted in accordance with Technical Specification Section 5.6.5, "Core Operating Limits Report." If you have questions or require additional information, please contact Mr. Gregory A. Dunn, Manager - Regulatory Affairs, at (440) Very truly yours, Enclosure cc: NRC Project Manager NRC Resident Inspector NRC Region III

2 PERRY OPERATIONS MANUAL Plant Data Book Entry PDB-FOO01 Page: i INFORMATION ONLY TITLE: FOR THE PERRY NUCLEAR POWER PLANT UNIT 1 CYCLE 9 (RELOAD 8) PDB - F0001 /Rev. 8 MPL: J1l EFFECTIVE DATE: SUMMARY OF LAST CHANGE: This incorporates the core thermal limits for Cycle 9. REFERENCES: PY-CEI-NRR-1104 L; PY-CEI-NRR-1157 L; PY-CEI-NRR-0529; PY-CEI-NRR-2420 L COMMITMENTS: L01462, L01960, L02362 PREPARED BY: Patrick J. Curran l/ ,I V wdate REVIEWED BY: Alla Cq APPROVED BY: R sponsible Manager/Director "/4WO Date TAB E, F, G, AND R USE ONLY PORC MEETING NUMBER: 01[- W4 ) Date APPROVED BY: 1 Manager, PNPPD Date

3 PDB-FOO01 Page: i INFORMATION ONLY PERRY OPERATIONS MANUAL Plant Data Book Entry TITLE: FOR THE PERRY NUCLEAR POWER PLANT UNIT 1 CYCLE 9 (RELOAD 8) PDB - F0001 /Rev. 8 MPL: Jll EFFECTIVE DATE: SUMMARY OF LAST CHANGE: This incorporates the core thermal limits for Cycle 9. REFERENCES: PY-CEI-NRR-1104 L; PY-CEI-NRR-1157 L; PY-CEI-NRR-0529; PY-CEI-NRR-2420 L COMMITMENTS: L0i462, L01960, L02362 PREPARED BY: Patrick J. Curran Date EFFECTIVE PIC's

4 PDB-FOO01 Page: 1 UNIT 1 INDEX Specification INTRODUCTION AND REFERENCES AVERAGE PLANAR LINEAR HEAT GENERATION RATE (CORRESPONDS TO TS 3.2.1) Page 3 5 Figure Flow Dependent MAPLHGR Factor (MAPFACf), Fuel Types GEl2 and GEl4 6 Figure Figure Figure Figure Figure Figure Figure Figure Power Dependent MAPLHGR Factor (MAPFACp), Fuel Types GEl2 and GE14 MAPLHGR Versus Average Planar Exposure, Fuel Type GEI2-PIOSSB399-16GZ-120T-150-T MAPLHGR Versus Average Planar Exposure, Fuel Type GEI2-PIOSSB399-14GZ-120T-150-T MAPLHGR Versus Average Planar Exposure, Fuel Type GEI2-PIOSSB369-14GZ-120T-150-T MAPLHGR Versus Average Planar Exposure, Fuel Type GE12-P1OSSB369-12GZ-120T-150-T MAPLHGR Versus Average Planar Exposure, Fuel Type GEI4-PlOSNAB415-12G T-150-T-3940 MAPLHGR Versus Average Planar Exposure, Fuel Type GEI4-PIOSNAB416-17GZ-120T-150-T-3941 MAPLHGR Versus Average Planar Exposure, Fuel Type GEI4-PlOSNAB416-17GZ-120T-150-T Figure MAPLHGR Versus Average Planar Exposure, Fuel Type GE14-PlOSNAB415-16GZ-120T-150-T

5 PDB-FOO01 Page: 2 UNIT 1 INDEX (Continued) Specification MINIMUM CRITICAL POWER RATIO (CORRESPONDS TO TS 3.2.2) Page 16 Figure Figure a Figure Figure Figure a Figure Power Dependent MCPR Limit (MCPRp), Fuel Type GE12 (Two Loop Operation) Power Dependant MCPR Limit (MCPRp) Fuel Type GE14 (Two Loop Operation) Flow Dependent MCPR Limit (MCPRf), Fuel Type GE12 and GE14 (Two Loop Operation) Power Dependent MCPR Limit (MCPRp), Fuel Type GE12 (Single Loop Operation) Power Dependant MCPR Limit (MCPRp) Fuel Type GEl4 (Single Loop Operation) Flow Dependent MCPR Limit (MCPRf), Fuel Type GE12 and GEl4 (Single Loop Operation) LINEAR HEAT GENERATION RATE (CORRESPONDS TO TS 3.2.3) Linear Heat Generation Rate of each Fuel Type 23 REACTOR PROTECTION SYSTEM INSTRUMENTATION (CORRESPONDS TO TS ) Simulated Thermal Power Time Constant OSCILLATION POWER RANGE MONITOR (OPRM) INSTRUMENTATION (CORRESPONDS TO TS ) ATTACHMENTS Attachment 1: Cycle 9 MCPR Limits Per Transient 26 PERRY UNIT 1 CYCLE 9

6 PDB-FOO01 Page: 3 INTRODUCTION AND REFERENCES INTRODUCTION This Core Operating Limits Report for PNPP Unit 1 Cycle 9 is prepared in accordance with the requirements of PNPP Technical Specification Administrative Controls The core operating limits presented were developed using NRC-approved methods (Reference 2). Results from the reload analysis for the General Electric fuel in PNPP Unit 1 for Cycle 9 are documented in References 3, 4, 19, and 20. The cycle-specific core operating limits for the following PNPP Unit 1 Technical Specifications are included in this report: 1. Average Planar Linear Heat Generation Rate (APLHGR) Limits for each fuel/lattice type, including the power and flow dependent MAPFAC curves with the single loop MAPLHGR reduction factor. (Technical Specification 3.2.1) 2. Minimum Critical Power Ratio Operating Limit including the power and flow dependent MCPR curves for Two Loop Operation and Single Loop Operation. (Technical Specification 3.2.2) For Single Loop Operation the MCPR operating limits are increased by (Reference 3) 3. Linear Heat Generation Rate (LHGR) Limit for each fuel type. (Technical Specification 3.2.3) 4. The simulated thermal power time constant. (Technical Specification , SR ) 5. Oscillation Power Range Monitor (OPRM) Instrumentation. (Technical Specification ) REFERENCES 1. Perry Nuclear Power Plant Updated Safety Analysis Report, Unit 1, Appendix 15B-Reload Safety Analysis. 2. "General Electric Standard Application for Reactor Fuel-GESTAR II", NEDE P-A-1 4 and NEDE P-A-14-US (US Supplement), June "'Supplement Reload Licensing Report for Perry Nuclear Power Plant Unit 1 Reload 8 Cycle 9", GE Document Jll-03754SRLR Rev. 0 (January 2001) 4. "Lattice Dependent MAPLHGR Report for Perry Nuclear Power Plant Unit 1 Reload 7 Cycle 8", GE Document Jll-03371MAP Rev. 0 (January 1999) 5. J. B. Hopkins (USNRC) to R. A. Stratman (Centerior), Amendment No. 61 to Facility Operating License NPF - 58, June 2, NRRCEI0719L <L01960> PERRY UNIT 1 CYCLE 9

7 PDB-FOO01 Page: 4 6. M. D. Lyster (CEI) to USNRC, Core Operating Limits Report Submittal (Cycle 4), May 22, CEINRRI495L <L01462> 7. Technical Specification 3.2.1, Average Planar Linear Heat Generation Rate 8. Technical Specification 3.2.2, Minimum Critical Power Ratio 9. Technical Specification 3.2.3, Linear Heat Generation Rate 10. Technical Specification , Reactor Protection System Instrumentation 11. Technical Specification 5.6.5, Core Operating Limits Report 12. Technical Specification , Safety Limit MCPR 13. GE Design Basis document -- DB , "Nuclear Design Basis - Core Design", Rev. 0, dated October Howard W. Bergendahl (FENOC) to USNRC, "License Amendment Request Pursuant to 10CFR50.90: Implementation of Power Uprate," PY-CEI-NRR-2420L, September 9, N. Amrhein (GE) to E. M. Root (CEI), "Revision 1 to Final GI-08 ACN: Power Uprate Transient Analysis," GE-PAIP-453, August 4, F. T. Bolger (GE) "Task Gl-08: Power Uprate Transient Analysis," GE-NE-A RI, Revision 1, August D. V. Pickett (USNRC) to J. K. Wood (FENOC), Amendment 112 to Facility Operating License NPF-58, June 1, R. Kingston to P. J. Curran, REK: (January 10, 2001), Off-Rated Limits for GE14,. Perry Cycle "Lattice Dependent MAPLHGR Report for Perry Nuclear Power Plant Unit 1, Reload 6 Cycle 7, GE Document J MAP, Rev. 0, August "Lattice Dependent MAPLHGR Report for Perry Nuclear Power Plant Unit 1, Reload 8 Cycle 9, GE Document J MAP, Rev. 0, January 2001.

8 PDB-FOO01 Page: 5 AVERAGE PLANAR LINEAR HEAT GENERATION RATE (TS 3.2.1) All AVERAGE PLANAR LINEAR HEAT GENERATION RATES (APLHGRs) shall not exceed the result obtained from multiplying the applicable MAPLHGR values* by the smaller of either the flow dependent MAPLHGR factor (MAPFACf) Figure or the power dependent MAPLHGR factor (MAPFAC,) Figure These applicable MAPLHGR values are: 1. Those for the respective fuel and lattice type as a function of the average planar exposure (as described by the NRC approved methodology described in GESTAR-II) or, 2. When hand calculations are required, the MAPLHGR as a function of the average planar exposure for the most limiting lattice shown in Figures through Figure for the applicable type of fuel.

9 PDB-F0001 Page: 6 Flow DeDendent MAPLHGR Factor (MAPFACA) Fuel Types GE12 and GEl Ed- M A P F A C f , GE14 - Clamped at 0.80 During SLO GEl 2 - Clamped at During SLO MAPFACf=MIN(1.0,0, F) 0.6, CORE FLOW (%RATED),F FLOW DEPENDENT MAPLHGR FACTOR (MAPFAC,) FUEL TYPES: GE12 and GE14 Figure

10 PDB-FO001 Page: 7 Power Dependent MAPLHGR Factor (MAPFAC.), Fuel Types GE12 and GE I 1 1 HIlMll I I I I II] i ii l l i l.0 I i l l I I!!~ ~ ~~ ~- U l M A P F A C P 0.9 I I I 38 %<P<=100%; All core flows MAPFACp=1o (P-100) 23.8%<=P<=38%; Core Flow <=50% 0i. I'T1[ jij I I I I I I I I I I I I I I I m I I IGE14 - Clamped at 0.80 Durins SLO I II ItI Itl I 'I 0.7 -II GE12- Clamped, at!!..!!!!! i!!!!0.77 During sl O! MAPFACp= (P-38) 23.8%<=P<=38%; Core Flow >50% 0 20 ;a CORE THERMAL POWER (%RATED),P POWER DEPENDENT MAPLHGR FACTOR (MAPFAC.) FUEL TYPES: GE12 and GE14 Figure

11 PDB-F0001 Rev. : 8 Page: 8 MAPLHGR Versus Average Planar Exposure, Fuel Type GEl2-PlOSSB399-16GZ-120T-150-T PERMISSIBLE REGION OF OPERATION S I I E12-PI10SSB399-16GZ-120T-150-T j Average MAPLHGR Planar Most Exposure Limiting (GWdIST) (kwltt) AVERAGE PLANAR EXPOSURE (GWd/ST) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE FUEL TYPE GE12-PIOSSB339-16GZ-120T-150-T Notes: Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 4. Figure

12 PDB-F0001 Rev. : 8 Page: 9 MAPLHGR Versus Average Planar Exposure, Fuel Type GE12-PlOSSB399-14GZ-120T-150-T PERM ISSIBLE RýEGION OF OPERATION SG3E12-P 10SS B399-14GZ-120T-150-T Z20- Z u 4.1 U.u ZPWJ.I WasU~~w AVERAGE PLANAR EXPOSURE (GWd/ST) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE FUEL TYPE GEI2-PlOSSB339-14GZ-120T-150-T ' Average Planar Exposure (GWd/ST) MAPLHGR Most Limiting (kwlf) F Notes: I. 2. Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 4. Figure

13 PDB-F0001 Rev. : 8 Page: 10 MAPLHGR Versus Average Planar Exposure, Fuel Type GE12-PlOSSB369-14GZ-120T-150-T OPERMISSIBLE AVERAGE PLANAR EXPOSURE (GWd/t) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE FUEL TYPE GEl2-PlOSSB369-14GZ-12OT-150-T GE12-PIOSSB369-14GZ-120T-1 50-T REGION OF ". OPERATION Average Planar Exposure MAPLHGR (kw/ft) (GWd/ST) Most Limiting Notes: Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 19. Figure PERRY UNIT 1 CYCLE 9

14 PDB-F0001 Rev. : 8 Page: 11 MAPLHGR Versus Average Planar Exposure, Fuel Type GE12-PlOSSB369-12GZ-120T-150-T OPERMISSIBLE REGION OF. OPERATION AVERAGE PLANAR EXPOSURE (GWd/t) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE FUEL TYPE GEI2-P1OSSB369-12GZ-120T-150-T GE1 2-P1 0SSB369-12GZ-120T-1 50-T Average Planar Exposure (GWd/ST) MAPLHGR (kw/ft) Most Limiting Notes: Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 19. Figure

15 PDB-F0001 Rev. : 8 Page: 12 MAPLHGR Versus Average Planar Exposure, Fuel Type GE14-PIOSNAB415-12G T-150-T ,0 - - GE14-PIOSNAB415-12G T"150-T *-,. --,_._ PERMISSIBLE 7.5 REGION OF OPERATION ' Average Planar EXPOSUre (GOWdSTJ o "a ,-00 T MAPLHG, Most Limiting (kw"ft) O AVERAGE PLANAR EXPOSURE (GWd/ST) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE FUEL TYPE GEl4-PIOSNAB G T-150-T-3940 Notes: Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 20. PERRY UNI :T 1 Figure CYCLE 9

16 PDB-FOO01 Rev. : 8 Page: 13 MAPLHGR Versus Average Planar Exposure, Fuel Type GE14-P1OSNAB416-17GZ-120T-150-T PERMISSIBLE REGION OF OPERATION SGE14-PIOSNAB416-17GZ-120T-150-T Average Planar Exposure Q IF MAPLHGR Most IUmiting (kwnqt) SAB AG AVERAGE PLANAR EXPOSURE (GWd/ST) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE FUEL TYPE GEI4-PlOSNAB416-17GZ-120T-150-T-3941 Notes: Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 20. Figure

17 PDB-F0001 Rev. : 8 Page: 14 MAPLHGR Versus Average Planar Exposure, Fuel Type GEI4-PlOSNAB416-17GZ-120T-150-T-3942 Average Planar Exposure (GWdI" L.OO &85 MAPLHGR *Most Umiffng (kwfft) S S AVERAGE PLANAR EXPOSURE (GWd/ST) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE Notes: FUEL TYPE GE14-PlOSNAB416-17GZ-120T-150-T-3942 Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 20. Figure

18 PDB-FOO01 Rev. : 8 Page: 15 MAPLHGR Versus Average Planar Exposure, Fuel Type GE14-PlOSNAB415-16GZ-120T-150-T-3943 Average Planmr Exposure (GWdISTf T MAPLHGR Nks Uming (kwift) S AVERAGE PLANAR EXPOSURE (GWd/ST) MAXIMUM AVERAGE PLANAR LINEAR HEAT GENERATION RATE (MAPLHGR) VERSUS AVERAGE PLANAR EXPOSURE Notes: FUEL TYPE GE14-PlOSNAB415-16GZ-120T-150-T-3943 Intermediate MAPLHGR values are obtained by linear interpolation between adjacent points. This curve is a composite of the most limiting enriched fuel lattices. For lattice specific values consult Reference 20. Figure PERRY UNIT 1 CYCLE 9

19 PDB-F0001 Page: 16 MINIMUM CRITICAL POWER RATIO (TS 3.2.2) The MINIMUM CRITICAL POWER RATIO (MCPR) shall be equal to or greater than the higher of the MCPRf and MCPRp limits at the indicated core flow, THERMAL POWER, and delta T* as specified in Figures and for Two Loop Operation and Figures and for Single Loop Operation. The MCPR Safety Limit for Cycle 9 is The MCPR Safety Limit for Single Loop Operation is 1.11 <TECHNICAL SPECIFICATIONS >. During Single Loop Operation, the Maximum Fraction of Limiting Critical Power Ratio (MFLCPR) shall be equal to or less than Use FTI-B12 Single Loop Operation implements this revised MFLCPR. NOTE 1: For Cycle 9 no change to MCPR limits is required for planned reduction of feedwater temperature to as low as 325.5'F. Final feedwater temperature may be reduced to F after all control rods are withdrawn at the end of cycle. NOTE 2: NOTE 3: Planned reduction of rated feedwater temperature from nominal rated feedwater temperature is not permitted during plant operation with the reactor recirculation system in Single Loop Operation. Figures , la, and , depict the limiting fuel type for Two Loop Operation. Figures , a, and depict the limiting fuel type for Single Loop operation. For fuel type specific values, consult Reference 3. Attachment 1 illustrates the limiting transient for each fuel type. The thermal limits calculation uses whichever is highest (MCPRf or MCPRp) for the given power and flow condition. NOTE 4: There are a total of 19 safety/relief valves, the two lowest setpoint valves are assumed to be out-of-service in the transient analysis. NOTE 5: The MCPR operating limit is increased 0.01 to account for the increase in the single loop MCPR safety limit with the reactor recirculation system in single loop operation. * This delta T refers to the planned reduction of rated feedwater temperature from nominal rated feedwater temperature (425.5'F), such as prolonged removal of feedwater heater(s) from service.

20 PDB-FOO01 Page: 17 Power Dependent MCPR Limit (MCPRP), Fuel Type GE12 (Two Loop Operation)* 2.9 LA MCPRp = [ (38 - P)j For 23.8 <= P <= 38%; Core Flow > 50% MCPRp = [ (38 - P)] For 23.8%<= P <=38%; Core Flow<=50% PERMISSIBLE H REGION OF OPERATION CPRp = 1.32[l (66.7 For 38% <P <=66.7%; All Core Flow 1.0 I I 1.4 MCPRp = 1.32[ (100 - P)J For 66.7% < P<= 100%; All Core Flows 1.3 I I I I I I I 1.2, D 100 CORE THERMAL POWER (%RATED),P POWER DEPENDENT MCPR LIMIT (MCPRp) FUEL TYPE GE12 (TWO LOOP OPERATION) * Refer to NOTE 3 on Page 16 Figure

21 PDB-FOO01 Page: 18 Power Dependent MCPR Limit (MCP,), Fuel Type GE14 (Two Loop Operation)* 2.5, m , I F MCPRp = [ (38 - P)] MCPRp = [ (38 P)] For 23.8%<= P <=38%; Core Flow<=50% Z.U PERMISSIBLE REGION OF -IOPERATION i , MCPRp = ( P)j For 38% < P <66.7%; All Core Flows 1.01 I I I I I II SMCPRp = (100- P}] For 66.7% < P<= 100%; All Core Flows I] 1.24" 0 m ;0 CORE THERMAL POWER (%RATED),P POWER DEPENDENT MCPR LIMIT (MCPRP) FUEL TYPE GE14 (TWO LOOP OPERATION) * Refer to NOTE 3 on Page 16 Figure a

22 Flow Dependent MCPR Limit (MCPRf), Fuel Type GE12 and GEl4 (Two Loop Operation)* PDB-FOO01 Page: , 1113., H i liper M ISSIBLE REGION OF OERATION M C P R f I 1-l40LMCPR1 = 1, , ~ ~ ~ ~ 1 L( ' For G~l4FueIGE14 Gl2 an 0LMCPR = * Refer to NOTE 3 on Page 16 CORE FLOW (%RATED),F POWER DEPENDENT MCPRLIMIT (MCPRf) FUEL TYPE GE12 and GE14 (TWO LOOP OPERATION) Figure

23 PDB-FOO01 Page: 20 Power Dependent MCPR Limit (MCPR), Fuel Type GE12 (Sinale Loon Operation)* 2., 2.4' MCPRp = [ (38 - P)] For 23.8 <= P <= 38%; Core Flow> 50% II_ lilillill MCPRp = [ (38 - P)] For 23.8% <= P<= 38%; Care Flow~= 50% 'i i l""ii 1.9. PERMISSIBLE I REGION OF OPERATION , II1 F % 4 Vt -I t-e 'PRp For 38% = < P<=66.7%; ( All Core Flows P)] MCPRp = P)] ] 4 For 66.71% < P <=1000%; All Core FlowIs I I I 17Ii I J I I rii I I I,. 0., s CORE THERMAL POWER (%RATED),P POWER DEPENDENT MCPR LIMIT (MCPR,) * Refer to NOTE 3 and NOTE 5 on Page 16 FUEL TYPE GEl2 (SINGLE LOOP OPERATION) Figure

24 PDB-F0001 Page: 21 Power Dependent MCPR Limit (MCPp),L Fuel Type GE14 (Sinqle Loop Operation)* A MCPRp = [ (38 - P)] For 23.8 <= P <= 38%; Core Flow> 50% 2.2. M C P R P MCPRp = [ (38 - P)] For 23.8% <= P<= 38%; Core Flow<= 50% i i i i i i i i i i i i i i 1 i i d i i PERMISSIBLE REGION OF [PERATON , MCPRp = ( P)] , 1.3, d 0 MCPRp C = (100 - P)] I For 6'6.7%' < P <--I00%; All Core Flows I I i I I T-T i F-T LL. i i CORE THERMAL POWER (%RATED),P POWER DEPENDENT MCPR LIMIT (MCPR,) FUEL TYPE GEl4 (SINGLE LOOP OPERATION) * Refer to NOTE 3 and NOTE 5 on Page 16 Figure a

25 Flow Dependent MCPR Limit (MCPRE), Fuel Type GE12 and GE14 (Single Loop Operation)* PDB-FOO01 Page: 22 H il1.8,ii I II I PERMISSIBE REGION OF4 OPERATION M C P R f M illge140olmcpr =1.37 MCPRf =MAX [OLMCPR,I Wil 1.3(( F)*(t.1;1.07)+0.01)] 11 For GE12 and GE14 Fuel _GEl20LMCPR =1.33" 1.2, a CORE FLOW (%RATED),F POWER DEPENDENT MCPR LIMIT (MCPRf) FUEL TYPE GEl2 and GEl4 (SINGLE LOOP OPERATION)* * Refer to NOTE 3 and NOTE 5 on Page 16 Figure

26 PDB-F0001 Page: 23 LINEAR HEAT GENERATION RATE (TS 3.2.3) The LINEAR HEAT GENERATION RATE (LHGR) shall not exceed: a kw/ft. for the following fuel types: I. " GE14-PIOSNAB415-12G T-150-T-3940 GEI4-PIOSNAB416-17GZ-120T-150-T-3941 GE14-PIOSNAB416-17GZ-120T-150-T-3942 GE14-PIOSNAB415-16GZ-120T-150-T-3943 (GE14) (GE14) (GE14) (GEl4) b kw/ft. for the following fuel types: GEI2-PlOSSB399-16GZ-120T-150-T GE12-PIOSSB399-14GZ-120T-150-T GE12-PIOSSB369-14GZ-120T-150-T GE12-PIOSSB369-12GZ-120T-150-T (GE12) (GE12) (GEl2) (GE12)

27 PDB-FOO01 Page: 24 REACTOR PROTECTION SYSTEM INSTRUMENTATION (TS ) The simulated thermal power time constant shall be 6+/-0.6 seconds.

28 PDB-FOO01 Page: 25 OSCILATION POWER RANGE MONITOR (OPRM) INSTRUMENTATION (TS ) 1. Confirmation Count Setpoint (Np = N 2 ): Amplitude Setoint (Sp): 1.09 Reference: Calculation: FMI2, Revision 0

29 Attachment 1 PDB-FOO01 Page: 26 - LAST Cycle 9 MCPR Limits * RWE M FLE, misorientated O FLE, mislocated A LFWH *SLRNBP@425.5 MFWCF@ GE14 GE12