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| issue date = 03/21/1987 | | issue date = 03/21/1987 | ||
| title = Reactor Containment Bldg Integrated Leakage Rate Test, Final Rept | | title = Reactor Containment Bldg Integrated Leakage Rate Test, Final Rept | ||
| author name = | | author name = Dillon P | ||
| author affiliation = EBASCO SERVICES, INC. | | author affiliation = EBASCO SERVICES, INC. | ||
| addressee name = | | addressee name = | ||
Line 14: | Line 14: | ||
| document type = TECHNICAL SPECIFICATIONS & TEST REPORTS, TEST REPORT | | document type = TECHNICAL SPECIFICATIONS & TEST REPORTS, TEST REPORT | ||
| page count = 125 | | page count = 125 | ||
}} | }} | ||
=Text= | |||
{{#Wiki_filter:ST. LUCIE PLANT UNIT NO. 1 NUCLEAR POWER PLANT FT. PIERCE, FLORIDA DOCKET NO. 50-335 REACTOR CONTAINMENT BUILDING INTEGRATED LEAKAGE RATE TEST Prepared for: | |||
FLORIDA POWER 6 LIGHT COMP%VS Approved by. | |||
Manager of Testing Date of Test Completion: | |||
March 21, 1987 8706f50244 870610 PDR ADOCK 05000335 p | |||
PDR'JLNO5 RL'IKT FtE MP7; | |||
v'~r I I | |||
TABLE OF CONTENTS Page I. INTRODUCTION AhD | |||
==SUMMARY== | |||
II. TEST DISCUSSION. ~ I ~ 3 A. Description of the 'Containment. | |||
B. Description of ILRT Instrumentation . | |||
: 1. Temperature Instrumentation. 6 | |||
: 2. Humidity Instrumentation . 6 | |||
: 3. Pressure Instrumentation . 7 | |||
: 4. Flow Instrunentation . 7 | |||
: 5. Instrument Selection Guide (ISG) Calculation . 7 C. Contaireent Pressurization Equipment............. 8 D. Description of the Computer Program.............. 8 E. Description of the Testing Sequence.............. 10 ANALYSIS AhD INTERPRETATION.................... 15 A. Instrumentation System Performance.............. 15 B. Temperature Stabilization Phase. 16 C. Leakage Survey Phase . 17 D. Integrated Leakage Rate Phase. 18 E. Verification Controlled Leakage Rate Phase.......... 19 IV. FIGURES 1 RTD Location and Volume 2 RH3 Location and Volume 3 Flow Diagram for Pressure Sensing and Controlled Leakage 4 Flow Diagram for Pressurization System V. APPENDICES A. Tabulation of "As-Found" and "As-Left" ILRT Results B. ILRT Computer-Generated Report | |||
: 1. Test Sequence | |||
: 2. Temperature Stabilization | |||
: 3. Integrated Leakage Rate Test | |||
: 4. Verification Controlled Leakage Rate Test | |||
: 5. Non-Test Period Data C. Local Leakage Rate Testing Conducted Since the Last ILRT | |||
t I+ | |||
I. INTRODUCTION AND | |||
==SUMMARY== | |||
A periodic Type "A" Integrated Leakage Rate Test (ILRT) was successf ully conducted on the primary containment structure of the Florida Power & Light Company St. Lucie Plant Unit No. 1 Pressurized Water Reactor. This test was perf ormed at full pressure in accordance with the facility Technical Specifications. | |||
This ILRT test was perf ormed using the "Absolute Method" of testing in accordance with the Code of Federal Regulations, Title 10, Part 50, Appendix J, "Primary Reactor Containment Leakage Testing for W ater-Cooled Power Reactors," in accordance with ANSI N45.4 1972, American National Standard, "Leakage Rate Testing of Containment Structures for Nuclear Reactors," and the methodology and calculational requirements of Topical Report BN-T(P-l, Revision 1, "Testing Criteria for Integrated Leakage Rate Testing of Primary Containment Structures for Nuclear Power Plants." The ILRT was performed at a pressure in excess of the calculated peak containment internal pressure related to the design basis accident as specified in the Final Safety Analysis Report (FSAR) and the Technical Specifications. | |||
This report describes and presents the results of this periodic Type "A" leakage rate testing, including the supplemental test method utilized for verification. In addition, Florida Power h Light Company performs Types "B" and "C" testing in accordance with the requirements of 10CFR50, Appendix J, and the Technical Specifications. The results of types "8" and "C" testing performed since the last ILRT are provided in this report. | |||
The resulting reported "as-found'ype "A" containment leakage at 40.7 psig is 0 335 percent of the contained mass per day. This value includes the difference between the as-found and as-left minimum pathway Types "B" and "C" local leakage measurements as required by the NRC IhE Information Notice 85-71. Th resulting reported "as-left" Type "A" containmnt leakage at 40.7 psig is 0.130 percent of the contained mass per day. The acceptance criteria | |||
for this test, as contained in the facility Technical Specifications is that leakage cannot exceed 0.375 percent of the contained air mass per day for either the "as-found" or "as-left" case. | |||
II. TEST DISCUSSION A. Description of the Containment The contairrnent vessel ccmpletely encloses the entire reactor and reactor coolant system to ensure no leakage of radioactive materials to the environment in the mlikely event of a hoss of coolant accident. | |||
The containment system design incorporates a free-standing containment vessel surrounded by a low-leakage concrete shield building. A four-foot annular space is provided between the outer wall of the containment vessel and the ironer wall of the shield building to allow filtration of containment vessel leakage during accident conditions to minimize off-site doses. | |||
The free-standing containment vessel is a two-inch thick right circular cylinder with a one-inch thick hemispherical dome and two-inch thick ellipsoidal bottom. The overall vessel dimensions are 140-f oot diameter by 232-foot high. The vessel wall thickness is increased to a minimun of four inches adjcent to all penetrations and openings. The vessel is fabricated of ASME-SA 516 Grade 70 fully killed pressure vessel quality steel plate. The net free volume of the containment vessel is 2.5 x 10 cubic feet. | |||
The contaiment vessel structure includes one personnel airlock, one emergency escape lock, one fuel transfer tube, one equipment maintenance hatch and one seal-welded construction hatch. All process piping and electrical penetrations are welded directly to the containment vessel nozzles with the exception of the main steam, main feedwater, and fuel transfer tube penetrations. These penetrations are provided with testable multiple ply expansion bellows to allow for thermal growth or building differential motion. | |||
The containment vessel is d signed and constructed in accordance with the requirements for Class MC vessels contained in Section III of the ASME Code (1971 Edition). The containment vessel is code stamped for a d sign internal | |||
contairment pressure of 44 psig at a temperature of 264 F. The containment vessel and all penetrations are designed to limit leakage to less than 0.5 percent by weight of the contained air per day at the above design conditions. The calculated peak accident pressure for the design basis accident for the St. Lucie Plant Unit No. l is 39.6 psig. | |||
B. Description of ILRT Instrumentation The containment system was equipped with instruoentation to permit leakage rate determination by the "absolute method." Utilitizing this method, the actual mass of dry air within the containment is calculated. The leakage rate becomes the time rate of change of this value. The mass of air (Q) is calculated according to the Perfect Gas Law as follows: | |||
Q = (P-Pv) V where: P - Containment Total Absolute Pressure Pv - Containment Water Vapor Pressure (Average) | |||
V Containment Net Free Volume R - Gas Constant T Containment Absolute Temperature (Average) | |||
The primary measurement variables required are containoent absolute pressure, containment relative hunidity, and containment temperature as a function of time. During the supplementary verification test, containment bleed-off flow is also recorded. | |||
Average containment absolute temperature is determined'y measuring discreet local temperatures throughout the containment and applying a mass and volume weighted averaging technique. The volune fraction for each sensor is determined based ~on solid geometrical calculations: | |||
where: T Containment Absolute Temperature (Average) | |||
Ti Local Temperature for Sensor i Vfi - Volune Fraction for Sensor i Average containment water vapor pressure is determined by measuring discreet local relative humidities throughout the containment, converting this to local vapor pressures using local group temperatures and applying a mass and volume weighted averaging technique. The volume fractions for the relative hunidity sensors are determined in the same manner as for the temprature sensors above. | |||
(~) j . Steam Table = | |||
TLocal. | |||
Pv j | |||
j where: Pv - Containment Water Vapor Pressure (Average) | |||
Pvj - Calculated Local Vapor Pressure for Sensor j VFj T | |||
Volune Fraction for Sensor j | |||
Contairment Absolute Temperature (Average) | |||
TLocalj Local Group Average Temperature iVear Sensor (XfH) - Relative Hunidity for Sensor j | |||
j j The Instrument Selection Guide or ISG is used to determine the ability of the instrumentation system to m asure the leakage rate. The calculated ISG for this test met all acceptance criteria for all test instrumentation systems. | |||
: 1. Temperature Instrumentation Forty precision Resistance Temperature Detectors (RTDs) were located throughout the containment to allow measurement of the weighted average air temperature. The location of the temperature detectors in the containment is depicted in Figure 1. Each RTD sensor was supplied with a calibrated resistance versus temperature curve accurate to +0.5 F. The sensitivity and repeatability of each RTD sensor is less than'+0.01 r. | |||
The signal conditioning circuit and readout for the RTD sensors was a Fluke 2280B data logger operating in a constant current mode. The operating 0 | |||
parameters for the RTD constant current card are accuracy of +0. 16 F and resolution of +0.01 0F. | |||
Each RTD was in-situ calibration checked after installation to verify correct operation. The data logger operating as a total loop with an RTD in 0 0 the circuit had a repeatability of +0.02 F and a resolution of +0.01 F. | |||
~ | |||
: 2. Humidity Instrumentation Nine Resistance Humidity Detectors (RHDs) were located throughout the containment to allow measurement of the weighted average containment vapor pressure. An additional RHD was installed in the containment as a spare, in case one of the original nine RHDs failed. The location of the RHDs in the containment is depicted in Figure 2. The calibrated accuracy of the RHDs is | |||
+2.5 percent RH, the repeatability of the RHOs is +0.25 percent RH, and the sensitivity of the RHDs is +O.l percent RH. | |||
The readout device used for the RHDs was a Fluke 22803 data logger. The repeatability of this device is +0.01 percent RH while the resolution of the device is +0.01 percent RH. | |||
Each RHD was in-situ calibration checked after installation to verify correct operation. | |||
: 3. Pressure Instrumentation Two precision quartz bourdon tube manometers were used to determine containment absolute pressure. The arrangement of tubing connections between the manometers and the contaireent is shown in Figure 3. Either manometer could be used as the primary pressure sensor for leakage rate calculations with the remaining sensor being considered as a backup. The calibrated accuracy of the manometers if +0. 015 percent of reading. The sensitivity, repeatability, and resolution of the manometers is +0.0015 psi. Binary Coded Oecimal (BM) output from both manometers was .connected to the Fluke 2280B data logger. | |||
: 4. Flow Instrumentation A variable area float-type rotameter was used to superimpose leakage during the supplementary CLRT. The piping connection between the rotameter and the containment is shown in Figure 3. The accuracy, repeatability, and sensitivity for the rotameter in units of SCFM and converted to equivalent leakage values is given below: | |||
Equivalent SCFM Leakage Peak Pressure Rotameter Accuracy +0. 20 +0. 0031 I/day Repeatability +0.05 +0.0008 I/day Sensitivity +0. 05 +0.0008 I/day | |||
: 5. Instrument Selection Guide (ISG) Calculation The Instrument Selection Guide is a method of compiling the instrumentation sensitivity and resolution for each process measurement variable used during the ILRT and evaluating the total instrunentation systems'bility to detect leakage rates in th range required. The ISG formula is described in American National Standard ANSI/ANS 56. 8-1981. | |||
Although the ISG is a very conservative measure of sensitivity, the general industry practice as for this test has been to require sensitivity at least four times better than the containment allowable leakage or ISG ~ 0.25La. | |||
The calculated ISG for the instrumentation used for this test was 0.041 percent per day, for an 8.25-hour test. The allowable valu for this test is 0.25l a or 0.125 percent per day, for an 8.25-hour test. The ISG calculation met all recommended criteria and demonstrated the ability of the ILRT instrumentation system to measure containment leakage with a sensitivity exceeding that required by the appropriate industry standards. | |||
C. Containment Pressurization Equipment The equipment used to pressurize the containment is shown in Figure 4. | |||
The ten oil-free industrial diesel-driven air compressors had a total nominal capacity of 11,000 ACFM. The compressed air was then routed to water-cooled aftercoolers, moisture separators, and refrigerant air dryers. This equipment assured that clean and dry air was used to pressurize the containment. | |||
D. Description of the Computer Program The Ebasco ILRT ccmputer program is an interactive program written specifically for fast, easy utilization during all phases of the ILRT and CLRT. The program is written in a high-level, ccmpiled, structured language and is operated on a portable CP/M-based microcomputer. The program has been verified and meets all requirements of the Ebasco Quality Assurance Program. | |||
As necessary, data entry and modifications are readily accomplished by the data acquisition team. In addition to extensive data verification routines, the program calculates, on demand, total tim and mass point leak rates as well as the 95 percent Upper Confidence Level for these leakage rate calculations. Calculations and methodology of the program are derived from American National Standard ANSI N45.4-1972 and Topical Report BN-TCP-1, Revision 1. Containment air mass is determined from mass-weighted sensor readings as described in EFRI report NP-2726, November 1982. | |||
Input data may be d leted for a given instrument in the case of a sensor malfunction. This deletion of a given instrument is performed on all samples in the data base. Weighting factors, if applicable, are then recalculated for the remaining instrument sensors of that type. | |||
Data evaluations are enhanced by the flexible display of either sensor f | |||
variables or various computed values in tabular or graphical orm on the computer screen or printer. Data is recorded on magnetic media to prevent loss during th testing. All data is stored on the computer system in use, with retrieval capability to any desired data base throughout the testing. | |||
Ancillary portions of the program assist the user in detection of temperature stabilization, determining the ILRT termination criteria, performing ISG calculations, performing in-situ instrum nt loop performance calculations and detecting acceptable superimposed CLRT leakage verification. | |||
Temperature, pressure, and humidity data are transmitted from the ILRT instrumentation system to the ccmp uter via an RS-232 link at 15-minute intervals. Computer verification and checking routines supplem nt data verification by the data acquisition team. Modifications are promptly made when errors are detected. Prior to issuance of this report, further extensive data verification was perf ormed. | |||
E. Description of the Testing Sequence During the current refueling outage, maintenance modifications to the containment electrical penetrations were made. Electrical penetrations C-8, D-l, 0-2, 0-3, and 0-9 were replaced. In addition, a spare penetration at location C-9 was converted to an operable electrical penetration. Local leakage rate Type "B" tests were performed cn these electrical penetrations, both prior to and following the replacement. | |||
All ILRT instrunentation was declared operable with perf ormance within manuf acturer' tolerances. Pressure sensor No. 2 was selected to be the primary pressure instrunent, as it had exhibited better repeatability and stability during the in-situ testing. | |||
Two penetrations were required to be in service during the ILRT and were not lined up to simulate accident conditions, P-523 (ILRT Pressure Sensing Line) and P-52E (ILRT Controlled Bleedoff Line). These two Il RT penetrations are used to conduct the test and cannot be positioned in the post-accident lin up. The minimum pathway leakage for those penetrations, determined during Type "C" local testing, is added to the measured ILRT leakage to account for these penetrations being in service during the test (refer to Appendix A). | |||
As a result of the Type "B" and "C" local leakage rate testing and repairs perf ormed during the ref ueling outage, additions to the "as-f ound" Type "A" ILRT results were necessary du to NRC Information Notice 85-71. | |||
These additions were for the reduction in minimun pathway leakage due to repairs. These leakage reductions have been corrected for uncertainties prior to being added to the measured ILRT values (refer to Appendix A). | |||
Preparations to pressurize the containment for the conduct of the ILRT included internal and external inspections of the containment structure; installation and checkout of the ILRT instrumentation; Types "B" and "C" Local Leakage Rate Tests; alignment of valves and breakers for test conditions; and the installation and checkout of the temporary pressurization facilities. | |||
These preparations were completed early on March 20, 1987. | |||
Pressurization of the containment structure started at 2120 hours on March 20, 1987, at an average pressurization rate of 3.4 psi/hr. | |||
Soon after the start 'f pressurization, two temperature sensors were beginning to exhibit anomolous behavior. TE-40 (Elevation 194') displayed erratic readings on the data logger ranging from an open connection (high resistance) to -453 0F. The diagnosed fault with TE-40 was loose connections at some point in the containment. Temperature sensor TE-40 was deleted from all computer calculations, and the remaining temperature sensors at that elevation received adjusted volume fractions. The ISG calculations presented in Section II.B.5 were performed to accommodate the deletion of TE-40. The ISG value remained at 0.041 percent per day, well below the limit of 0.125 percent per day for an 8.25 hour ILRT. | |||
Temperature sensor TE-36 (Elevation 171' was noted to be reading 0 | |||
approximately 7 F below the other temperature sensors at that elevation, but exhibited stable behavior and was following the trend of the other temperature sensors at that elevation. The decision was made not to officially delete temperature sensor TE-36 at this time, but to monitor its behavior during the balance of testing. | |||
During final stages of pressurization, leakage survey teams found evidence of small leaks at the leakage chases for the following penetrations: | |||
P-9 Instrunent Air P-14 Nitrogen Su)ply P-26 CVCS Letdown All leakage from these paths was estimated to be less than 5 percent of the ILRT acceptance criteria, and no repairs or adjustments were made to these penetrations. | |||
Pressurization was secured at 0957 hours on March 21, 1987, at a final pressure of 56.3 psia (41.6 psig). This pressure is 2 psi above the minimum test pressure to account for the expected pressure decrease due to temperature stabilization and to allow for some leakage margin during the test sequence. | |||
Data acquisition and analysis for the temperature stabilization phase was begun at 1000 hours on March 21, 1987. Plots of Containment Temperature and Pressure versus Time demonstrated smooth and expected behavior. The containment stabilization phase was declared acceptable at 1400 hours on March 21, 1987, after four hours of data acquisition. All stabilization criteria contained in Topical Report BN-TOP-1 were met, and integrated leakage rate measurements were initiated at 1400 hours on March 21, 1987. | |||
At 1645 hours, after recording two-and-three-quarter hours of leakage rate data, it was determined that the leakage was trending above the "as-found" ILRT acceptance criteria at a 95 percent Upper Confidence Level. This measured leakage was below the acceptance criteria for an "as-lef t" ILRT, however. Leakage survey teams were dispatched to identify and quantify the containment leaks. The survey t ams identif ied the three 3eaks previously discovered, plus the following small leaks: | |||
P-28B Pressurizer Sample P-56 Hydrogen Purge Make~ | |||
These leaks were determined to be of a small magnitude and in conjunction with the small leaks previously noted on P-9, P-14, and P-26, were not a cause of concern. No repairs or adjustments were made to any of the above leakage paths. | |||
At 2115 hours, the leakage survey teams found that the contairment emergency sump suction isolation valves MV-07-2A and 2B were leaking air into the safety injection system. As these valves are not containment leakage paths in accordance with the FSAR and Technical Specifications, a decision was made to manually tighten these valves with no penalty to the "as-found" ILRT values. These valves were manually tightened shortly af ter 2130 hours on March 21, 1987, and the ILRT calculations restarted at the next data set (2145 hours on March 21, 1987). | |||
After eight-and-one-quarter hours of ILRT data accumulation, all Topical Report BN-TOP-1 acceptance criteria for the ILRT were met with stable and predictable trends. The ILRT was officially terminated at 0600 hours on March 22, 1987. | |||
At 0606 hours, a superimposed flow equivalent to 0. 318 I/day was initiated using the rotameter. This flow was observed to be stable during the required BN-TOP-1 Controlled Leakage Rate Test (CLRT) stabilization period of approximately one hour. | |||
At 0700 hours, on March 22, 1987, the leakage rate measurements for the CLRT were initiated. Stable and acceptable leakage rate measurements were made for four-and-one-quarter hours. At 1115 hours, all Topical Report BN-TOP-1 criteria were met for the CLRT verification test, and the test was declared acceptable. | |||
Depressurization of the containment structure was initiated at 1120 hours on March 22, 1987, at a rate of 6 psi/hr. At 5.5 psig a containment entry was made during the depressurization to conduct the post-ILRT containment inspec-tion. The only damage observed included 11 broken light bulbs and hydraulic fluid leaking from two HVAC damper actuators. | |||
The ILRT test sequence was officially terminated at 1945 hours on March 22, 1987, with less than three-quarters of a psig in the containment. | |||
Subsequent to the ILRT, the containment sump suction valves MV-07-2A and 2B were reworked to adjust the motor torque switches. Proper closure of the valves was verified by functional testing. | |||
Inspection of the data from temperature sensor TE-36 (Elevation 171' after depressurization demonstrated the anomolous reading of 7 F below the other temperature sensors at that elevation persisted throughout the course of testing. The data from TE-36 exhibited stable behavior and was following the trend of the other temperature sensors at that elevation. It is hypothesized that a high resistance developed in the compensating lead for the RTO, thus causing the low reading. It was decided to delete TE-36 from all calculations as its readings could not be justified. All Temperature Stabilization, ILRT, and CLRT calculations were r vised following th deletion with no differences in the calculations noted. The ISG calculations of Section II.B. 5 were performed to accommodate the deletion of TE-36. The ISG value remained at 0.041 percent per day, well below the limit of 0.125 percent per day for an 8.25-hour ILRT. | |||
III. ANALYSIS AND INTERPRETATION A. Instrumentation S stem Performance Two of 40 temperature detectors failed during the initial stages of pressurization of the containment, as described in Section II.E. All of the remaining temperature detectors performed as expected with no anomolous behavior detected by the Ebasco ILRT computer program" error checking routines. This computer program also determines the in-situ temperature loop repeat ability which consists of process measurement variations as well as sensor noise. The average in-situ loop repeatability for the 38 operating temperature sensors was 0.009 F, with the worst sensor exhibiting an in-situ loop repeatability of 0.024 F. This perf ormance compares well with the vendor-claimed temperature sensor loop repeatability, excluding process variations, of 0.02 F as given in Section II.B.1. | |||
Ten relative humidity sensors were installed in the containment for the Il RT, even though the signal conditioning circuitry would only process signals for nine channels. The tenth sensor was maintained as a spare in the event one of the operating sensors failed. The nine operating channels for humidity operated as expected with no anomolous behavior detected by the ILRT computer program error checking routines. The average in-situ loop repeatability for the relative humidity sensors was 0.039 percent RH, with the worse sensor exhibiting an in-situ loop repeatability of 0.092 percent RH. This performance is substantially better than the vendor-claimed humidity sensor loop repeatability, excluding process variations, of 0.25 percent RH as given in Section II.B.2. | |||
Two pressure sensors were installed for the ILRT, with one utilized for testing and one considered as a spare. Prior to containment pressurization, computer analysis demonstated that pressure sensor 2 was more stable over an eight-hour period than the other sensor. During the ILRT, the in-situ pressure loop repeatability for both sensors was 0.0018 psi. This performance compares well with the vendor-claimed pressure sensor loop repeatability, excluding process variations, of 0.0015 psi as given in Section II.B.3. | |||
The variable area rotameter perf ormed as expected with no evidence of unstable readings, float sticking, or moisture in th float tube. | |||
In summary, all of the ILRT test instrumentation performed in an adequate manner to allow determination of containment leakage rates to the sensitivity required. | |||
B. Temperature Stabilization Phase Prior to pressurization of the contairment, the atmosphere was very 0 | |||
stable with an average temperature of 77. 38 F and a maximun spread of temperature from the highest reading sensor to, lowest reading sensor of 5.5 0F. During pressurization, the heat of compression of the air occurs mainly at the top of the containment with colder pressurization air being added at the bottom. At the end of pressurization, the average temperature 0 | |||
was 90. 67 F with a maximun spread of temperature frem the highest reading sensor to lowest reading sensor of 22.9 0F. | |||
The results of the four-hour temperature stabilization phase are presented in Appendix B.2. The acceptance criteria given in Topical Report BN-TOP-1, Revision 1, are described in Note 2 in that appendix. The data presented shows that a smooth and predictable temperature stabilization occurred. At the end of stabilization, the average temperature was 84.34oF with a maximum spread of temperatue from the highest reading sensor to the lowest reading sensor of 12.8 0F. This demonstrates that the heat sinks of concrete and steel in the containment were quickly returning the containm nt atmosphere to a stable condition. | |||
C. Leakage Survey Phase Small leaks were found on five penetrations by leakage survey teams during containment pressurization and temperature stabilization, as described in Section II.E. These leaks were, of such a small magnitude as to not impact acceptance of the leakage rate test and were not adjusted or repaired. | |||
Leakage rate measurements on the containment were begun after the temperature stabilization phase using the total tice leakage rate methods of Tooical Report BN-TG'-1, Revision l. As an additional diagnostic tool, mass point leakage rate measurements, as described in ANSI/ANS 56.8-1981, were conducted in parallel. The mass point leakage calculations are not sensitive to the starting point of the test and will detect changes in containment leakage more rapidly than the total time method. | |||
As presented in Appendix A, a containment measured leakage rate of no greater than 0.170 percent per day at the 95 percent upper confidence level was the maximum rate which would allow an acceptable "as-found" ILRT. After two-and-thr e-quarter hours of accumulating leakage rate data, both the total time and mass point leakage rate calculations were measuring leakage above the "as-found'LRT acceptance criteria. A sugary of these results at two-and-three-quarter hours is: | |||
BN-TOP-1 ANSI 56.8 Total Time Mass Point Simple Leakage Rate 0. 184 I/day 0.184 I/day Fitted Leakage Rate 0.206 I/day 0.199 R/day Upper Confidence Level 0.243 I/day 0.228 X/day Due to the short measurement interval, these leakage measurements should not be considered as final accurate measurements, but an indication of the order of magnitude of leakage present in the containment. Leakage survey teams were dispatched in a coordinated manner to identify the source of high "as-found" ILRT leakage. It should be noted that this measured leakage would pass an "as-left" ILRT as presented in Appendix A. | |||
Leakage measurements were continued as the leakage survey teams searched for the source of excessive "as-found" leakage. Computer analysis using both the total time method and mass point method demonstrated the presence of a steady leakage rate that would stabilize at a value b tween 0.28 I/day to 0.31 X/day. | |||
Leakage calculations at 2100 hours and 2115 hours on March 21, 1987, demonstrated increasing leakage values and a leakage survey team reported that a large leak on both containment emergency sump suction lines had been found by venting air from the outboard side of isolation valves MV-07-2A and 2B. | |||
Observations by the leakage survey team allowed for the possibility that these two emergency sump suction isolation valves were not fully closed. | |||
These two isolation valves are, not considered as potential leakage barriers in the Final Saf ety Analysis Report (FSAR) Sections 6.2.4. 2 and 6.2.4.4, as they will be water covered in a Loss of Coolant Accident and open during the recirculation phase of the transient. Any water leakage through these valves in the closed position will be returned to the containment by the Safety Injection System pumps. No potential containment leakage or off-site dose is credible due to seat leakage of these valves in the closed position. | |||
These two isolation valves were then manually closed with subsequent containment leakage rates significantly reduced as described in th next section. | |||
D. Integrated Leakage Rate Phase Leakage measurements were started after isolation of valves MV-07-2A and 2B at 2145 hours on March 21, 1987. Stable leakage rates were measured by both the total time method and mass point method. The total time BN-TCP-1 results for eight-and-one-quarter hours of leakage measurements are presented in Appendix B.3. A summary of the measured leakage by both methods after eight-and-one-quarter hours is: | |||
BN-TOP-1 ANSI 56.8 Total Time Mass Point Simple Leakage Rate 0. 102 I/day 0.102 X/day Fitted Leakage Rate 0.077 I/day 0.086 I/day Upper Confidence Level 0. 130 I/day 0.098 I/day The higher Upper Confidence Level of the BN-TOP-1 measurements is due to the nature of performing regression analysis on simple 3eakage rates instead of regression analysis on masses and the more conservative statistics utilized by BN-TG'-1. The measured leakage rates and upper confidence levels for both calculated methods were slowly decreasing with time. | |||
As all acceptance criteria for a Reduced Ouration BN-TCP-1 ILRT were met at eight-and-one-quarter hours as presented in Appendix B.2, the ILRT was declared acceptable. Appendix A presents the corrections to the measured ILRT leakage rates for local leakage rate measurements for both the "as-found" and "as-left" cases. | |||
E. Verification Controlled Leakage Rate Phase Subsequent to the acceptance of the ILRT results, a superimposed leakage equivalent to 0.318 percent per day was added to the existing containment leakage using the variable area rotameter. A one-hour stabilization period was allowed to lapse after addition of this leakage in accordance with the requirements of Topical Report BN-TOP-l. | |||
Leakage measurements were initiated to verify the results of the ILRT. | |||
The minimum duration for the Controlled Leakage Rate Phase was determined to be four-and-one-quarter hours in accordance with Topical Report BN-TCP-l. As presented in Appendix B. 4, the leakage measurements met the acceptance criteria for the verification phase. Leakage results for both the total time and mass point method is: | |||
8N-TOP-1 ANSI 56.8 Total Time Mass Point Simple Leakage Rate 0.312 I/day 0.312 I/day Fitted Leakage Rate 0.324 I/day 0. 320 I/day SECTICN IV FIGURES | |||
RTD LOCATION/VOLUME ST. LUCIE UNIT NO. 1 FLORIDA POWER & LIGHT COMPANY | |||
.3 RTD'S AT EL 194'OLUME 242,055 CU FT RTD 38-40 9 RTD'S AT ELEVATION 171'OLUME 453,235 CU FT RTD 29-37 10 RTD'.S AT ELEVATION 130'OLUME 669,627 CU FT RTD 9-18 10 RTD'S AT ELEVATION 84'OLUME 600,926 CU FT RTD 19-28 8 RTD'S AT ELEVATION 40'OLUME 534,157 CU FT RTD 1-8 | |||
RHD LOCATION/VOLUME ST. LUCIE UNIT NO. 1 FLORIDA POWER & LIGHT COMPANY 3 RHD'S AT ELEVATION 171'OLUME 1,049,347 CU FT RHD 7-9 3 RHD'S AT ELEVATION 84'OLUME 900,640 CU FT RHD 4-6 3 RHD'S AT ELEVATION 40'OLUME 550,013 CU FT RHD 1-3 | |||
~ ~ | |||
FLOW DIAGRAM ILRT PRESSURE SENSING & CONTROLLED LEAKAGE INST Pl INSIDE OUTSIDE CONTAINMENT CONTAINMENT 3/8" TUBING 1/2" TUBING (TYP.) | |||
3/8" X 1/2" EXP. | |||
P QUARTZ 52E BOURDON CONDENSATE POT TUBE MANO- TO ATMOS. | |||
(TYP.) | |||
METER | |||
~ | |||
QUARTZ VARIABLEAREA Pl BOURDON FI ROTAMETER TUBE LLR TEST MANO-1/2" DRAIN & TEST METER 1" PIPE I | |||
Fl P 1" X 1/2" RED. | |||
520 (TYP.) | |||
LLR TEST 1/2" DRAIN 5 TEST SEISMIC CLASS I | |||
~ | |||
FLOW DIAGRAM ILRT PRESSURIZING 8 DEPRESSURIZING SYSTEM 'O TO ATMOSFHE 4 E UNIT NO. 2 ILR1'ENETRATION 4 FIFE I | |||
I SEISMIC CIASSI tt'tECTACLE I Sl FIANCE ITYSI I I S 9 I I | |||
~ UND REMOTE I | |||
I 2 SYtASS r SLIND X LUI ~ DRAIN I X" LLR FOR ILRT I | |||
I I DRAIN OUTDOORS INSIDE OUTSIDE RINDS I AUXILIARY CONTAINMENT ICONTANMKNT SLDO. | |||
FPSIL ILRT DRYER TRAILER f | |||
FILTER I WATEROVT WATKR IN I REFRIO. WATER OVT I EWART MOISTURE I DRYER SKtAR I ATOR I AUTO ASTER I DRAIN COOLER I ITYFI I | |||
I ~ OST AUTO DIESEL DRIVEN F IL'TER DRAIN WATER IN INDUSTRIAL ITYtI WATER OUT OIL FREE I AIR COMPRESSORS I (11,000 CFM TOTAL) | |||
I AFTER I COOLER I | |||
I FILTER MOISTVRE I REFRIO. SKFAR. | |||
EWART ATOR I DRYER WATER IN I | |||
I WATER OVT WATER IN I | |||
L WATER OUT AN COOLED AfTER REF Rl 0. | |||
MANT COOLER ORTKR WATER OVT AUTO DRAIN ITYFI WATER IN AIR COOLED RtfNO. AFTKR KRANT COOLER DRYER MOISTINK SEtARATORS WATER FN | |||
SECTION V APPENDICES | |||
APPENDIX A TABlLATION OF "AS-FOUi G" AND "AS-l EFT" ILRT RESULTS | |||
APPENDIX A TABULATION OF AS FOUND AhD AS-LEFT ILRT RESULTS Correction of ILRT Results for "As-Found" Case In accordance with NRC IK Information Notice 85-71, the following additions are required to the ILRT results due to repairs and/or adjustments made due to Local Leakage rate testing during the 1987 Refueling Outage. The corrections include only repairs or adjustments made to containment leakage boundaries which were made prior to the ILRT. These corrections are th difference between the pre-repair and post-repair leakages calculated in the minimus pathway case and corrected for uncertainties in the measurem nts. | |||
Minimun Pathway ILRT Penetration Leakage Difference Uncertainty Correction P-10 Purge Exhaust 600 sccm 11.5 sccm 611.5 sccm P-ll Purge Supply 337,436 sccm 34,411.9 sccm 371,849,9 sccm P-68 Vacuum Relief 100 sccm 1.6 sccm 101.6 sccm The total local minimus pathway leakag plus uncertainty must be added for the penetrations which are in use during the ILRT and whose containment isolation valves are not tested: | |||
Total Minimun ILRT Pen tration Pathway Leakage Uncertainty Correction P-520 ILRT Test 0 sccm 1.6 sccm 1.6 sccm P-52E ILRT Test 250 sccm 11.5 sccm 261.5 sccm | |||
The total ILRT "as-f ound" correction can be found adding the above ILRT corrections (Note: A conservative simplification was made by not performing a root-mean-square summation of the local mcertainties.) | |||
Correction of ILRT results for "as-found" case 372,824 sccm or 0.205 X/day Measured ILRT leakage at a 95X UCL 0. 130 X/day Reported "as-found" ILRT results 0.335 X/day Acceptance Criteria (75X La) 0.375 X/day Correction of ILRT Results for "as-left" Case The only correction for the "as-lef t" ILRT case involves the penetrations which were in use during the test, P-520 and P-52E. From the above section, the ILRT "as-left" correction can be determined: | |||
Correction of ILRT results for "as-left" case 263.1 sccm or 1.4 x 10 X/day Measured ILRT Leakage at a 95X UCL 0.130 X/day Reported "as-left" ILRT results 0.130 X/day Acceptance Criteria (75X La) 0. 375 X/day | |||
APPENDIX B ILRT COMPUTER-GENERATEO REPORT | |||
CON TA X NMENT X NTEG RATED LEAKAGE RATE F XNAL, TEST REPORT 987 St. Lucre Uni t. No 1 Periodic Test. | |||
EB ASCO PLANT SE RV X CES X NC XLRT Test Services | |||
II RT TEST SEC)UENCE | |||
~ | |||
Luci e Un@ R No 3 Per xoUxc Te t. | |||
Segu e nce St.ar Sequence E ncfecl | |||
= | |||
= | |||
15 Hours t.ed 2191 4S ~/20/87 Hou rs 5/22/87 I | |||
EBASCO PLANT SERV CES INC ILRT Test. Services | |||
ILRT TESTING SEQUENCE 1987 St. Luci:e Unit 1 | |||
~ 59.5 I 54.5 Stabilization Leak Survey | |||
~ 49.5 ILRT | |||
~ 44.5 CLRT | |||
~ 39.5 Cy Cy Q- 34.5 | |||
~ 29.5 | |||
~ 24.5 | |||
~ 19.5 4 8 12 16 20 24 28 32 36- 40 44 48 Ebosco P 1ant Services Time in Hours | |||
TEMPERATURE STAB XLXZATXON MODE 987 S t Lucia Uni t. No 3 Perioclic Test. | |||
Sequence St.ar EnMeM t.ed 3 3 | |||
0 = OO W" OO Hour s 8/23 Hour /8? | |||
Z/R3 /8/ | |||
EBASCO PLANT SERVXCES XNC XLRT Test, Services | |||
St. Lucie 1, Periodic STABXLX7ATXON PERTOD STARTFD AT 10: 0 Hol)RS AN ~/21/87 TEMPERATURE STABXLXZAT'EON SAMPLE TXME AVF TEI~)P HOL) RL Y DELTA T HOURI Y DEl. TA T TNC) HR Df, l TA T NL)MBER HOURS DEG F FOR LAST .1 HR FOR LAST 2 HRS MI l'IUS ONE'R DEl TA T 1 O.oo 90.537 0.000 A.AOO 0.000 2 .25 89 040 | |||
. A.AQA O.QOO 0.000 50 BR ..1.20 0., 000 0.000 A.AOO 4 .75 87. 48A C) QC)0 QQQA A.QOA 5 1.AO 86.9RA -.>. 558 O.OAO Q.OAQ 6 1 .25 86.575 -2.464 A. QQC) Q.AAO 7 1.50 86.249 -.1 .871 0.000 Q.QOO | |||
.1 .75 8596o -1.517 A.AQO A.OOA 2.00 85 7?2 -1.257 -2.,408 1.150 10 2.25 85.506 -1 . 069 -1.767 .697 11 ?.50 85.3]4 935 -1 . 10,> .468 75 85. 1.>2 .882 -1. 174 . 34..) | |||
.1 .~ ,>, QA 84,957 -.765 -1. 011 . 246 | |||
~,1 4 5.25 84 . 783 .723 .896 .173 15 3.50 84.630 .684 .809 .1?6 16 3.75 84.482 .650 -.741 , 09.1 "1 7 4.AQ 84.>4 .614 .689 .075 l8 4.25 Bil 2A8 .576 .649 ,A74 19 4.50 84 . 073 .557 .620 .063 2A 4.75 8.>, 954 .527 .589 Oj, '1 21 5. 00 83.828 .515 .565 .o50 2? 5. 25 83.708 .500 .538 . 0<>8 55A Rc. 591 .482 -.52n . A.>8 NOTI";S-1 ) THF ONE I.IO(.JR AND TNO HOL) R DF, I. TA Tf.",I'1PI. RATURE VALI.JF.S ARF blOT VALID L)NTXL ONE HOLJR AND THO HOURS RFSPECT I VFI. Y HAVF.. PASSF.D XN THE TEST . | |||
: 2) THE STABXLX7ATXON CRXTERXA IS MET NHEN: | |||
THE HOURLY AVERAGE DFLTA T FOR THE PRFCFDXNG HOUR DTFFFRS FROM THE HOURLY AVFRAGE DFLTA T FOR THF PRECFDING Tldo HOURS BY I FSS THAN 0.5 DEGRFFS F OR | |||
- THF HOL) RL Y AVE RAGE DELTA T F OR THF, PRECEEDING 1 NO HOL) Rh XS L FSS THAI'I 1 . 0 DFGREES F . | |||
THF. TAP TI XZAT'ION PERXOD XS FOR A MXNXIRl)I1 OF FOUR Hol)R- . | |||
: 3) TI IF ">" INDTCATFS THAT THE STABXI, 17ATTON CRITERXA HAS BEFN I)ET. | |||
TENPERBTURE STAB ILIZFITIGN | |||
)987 Bt LUcie Unit 91 U | |||
C Q | |||
CR E3 C | |||
87 0 C | |||
L 0 0 | |||
Q M0 L | |||
e Q. | |||
0 E | |||
f-Stab l I I tg 81 5 | |||
Ebaaca Plant Ssrvlcss Ttma in Houre | |||
XLRT TEST NODE QR7 St; Lucia Uni t; No 3 Par ionic Test Seciu e nce St.ar Saciu ance t act 06 23 4G Hour s p/23. /B7 OO Hou r ~/ 22/ 87 | |||
= | |||
E nctec9 = | |||
EB ASCO PLANT SERV CES I X NC ILRT Test; Services | |||
St. Lucie 1 Periodic CONTAINMENT XNTEGRATFD LEAKAGE RATE TEST LFAKAGE RATE 1$ MEASURED USING THE ABSOLUTE METHOD AND I-COMPUTED USTNG THE TOTAL TI'ME METHOD 1'N STR1CT ACCORDANCE WITH TOPICAL REPORT BN-TOP-1 (REV 1) | |||
TEST PER1'OD STARTED AT 21: 45 HOURS ON o/21/S7 TEST CONDUCTED FOR a.25 HOUR, FREF., PACF VOLUME OF CONTAINMENT I 2,500000 CU FT CONTAINMENT WAS PRESSURXZFD TO 55.38 PSXA FITTED TOTAL TIME XLRT LEAKAGF RATE Lam ~ 077 -o PF R DAY UPPFR LIMXT OF 95. CONFTDENCF LFVFL UCL ..1.30 -', PE R DAY CONTAINMENT DESIGN I EAKAGE RATE La .500 -'ER DAY ILRT ACCEPTANCF CRITERIA 75'-o .375 - PER DAY | |||
BN-TOP-1 REDUCED DURATION ILRT TERMINATION CRITERIA | |||
-THF TRFND OF THE TOTAL. TIME CALCULATED LEAKAGE RATE SHALL INDICATF THAT THE MAGNITUDE OF THF LEAKAGE RATE IS TENDING TO STABILIZE AT A VALUE LFSS THAN OR EQUAL TO 75'-o OF La. | |||
Lam = .077 % PER DAY WTTH A NEGATIVE SKFW | |||
-AT THF END OF THE XLRT THE UPPER LIMIT OF THE 95% CONFIDENCE LEVEL SHALL BE LESS THAN OR EQUAL TO 75'-o OF La. | |||
UCL = .130 -o PER DAY | |||
-THE MEAN OF THE MEASURED LEAKAGE RATES OVFR THE LAST FTVE HOURS OR TWENTY DATA -ETS, WHICHEVER PROVXDES THE MOST POTNTS SHALL BE LESS THAN OR EQUAL TO 7 >% OF La. | |||
MEAN OF SIMPLE LEAKAGE F ROM SN1 12 TO SNl 32 = . 1 42 -o PER DAY | |||
DESCRT PTION OF VARIABLES AVE TFMP CONTAINMFNT MEAN TEMPERATURE CALCULATED FROM VOLUMETRICALLY WEXGHTED RTD SENSOR INDXCATIONS. | |||
PRFSSURE PRIMARY CONTAINMENT PRESSURE INDXCATION. | |||
VAPOR PRES CONTAINMENT VAPOR PRF,-SURE CALCULATED FROM VOLUMETRICALLY WEIGHTED HUMXDITYlDEWPOINT SENSOR INDICATIONS. | |||
LEAK SIM SIMPLE TOTAL TXME, MEASURED LEAKAGE RATE. | |||
LEAK FIT LEAKAGE RATE CALCULATED FROM FIRST ORDFR REGRESSION OF SIMPLE TOTAL TIME LEAKAGE RATE DATA. | |||
95<o UCL UPPER LIMIT OF THE 95 o CONFXDFNCE LEVEL OF FITTED LEAKAGE RATE DATA. | |||
AXR MASS CONTAINMENT AIR MASS. | |||
NOTE FOR TABULAR DATA | |||
: 1. TABI E VALUES OF ZERO SIGNIFY THE DATA XS NOT APPLICABLE TO THE CALCULATION. | |||
'REJECTED'IGNIFIES THE SAMPLE WAS RFJECTED. | |||
'DELETED'IGNIFIES THE -ENSOR WAS DELETED. | |||
NOTE FOR THE CURVES | |||
: 1. NUMBERS CLOSEST TO LEFT MARGIN ALONG ABSCISSA REPRESENT SAMPLE NUMBERS. | |||
: 2. NUMBERS CI OSEST TO ABSCISSA REPRESENT TIME FROM BEGINNING OF MODE IN HOURS. | |||
'E JECTED 'IGNIFIES THE SAMPLE WAS RF JECTED | |||
ILRT VARIABLE TABLE SUNNA RY AM TINE AVE TENP PRESSURE VAP PRES LEAK SIN LEAK FIT UOL ATR NABS HOURS DEG F PSIA PSIA %/DAY ~o/DAY <n/DAY LBS Bled 0.00 81.569 55.3750 . 3741 0.000 0.000 0.000 685680 | |||
~ 25 81.512 55.3680 . 3745 .263 0 000 0.000 685663 | |||
.50 462 55.3610 .3749 .345 0.000 0.000 685631 4 ~ 75 81.401 55.3550 .3756 .253 . 28>2 .970 685626 5 1.00 81.348 55.3490 .3771 .284 .282 .534 685599 6 1.25 81.300 55.3430 .3786 .318 .302 .473 685567 7 1.50 81.247 55.3360 ~ 3792 .330 . 31'9 ~ 448 685539 8 1.75 81.191 55.3300 .3792 .291 ~ 310 .422 685535 9 2.00 81.139 55 '240 .3787 258 . 291 .400 685533 0 2.25 2.50 8'94 55.3180 .3788 | |||
~ | |||
.260 .279 .378 685513 11 81.041 55.3120 ~ 3784 ~ 238 ~ 263 .357 685510 2.75 80.990 55.3060 .3781 .224 . 248 .337 685504 3.00 80.942 55. 3010 .3781 .207 .231 ~ 318 685503 3.25 80.888 55 '950 .3779 .196 .216 .299 685498 5 3.50 80.843 55.2900 ~ 3777 .185 ~ 202 ~ 281 685495 6 3.75 80.800 55.2840 .3775 .188 .192 .267 685479 17 4.00 80.751 55.2790 .3773 .175 ~ 181 .252 685480 8 4.25 80.704 55.2740 .3771 .165 F 170 .238 685480 9 4.50 80.656 55.2690 ~ 3770 ~ 156 .160 .225 685479 0 4.75 80. 613 55.2630 .3768 . 161. .152 .216 685462 | |||
~1 ~ | |||
5 00 F 80.569 55.2590 ~ 3766 .147 ~ 144 ~ 205 685470 5.25 80.520 55 '540 .3766 .14k .136 . 1'95 685469 5.50 80.482 55.2490 .3762 .140 ~ 129 .186 685460 | |||
: 5. 75 80.440 55.2440 .3762 . 140 ~ 123 .179 68545l 5 6.00 80.395 55.2390 ~ 3759 .134 . 117 .173 685450 6.25 80.354 55.2340 .3756 .112 167 685443 | |||
>7 6.50 80.313 55.2300 .3756 .127 .107 .l62 685445 | |||
)8 6.75 80.275 55.2260 .3754 .122 .102 156 685446 9 7.00 80.232 55. 2210 .3750 ~ 119 .097 .351 685442 0 7.25 80.196 55.2170 .3749 .116 .093 685441. | |||
>1 2 | |||
7 '0 7.75 | |||
: 80. 158 80.122 55.2130 55.2090 | |||
.3747 | |||
.3745 | |||
.112 .089 146 142 685440 | |||
~ 109 .085 . 138 685439 F 00 80.084 55 '050 .3743 106 .081 .134 8 '5 | |||
~ 685439 80.047 55.2OSO ~ 374l .102 .077 .130 685439 | |||
SENSOR .VOLUME F RACT IONS TEMPERATURE SENSORS 1 TO 5 ~ 0267078 ~ 0267078 ~ 0267078 .0267078 .0267078 6 TO 10 0267078 .0267078 .0267078 .0267851 .026785l ll TO 15 16 TO 20 | |||
~ | |||
~ 0267851 | |||
.0267851 | |||
.0267851 | |||
.0267851 | |||
.0267851 | |||
.0267851 | |||
.0267851 | |||
.0240370 | |||
.0267851 | |||
.0240370 21 TO 25 .0240370 .0240370 .0240370 .0240370 .0240370 26 TO 30 .0240370 .0240370 .0240370 .0226618 .0226638 31 TO 35 ~ 02266.18 .0226618 ~ 0226618 .0226618 .0226618 36 TO 40 n.nnooooo ~ 022663 8 .O484ll.O .0484110 o.oooonno HUMIDITY/DP SENSORS 1 TO 5 .0733350 .0733350 .0733350 .1200850 .1200850 6 TO 9 ~ 1200850 .1399130 .1399130 .1399130 TE:. VALUE OF ZFRO INDICATES A DELETED SENSOR. | |||
ILRT VARIASLE TABI E | |||
==SUMMARY== | |||
'AMPLE DELTA TENP 1 TEMP 2 TENP 3 TEMP TEI"IP 6 iUMGER HOURS DEG F DEG F DEG F DEG F DEG F 1 0.00 75.856 77 '37 75.908 76.318 75.687 75.451 2 .25 75.825 77 '26 75.908 76.329 75.656 75 '62 | |||
.50 75.825 77.0lS 75.908 76.329 75.678 75.442 4 .75 75.836 77.015 75.897 76 '18 75.678 75. 45.1 1.00 75 '45 77.026 75.908 76.329 75.678 75.462 1.25 75.832 77.035 75.906 76 '24 75.685 75.469 7 1.50 75.825 77. 035 75.888 76.318 75.678 75.462 1.75 75.825 77.006 75.877 76.306 75.698 75.462 2.00 75.843 77.001 75.906 76.324 75.696 75.449 10 2.25 75.836 77.026 75.897 76.318 75.698 75.462 l,l 2 50 F 75.825 77.015 75 '97 76.318 75.687 75.462 2.75 75.856 77 '06 75.897 76.318 75.698 75.462 13 3.00 75.825 77.006 75 '97 76.329 75.698 75.473 14 3.2S 75.845 77.006 75.897 76.318 75.698 75.473 15 3.50 75.836 76.963 75.908 76.318 75.69R 75 '62 16 3.75 75.845 77 006 75.897 76.318 75.710 75.473 17 18 4.00 4.25 75.825 75 '43 F | |||
76.984 76.990 75.908 | |||
: 75. 915 76 '18 76.313 75.721 75 '07 75.473 75.469 19 4.50 75.843 76. 990 75.906 76.313 75.696 75.480 2.0 4.75 75.836 76.972 75 '08 76.318 75 '.10 75.493 21'2 5.00 75.845 76.984 75.908 76.318 75.721 75.473 5.25 75.820 76.970 75 '15 76 '24 75 '16 75.480 5.50 75.845 76.963 75.90S 76.318 75.721 75.484 24 5.75 75.856 76.972 75.908 76.338 75.721, 75.504 76.3lS | |||
'5 6 .00 75.836 76.963 75.908 75.732 75.493 26 6.25 75.867 76.963 75 '08 76.318 75.732 75.493 27 6.50 75.845 76.952 75 '97 76.329 75.732 75.493 28 6.7S 75.836 76.952 75.908 76.329 75.741 75.504 29 F 00 75.820 76.970 75.906 76.324 75.728 75.502 30 7.25 75.843 76 '48 75.895 76.304 75.739 75.502 31 7.50 75.845 76.941 75.90S 76.318 75.741 75.4S4 32 7.75 75.836 76.941 75.908 76.329 75. 74.1 75.504 8.00 75.843 76.928 75 '15 76.313 75.750 75.491 34 8.25 75.836 76.941 75.888 76.3lS 75.741 7S.S04 | |||
Il..RT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA TEMP 7 TEMP 8 TEMP 9 TEMP 10 TEMP 1.1, TEMP 12 UM6E R HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 75.625 75 '68 83.536 83. 454 83.696 $ 3.433 2 .25 75 '25 75.379 83.451, 83.35$ $ 3.580 $ 3.337 | |||
.50 75.637 75.3SS 83.364 $ 3.272 83.516 83.261 4 ~ 75 75.625 75.379 83.236 83.176 83.40$ 83.J76 5 1.00 75.625 75.388 83.171 83.102 83.335 $ 3.091 6 1 ~ 25 75.634 75.3$ 6 83.073 83.012 S3.268 82.992 7 1.50 75.625 75.36$ 83.0J3 82.92J. 83,163 82.929 8 1.75 75.637 75.3$ 8 82.92$ 82.856 83..112 82.833 9 2.00 75.634 75.386 82.83$ 82 766 83.011 82.766 | |||
'67 | |||
~ | |||
10 2.25 75.637 75.388 82 $ 2 694 $ 2.940 $ 2.694 11 2.50 75.637 75 '79 82 6S2 | |||
~ | |||
~ | |||
$ 2.620 82.866 82.609 12 2.75 75.625 75.3$ $ 82.606 82 544 82.7$ 1 $ 2.535 | |||
'37 | |||
~ | |||
13 3.00 75 75.3SB 82.552 82.470 $ 2.70S 82.470 14 3.25 75.637 75.400 82.490 82.385 $ 2.62J S2.394 15 F 50 75.648 , 75 '88 82.402 82.331 82.556 82.342 16 3.75 4.00 75.637 75.659 75.388 $ 2.329 82 '46 82.493 $ 2.266 17 75.400 82.2$ 6 82.192 82.429 $ 2.204 1$ | |||
19 4 '5 4.50 75.646 75.646 75.397 7S.3$ 6 82.20$ $ 2.125 82.362 $ 2.125 82.134 $ 2.071 82.286 82.060 P.O 4.75 75.637 75.400 $ 2.0$ 3 82.01J 82.226 $ 2.011 QJ,'2 F 00 75.64$ 75.388 82.009 Bl . 946 82.1$ 3 Bl.946 5.25 75.646 75.397 SJ .942 SJ .890 82.J]6 $ .1 . 879 5 50 F 75.648 75.411 81.870 81,.818 82 056 | |||
~ 81 . 838 5.75 75.659 75.411 BJ.$ 28 SJ .764 81, 991 $ 1.773 25 6.00 75 '59 75.411 81.774 SJ .721 8,1.. 926 BJ.722 26 6.25 75 '37 75.400 $ 1.721 81.645 $ 1.864 $ 1,66$ | |||
27 28 6.50 6.75 75.64$ | |||
75 '48 75.411 75.411 8'56 | |||
$ 1.624 81.603 81.822 81..603 | |||
$ 1.549 BJ .779 SJ . 550 29 7.00 75.646 75.397 81 .557 8.1 .493 81.710 $ 1. 494 30 7.25 75.623 75 397 SJ .493 SJ . 450 BJ . 6('~8 BJ .451 31 7.50 75.637 75.411 Sl. 475 81 399 $ 1. 6J,9 32 7 | |||
'5 | |||
,00 75.64$ | |||
75.634 75.4ll 75.397 81 . 399 | |||
~ | |||
$ 1.356 $ 1.565 | |||
$ 1. 4 11 | |||
$ 1.357 81.354 81.300 81.51$ 81.301 8.25 75.637 75.411 $ 1.303 81.249 81. 469 81.261 | |||
XLRT VARXABLE TABLE $ UMMARY NPLE DELTA TEMP 13 TEMP 14 TENP 15 TEMP 16 TEMP J7 TFMP J 8 JMPE R HOUR$ DEG F . DEG F DEG F DEG F DEG F DEG 1 0 00 F 83.497 83.534 83. 447 83.598 $ 3.590 83.539 2 .25 83.410 83.438 83.3S1 83.502 83.493 83.443 F 50 83.325 83.353 83.277 83.394 83.406 83.367 4 ~ 75 83.240 83.256 83.190 83.329 83.320 63.271 5 1.00 83.166 83.180 83.094 83.233 83. 246 83. J 97 1.25 83.077 83.101 83.027 83.166 $ 3.157 83.108 7 1.50 $ 3.005 83.009 82.924 83.063 83.085 83.025 8 1.75 82.92n 82.944 82.848 83.009 83.000 82.940 9 2.00 82.842 $ 2.846 82 772 | |||
~ 82.911 82.92J 82.862 10 2.25 82.770 82 783 | |||
~ 82.700 82.848 82.849 82.781 11 2.5Q 82.,694 82.709 82.635 82.7S5 82.773 82.705 12 2.75 82.632 82.633 82 550 | |||
~ 82.709 82.699 82.641 13 3.00 82.547 82.S59 62.486 82.613 82.614 82.556 14 3.2S 82.471 82.485 82. 421 82.559 $ 2.549 82.493 15 3.SQ 82.406 82.431 82.347 82.486 82.486 $ 2.428 16 3.75 82.3S4 82.35S S2.282 82.42J. 82 42J | |||
~ 82.363 17 4.00 82.267 82.292 S2.20$ 82.347 82.356 82.290 16 J9 4 '5 4.50 82.200 | |||
'46 82 225 | |||
~ 82.1SQ 82.289 S2.2$ 8 82.223 82 82 159 | |||
~ 82.076 82.226 82.223 $ 2.J69 2n 4.75 $ 2.086 82.099 82.036 82. J 66 82. 174 $ 2.097 5.00 82.032 82.045 81.962 82.089 82. 100 $ 2.044 23 5 '5 5.50 8'54 81.905 81.976 8'95 82.033 82.042 81.977 SJ.915 $ 1.835 SJ.982 81.992 BJ'. 936 2-4 5.75 8.1 .851. 8.1 . 863 8.1 . 781 81. 9.1.9 81.927 BJ.674 25 6.00 81.798 SJ .798 81.727 81.877 SJ .$ 73 BJ,. 820 26 6.25 81.744 $ 1.7S6 Sl.674 81.812 81.811 81.755 | |||
'27 6.5n 81. 6$ J, 81.702 .620 BJ .747 BJ .766 $ 1.702 28 6 '5 7.00 81.628 81.570 Bl 648 | |||
~ | |||
$ 1.592 BJ 81.566 61.705 81.714 S.l.. 648 | |||
: 81. 51J BJ.637 81.656 SJ .6Q3 30 7.25 81.538 S1.55$ 81.457 SJ.595 81.602 81.550 31 7.50 SJ .4$ 9 BJ,. 49$ SJ .417 81.546 Sl..564 SJ.498 3~ 7.75 81.436 Sl . 455 81.363 81.501. $ 1.510 81.456 8.00 BJ .400 81.399 81.307 $ 1.456 SJ . 463 81.400 34 S.25 81.339 81.359 61.267 8'0S 8.1.4J.4 81.360 | |||
ILRT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA TEMP 19 TEMP 20 TEMP 21 TEMP 22 TEMP 23 TEMP 24 MEfE R HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 82.S30 82.541 82.820 82.800 8'92 83.538 83.005 82.907 2 ~ 25 82.650 83.442 83.005 82.907 | |||
.50 82.530 82.795 S2.634 83.395 82.927 82.871 4 | |||
5 | |||
.75 1.00 82.48$ | |||
$ 2i392 82.777 82.746 82.607 82.585 | |||
$ 3.400 | |||
$ 3.292 8'66 82.$ 44 82 810F | |||
$ 2.757 6 1.25 $ 2.347 82.692 82.522 83.230 82.844 82.746 7 1.50 82.3.18 82 692 | |||
~ 82.596 83.196 82.759 $ 2.703 8 1 75 | |||
~ 82.295 82.596 82.531 83.080 82.694 82.660 9 F 00 $ 2.260 82.S53 82.4$ 0 83.038 S2.620 82.629 10 2.25 $ 2.253 82.531 82.513 $ 2.962 $ 2.609 82.575 3,1 2.50 82.233 82.488 82.500 82.$ $ 8 82.544 82.544 3.2 2 'S 82.399 82.457 8'03 82. 83 2 82.502 82.530 13 3.OO 82.3,90 82.414 82.381 82.73$ 82 459 82.479 34 15 3.25 3.50 82.134 82.072 8'27 82.330 82.685 $ 2.428 82.436 82.31S 82.372 82.620 82.374 82.371 36 3.75 $ 2.QJS 82.273 82.372 82.577 82.352 $ 2.360 17 4.00 82.029 $ 2.168 82.330 S2.492 82.299 82.297 18 a.25 81.982 82.222 82.200 8'50 82.236 $ 2.244 39 2Q 4.50 | |||
'5 81.928 81.879 82.134 Sled | |||
$ 2.049 Sled 82.168 | |||
$ 2.126 8'85 $ 2.225 Sled 82.190 4 $ 2. 33.1 $ 2..160 82.379 21'2 5.00 S1.826 82.049 82.092 82.278 $ 2.129 82. J.14 5.25 83 .770 83 .964 82.050 $ 2.204 $ 2.064 82.071 5 50 F 81. 761 81.942 -"82.007 82.153 82.010 S2 029 | |||
~ | |||
24'6 5.75 83.709 $ 1.888 83.953 82.10$ 83.96$ $ 3 .975 6.0Q 83.656 81.792 81.$ 79 82.032 83.905 81.964 6.25 Sl.622 81.771 81.846 83.970 81.863 $ 3 .930 27 6.50 81.559 $ 1.738 81.761 $ 1.936 $ 1.$ 18 $ ,1,. $ 58 28 6.75 $ 3.526 706 83.707 83.$ 73 81.764 $ 3 .836 7.00 S1.459 664 $ 1.707 81.820 713 Sl .773 30 7.25 81.436 81.633 81.644 81.777 $ 3.6SO $ 3 .740 31 7.50 81.398 81 588 F 81.579 81. 744 81.637 $ 3 .697 32 7.75 83 .356 81.525 81.514 S1.670 83.595 81.675 8.00 | |||
$ .25 81.309 81.491 81.494 81.617 81 '41 83.. 643 81.271 81.483 81.461 $ 3 .594 81.4$ 7 $ 3 .567 | |||
ILRT vARIABLE TABLE sUNNARY ANPLE DELTA TEMP 25 TENP 26 TEMP 27 TENP 28 TENP 29 TEMP 30 | |||
! UJ18ER HOURS DEG F DEG F DEG F DEG F DEG F DEG F 0.00 82.244 83.009 S0.969 83.132 83.443. 83.801 | |||
~ 25 82.224 82.957 80.946 83.058 83.377 83.714 | |||
.50 82.197 83.060 80.973 83.013 83.298 83.624 | |||
.75 82.224 S2.849 80.915 82.982 83.204 83.555 1.00 82 '70 82.892 80.893 82 '62 83.308 83.458 1.25 82.128 83.042 80.946 82.866 83.023 83.371 7 1.50 82.159 82. 93 2 80.904 82.920 82,949 83.2S6 8 1 ~ 75 82.106 82.838 80.969 82.747 82.873 83.232 9 2.00 82.148 Bled 82.849 80.808 82.770 82.765 83.147 10 2.25 82.128 82.807 80.754 82.779 82.723 83.071 33 2.50 82.074 82.807 80.732 82.674 82.638 02.986 32 2.75 82.085 82.710 80.700 82.640 82 '53 82. 90,1 13 3.00 82.063 82.710 80.647 82.578 82.488 82.847 34 3.25 83 .967 82.614 80 562 | |||
~ 82.524 82 414 F 82.773 35 3.50 998 82.569 80.540 82.470 82.349 82.697 I | |||
16 3.75 81.967 82.4s4 80 434 82.448 82.307 82.632 37 4.OO 81.967 82.421 80.423 82.374 82 21.1 | |||
~ 82.580 le 4.25 8.1, . 924 82.398 80.347 82.341 82. 146 82.504 19 4.50 83.. 924 82.356 eo.3n5 82.245 82.083 82.439 20 4.75 81..860 82.291 80.2S5 82.224 82.029 Br2. 386 5.00 83 .806 82.228 80.209 82.360 81 '64 82.3 3 22 5.25 8.1.. 744 82.163 80.189 82 '95 81.911 82.269 23 r?4 5.50 5.75 81.797 81.764 82.098 82.044 | |||
: 80. 3,13 80.059 82.032 82.010 8'46 81.761 82 '04 82.150 25 6.no 81.656 82.n33 80.028 83.956 81.729 82.088 26 6.25 81.656 S.1.. 959 79.974 81.903 81.676 82.045 27 6.50 83 ~ 614 81.905 79.932 81.853 83 .622 83 .991 28 6.75 81.560 8.1 . 862 79.889 81.797 8.1.. 580 81.927 29 7.00 83.509 81. 809 79.802 83 .764 83 .535 81.884 30 3.1 7 '5 7.50 81.486 e,l .390 81.766 83.723 79.793 79.739 81.701 83.657 81.472 83 .443 81.830 81,,777 32 7.75 S.no 81.368 | |||
'48 81.670 81.627 79 '06 79.655 81 '05 81.365 | |||
: 81. 322 83.. 734 | |||
.693 81 8) 57% 83 8.25 83..3nb 81..573 79.601 81.509 81.. 280 81,. 638 | |||
ZLRT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA TEMP 31 TEMP 32 TEMP TEMP 34 TEMP 35 TEMP 36 UMBER HOURS DEG F DEG F DEG F DEG F DFG F DEG F 1 0.00 81.965 83.1S4 83.410 Bl.474 83.373 DELETED 2 .25 81.889 83.110 83.304 81.389 83.288 DELETED | |||
.50 81.800 83. 03 9 83 224 | |||
~ 81.288 83.230 DELFTED | |||
.75 81.708 82.93$ 83.132 81.205 83. 3 38 DFLETED 5 1.00 81.624 82.853 83.047 Bl.1.19 83. 042 DCLFTFD 6 1.25 81.548 82.757 82 951 | |||
~ Bl.054 82.977 DELETED 7 1.50 81.452 82.669 82.8$ 6 80..969 82.880 DELETED 8 1.75 81.378 82.618 82.801 80.873 82.S06 DELFTED 9 2.00 81.302 82 510 | |||
~ 82.716 80.799 82.710 DELETED 10 2.25 2.50 81.229 82 445 | |||
~ 82.640 $ 0.7ll 82.656 DELETED 11 81.144 82.349 82.S75 80.637 82.580 DEI ETED 12 2.75 Bl.079 82.284 82.501 80.583 82.484 DELETED 13 3.00 81.003 82.222 82 428 | |||
~ 80 487 | |||
~ 82.441 DELETED 14 3.2S 80.941 82. 3 57 82.352 80. 433 82.356 DELETFD 15 3.50 80.865 82.060 82.287 80.348 82.303 DELETED 16 3.75 80.803 82.018 82.213 80 294 | |||
~ 82.238 DELETED 17 4.00 80.738 81 .942 82.148 $ 0.229 82.153 DElETFD 18 4.2S 80.684 81.879 82.0$ 5 80.144 87.079 DELETED 19 4.50 80.600 81.803 82.021 80.079 $ 2.036 DFLFTED 20 4.75 5.00 80.546 S0.481 83 .749 81.686 8'56 81.893 80.016 81.949 DFLETED 21'2 79.974 ,81.906 DELETED 5.25 $ 0.428 81.644 Bl .828 79.897 Bl . 841 DELETED 5.50 80.374 81.568 81.775 79.844 81.779 DELETED 24 5.7S 80.321 81.503 81.721 79. 781 $ 1.714 DELETED 25 26 6.00 6.25 80.258 80.205 81.449 81.656 79 '27 81.671 DELETED 81.398 81 .602 79.662 83 .595 DEL E TED 27 6.50 80-151 81.353 81..551 79.619 83 .552 DELETED 28 6.75 80.109 Bl .301 S1.506 79.566 Bl . 499 DELETED 29 7.00 SO.OSS 81.248 81.455 79.512 81.456 30 7 '5 7.50 79.991 79.937 81.183 81.129 Bl. 401 79.458 Bl .394 DELETFD DELETED 33 81.356 79.415 BI..329 DELETED | |||
&2 7.75 79.906 81.098 81.294 79.361 81.297 33 34 8.00 8.25 79.852 79 '99 81.044 80.990 Sly 2S1 | |||
$ 3 .19$ | |||
79 'l9 79.276 8,1,. 255 | |||
$ 1. 20,1 DFLETED DFLETED DELETED | |||
I ILRT VARIABLE TABLE SIJMNARY ANPLE DELTA TEMP 37 TENP 38 TEMP 39 TEMP 40 tJMBER HOURS DEG F DEG F DEG F DEG F 1 0.00 83.364 83.268 83. 453 DELETED 2 .25 83.26S 83.1S3 83.365 DELETED | |||
~ 50 83.190 83.0'94 83.256 DELETED 4 .75 83.087 83.002 S3.173 DELETED 5 1.00 82.999 82.915 83.088 DELETED 6 1.25 82 '14 82.841 83.003 DELETED 7 | |||
8 1.50 1.75 82.841 82.753 82.745 82.669 8'27 DELETED 82.e42 DELETED 9 2.00 2.25 82.691 82.606 82 '77 DELETED 10 82.603 82.519 82.703 DELETED 11 2.50 82.530 82.457 82.607 DELETED 12 2.75 82.456 82.372 82 '42 DFLETED 13 3.00 82.391 82.296 82.479 DFLETED 14 3.25 82.326 S2.231 82 '92 DELETED 15 3.SO 82.252 82.157 82 '38 DELFTED 16 17 3.75 4.00 82.187 | |||
: 82. l 14 82.104 82 '65 DELETED S2.030 82.200 DELETED 18 4.2S 82.049 81.965 82.146 DELETED 19 4.50 4.75 81 .995 81.900 82 '61 DELETED 20 81.921 81.837 82.007 DELETED | |||
~g v 5.00 81.868 81.784 81.945 DELFTFD 22 23 5.25 5.50 8'03 83 .749 83 .708 81.891 DELETED 81.665 81.837 DELETED 5.75 Sl . 695 81.612 81.772 DELETED 25 6.00 81.631 81 '47 81.719 DELFTED 26 6.35 81.579 81.484 81.665 DELETED A7 6.50 81.525 81 431 81. t'>13 DELETED 28 6.75 81.481. 81.377 81.558 DELETED 29 F 00 81.418 81 .323 81.515 30 31 7 '5 F 50 81.364 83.322 81.292 81.462 DEI.ETED DELETED 81.216 81.408 DELETFD 32 7.75 81.268 81.18S 81.365 DELETED 8.00 Sl . 226 S1.131 81.312 DELETED 34 8.25 8.1 . 172 81.077 81.260 DELETED | |||
ILRT VARIABLE TABLE | |||
==SUMMARY== | |||
SAMPLE DELTA PRES 1 PRES 2 HUM 1 HUM 2 HUM HUM UMBER HOURS PSIA PSIA RH RH ~o RH RH 1 0.00 55.3580 55.3750 S3.34 56 85 F 56.96 66. 45 2 ~ 25 55 '510 55.3680 53.54 57.03 57.22 66.59 | |||
~ 50 | |||
.75 SS.3440 55.3380 55.3610 55.35SO 53.78 53.99 57.19 57.37 57 '4 57.55 66.89 67,68 5 1 ~ 00 55.3310 55.3490 54 14 F S7.54 57.74 70.09 6 1.25 S5.3250 S5.3430 54.29 57.70 57.90 72.71 7 | |||
8 1.50 1.75 55.3180 55.3120 55.3360 55.3300 54.49 54.70 57 '6 5$ .03 58 '0 5$ .10 73.98 74.07 9 2.00 55.3060 55.3240 54.87 58.22 58.29 74.15 10 2.25 55. 303 0 5S.3180 ll 12 2.50 2.75 55 '940 SS.2890 55.3120 SS F 55.24 08 58.38 58.54 58.47 5$ .60 74.26 74.13 S5.3060 S5.38 SA.70 5$ 76 74.23 13 F 00 55.2830 55.3010 55 56 F 58.84 58.99 74.31 14 3.25 55.2770 55.2950 55.77 59.03 59.02 74.71 15 16 3.50 3.75 55.2720 5S.2660 55 2900 55.2840 55 '7 56.06 59.17 59.26 74. 75 | |||
, 59.42 S9. 17 74.81 17 4.00 55.2610 55.2790 56.27 59.61 59.54 75.10 18 19 4.25 4.50 55.2560 55.2510 55.2740 55.2690 56.41 56.59 59 '2 60.01 59.98 60.08 75.04 75.46 20 4.75 55.2460 55.2630 56.71 60.23 60.42 75.26 01-. 5.00 55.2410 55.2590 56.88 60. 4.. 60.5$ 75.51 Pg+ 5.25 55.2360 55.2540 57.07 60. 61 60.82 75e74 A. 3 S.SO 55. 233 0 55.2490 57.2L 60.79 61. 04 75.70 24 25 | |||
~ | |||
5.75 6.00 55.2270 S5.2220 55.2440 55.2390 57.36 57.53 60.99 61.17 63.30 61.31 75 '2 75.96 6.25 SS.2180 55 '340 57.66 61.36 61.44 76.07 27 6.50 55.2130 55.2300 57.85 61.56 61.43 76.13 28 6.75 55.20'90 5S.2260 57.93 61.73 63 .65 76.20 29 7.00 55.2050 5S.2210 58.08 61.91 62.01 76.17 30 7.25 5S.2010 55.2170 58.24 62.08 61.93 76.26 31 7.50 55 1970 55.2130 58.47 62.26 62.22 76.27 A2 7.75 55.1930 55.2090 58.67 62.43 62.3d 76.24 33 8.00 55.1890 SS.2050 58.85 62.60 62.40 76.32 8.2S SS.l850 55.2010 59. 03, 62.75 62.63 76.34 | |||
ILRT VARIABLE TABLE | |||
==SUMMARY== | |||
ANPLE DELTA HUM 5 HUM 6 HUN 7 HUN 8 HUN IVMSER HOURS RH -o RH RH RH RH 1 0 00F 76.91 73. 84 74. 94 74.62 75.27 2 .25 77.17 74.37 75.04 74.68 75.34 | |||
.50 | |||
.75 77 '2 78.08 74 '1 74.83 75.20 74 '9 75.44 4 75.18 74.85 75.50 5 | |||
6 1.00 1.25 78.35 78.28 74.93 75.05 75 '7 75.38 74.93 7S.56 74.96 75.62 7 1.50 78.37 75.12 75.39 75.04 75.68 8 1.75 78.71 75.20 75.51 7S.13 75.77 9 2.00 78.66 75.18 75.50 75.09 75.75 10 11 2.25 2 '0 78.67 78.8l 75.32 75.39 75.57 75.67 75 '2 75.24 75 88 F | |||
75.91 12 2 '5 78 '8 75.44 75.68 75.33 75.93 13 3.00 78.87 75.47 75.73 75.38 76.04 15 3.25 3.50 78 85 78.79 75.53 75.57 75 '8 75.90 75 45 75.48 76.07 76.13 16 3.75 78 '1 75.58 75.90 75.57 76.20 17 4.00 78.73 75.61 75 '2 75.61 76.27 18 19 4.25 4.50 78 '3 78.79 75.64 75 '8 75 '6 76.03 75.65 76.32 75.64 76.37 20 4.75 78.78 75.74 76.17 75.71 76.42 p] | |||
22 5.00 5.25 78.77 78.86 75.73 75.74 | |||
: 76. 16 76.21 75 '3 75 88 F | |||
: 76. 49 76.53 d3 5.50 78 84 75.77 76.20 75.87 76.55 c)4 25 5.75 F 00 78 78. | |||
'2 F | |||
'94 | |||
: 75. 81 | |||
: 75. 79 76.26 76.36 75 '3 76 '2 75.98 76.66 26 6.25 78.86 75.79 76.40 75.99 76.61 27 6.50 78.99 75.84 76.48 76.10 76.75 28 6.75 78.98 75.84 76.50 76.06 76. 8 1. | |||
29 7 F 00 78.95 75.85 76.48 76.13 76.79 30 7.25 79.00 75.90 76.57 76. 15 76 85 F | |||
31 7.50 79.01 75.87 76.61 76.22 76.90 32 7.75 79.06 75.93 76.65 76.20 76.94 33 8.00 79 '6 75.93 76.68 76.26 76.96 34 8.25 79.12 75.94 76.71 76.29 76 '8 | |||
ILRT AIR MASS I 987 S t. Luc i.e Un i t MSXG C | |||
O | |||
~SKX a | |||
0 1 2 3 4 5 6 Ebasco Plant Bervlcss T l me ln Hours | |||
ILRT CDMPLITED LERKRBE RRTES 1887 8 t. Lux i e Un i t 0.5 | |||
+ Sllrtpl8 LBQkQQB RQtB Q Fitted Leakage Rate 0.4 | |||
+ | |||
+aQ | |||
~ 0.3 + Q QOQQ+ Q y+Q | |||
~Q | |||
+Q Q | |||
~ 0.2 +~ Q Q | |||
<g++~~ | |||
D + | |||
r QQ QQ | |||
+g~ ++~ | |||
~ 0.1 Q | |||
0.00 2 3 4 5 6 Ebosco Plont Bervlcaa Time ln HoUra | |||
W ILRT LEHKHBE RHTES RELHTIVE TO LINITS t QS7 S t LUt: i 8 Lln i t ) | |||
C3 D G 0.9 O Fitted Leakage Rate D Upper Confidence Limit 0.8 0.7 2 0.6 DBBtgn LBQkGQB RQCB CLQ3 0.5 D 0.4 S | |||
O-D 8 I I OMQb I 8 LBQkQQB RQ48 | |||
~ 0.3 GOGO 000 00 D D | |||
00 0 DD 0.2 00 GG 0000 DDD DDDDDD OOG 0.1 OOOOOGOO 0.0 0 1 2 3 4 5 6 7 8 0 Ebost:o Plant Bsrvicas Time in Houre | |||
I P' | |||
lI | |||
~ | |||
ILRT VE IGHTED HVERHBE TEMPERHTLIRE | |||
)987 St. LUcie Unit 82.0 81.8 81.6o 0. | |||
0, | |||
; 81.4 0. | |||
O. | |||
81 .2 0. | |||
0. | |||
81.0 0-0. | |||
0. | |||
00 80.8 0. | |||
L, 0 0. | |||
~ 80.6 O. | |||
0.0 80.4 0~ 0. | |||
0. | |||
80.2 0. | |||
0-C 0.0 80 '0 2 3 -7 Ebosco Plant Services Time in Hours | |||
.k ILRT t:ONTR INHENT ABSOLUTE PRESSURE | |||
) 987 St. LUc: i e Unit 55.40 55.38~ | |||
+. | |||
+ | |||
+. | |||
+. | |||
+. | |||
, 55.34 '+. | |||
+. | |||
~ 55.32 +.'+. | |||
C +.'+. | |||
+.'+. | |||
, 55.30 +. | |||
+. | |||
55.28 +. | |||
+. | |||
+. | |||
+Qq 55.26 +. | |||
+. | |||
+. | |||
55.24 +4 | |||
+Q q +. | |||
+~q | |||
+ Q+ | |||
+Q q | |||
200 3 2 | |||
Ebasco Plant Services Time tn Houra | |||
H P | |||
lf rr I | |||
'T 4 | |||
ILRT MEIBHTED HVERHBE VHPGR PRESSURE | |||
)987 St. Lucie Un) t 0.400 0.395 | |||
~ 0.385 0.380 IF'~ | |||
Fi +> +~+~+~+e ~ | |||
yr | |||
+-+-K-%-y; ~ @.+ . | |||
+ | |||
I 0.375< K-K | |||
~ 0.370 L | |||
f 0.365 0.360 0.355 0 7' 1 2 3 4 5 6 Ebosco Plant Services Time in Houra | |||
.1 j | |||
J I | |||
CLRT TEST NODE t | |||
987 St Lucre Uni No 1 Periodic Te t Sequence Star Sequence Ended ted 07 3 1 | |||
= | |||
= | |||
OO Hours 3 j'22('87 3 S Hours 6/22/87 ESASCO PLANT SE RV X CES | |||
~ X NC XLRT Test Services | |||
St. Lucie 1 Periodic CONTAINMENT INTEGRATED LEAKAGE RATE TEST SUPPLEMENTAL VERIFICATION TEST LEAKAGE RATE XS MEASURED USING THE ABSOLUTE METHOD AND XS COMPUTED U - ING THE TOTAL TIME METHOD XN STRICT ACCORDANCE WITH TOPTCAL REPORT BN-TOP-1 (REV. 1) . | |||
TEST PERIOD STAR~ED AT 7: 0 HOURS ON Z/22/87 TFST CONDUCTED FOR 4.25 HOURS FREE SPACE VOl UME OF CONTAINMENT XS 2,500000 CU FT CONTAINMFNT WAS PRESSURIZED TO 55. 18 PSXA FITTED TOTAL TIMF XLRT LEAKAGE RATE Lam . 077 ~ PE P. DAY CONTAINMENT DESIGN LEAKAGE RATE La .500 ~ PER DAY SUPE RXMPOSED CLRT LEAKAGE RATE Lo 3] 8 o PER DAY FITTED CI RT TOTAL TIME LEAKAGE RATE Lc .324 ; PER DAY I | |||
Lo + Lam La/4 =< Lc =< Lo + Lam + La/4 | |||
.i18 + .077 .125 =< .324 =< .318 0 .077 + .125 | |||
.270 =< .324 =< .520 | |||
DESCRIPTION OF VARIABI ES AVE TEMP CONTAXNMENT MEAN TEMPERATURE CALCULATED FROM VOLUMETRICALLY WEIGHTED RTD -ENSOR INDXCATION-. | |||
PRESSURE PRIMARY CONTAXNMENT PRESSURE XNDICATION. | |||
VAPOR PRES CONTAINMENT VAPOR PRESSURE CALCULATED FROM VOLUMETRICALLY WEIGHTED HUMIDITY/DEWPOXNT SENSOR INDICATIONS. | |||
LEAK SIM SIMPLE TOTAL TIME MEASURED LEAKAGE RATE. | |||
LEAK FXT LEAKAGE RATE CALCULATED FROM FIRST ORDER REGRFSSXON OF SIMPLE, TOTAL TINE LEAKAGE RATE DATA. | |||
95'. UCL UPPER LIMIT OF THE 95~ CONFIDENCE LEVEL OF FITTED LEAKAGE RATE DATA ~ | |||
AIR MASS CONTAINMENT AX R MASS. | |||
NOTE FOR TABULAR DATA | |||
: 1. TABLF VALUES OF ZERO SIGNIFY THE DATA IS NOT APPLICABLE TO THE CALCULATION. | |||
: 2. 'REJECTED* SIGNIFIES THE SAMPLE WAS REJECTED. | |||
: 3. 'DELETFD' IGNIFXES THE -ENSOR WAS DEI ETED. | |||
NOTE FOR THE CURVFS | |||
: 1. NUMBERS CLOSFST TO LEFT MARGIN ALONG ABSCISSA REPRESENT SAMPLE NUMBFRS. | |||
: 2. NUMBERS CLOSEST TO ABSCISSA REPRESENT TIME FROM BEGINNING OF MODE XN HOURS. | |||
'REJECTED'GNXFXFS THE SAMPLE WA REJECTED. | |||
I l | |||
CLRT VARIABLE TABLE SUMNARY SAN TINE AVE TENP PRESSURE VAP PRES LEAK SIN LEAK FIT UCL AIR NASS HOURS DEG F PSTA PSIA -"/ DAY r/DAY ~/DAY LRS 1 0.00 79.903 55.1790 .3734 0.000 o.ono 0.000 685356 2 .25 79.864 55 '730 .3730 .305 0.000 0.000 685334 | |||
.50 79.831 55.1680 .3730 .289 0.000 0.000 6853l5 | |||
.75 79 '95 55.1630 .3727 .257 .260 .324 685301 5 1.00 79.764 55.1570 .3725 .306 ~ 285 .425 685268 | |||
'6 1. 25 79.734 55.1520 .3723 ~ 307 .297 .392 685246 7 1.50 79.702 55.1470 .3721 ~ 300 .300 .371 685227 8 1.75 79.668 55.1420 .3718 .289 .296 .356 6852l2 9 2.00 79.636 55.1360 .3715 .309 .302 . 354 685180 0 2.25 79.611 55.1310 .3717 ~ 325 .312 .361 685147 1 2.50 79.577 55.1260 .3714 314 .315 359 685132 12 2 '5 3.0O 79.554 79.521 55.1210 | |||
: 55. 1 J.70 | |||
.3714 | |||
.3711 | |||
~ | |||
.327 305 | |||
. 321 | |||
.319 | |||
~ | |||
.362 | |||
.359 685099 685095 3 '5 | |||
~ | |||
4 79 '93 55.1110 ,3708 .322 ~ 322 .359 685057 1.5 3. 50 79.466 55.1070 .3706 .312 ~ 32J, .358 685044 6 3.75 79 55.J020 .3706 ~ 32l ~ 323 .358 6850l2 7 4.00 79. 414 55.0970 .3703 .320 ~ 324 .357 68499l | |||
>8, 4. 25 79.386 55.0930 .3701 . 312 .324 .356 684977 | |||
'I I | |||
SENSOR VOLUNE FRACTIONS TEt1PERATVRF SENSORS | |||
: 3. TO 5 .A267078 . 0267078 .0267078 ,.0267078 0267079 6 TO 10 ~ 0267078 .0267078 .0267078 .0267853 0267853 33 TO 35 .0267853 .026785'1 . 02678 i3. .0267851 0267851 16 TO 20 .0267851 .0267851 ..0267853 .0240.>70 A240 ~70 23 TO 25 .0240.>70 .0240~~70 .0240~70 .0240a70 0240 >70 26 TO ~0 .024037A .0240370 0740 )70 .0226618 A226618 at TO S5 .02266).8 . 0226618 .022661.8 ~ 022661.8 02266IP. | |||
a6 TO 40 Q.QAQAAQQ .0226b.18 .0484330 .0484110 n. GAQGAAQ tcuVIDIT Y/r~r SENSORS | |||
: 3. 70 5 .A733350 . 073.'>350 .A735;%50 .trnn850 3200850 6 TO 9 ~ 1.200850 . 1,~993 cn .1399330 . 3..~993 . ~A ATE-. VWLuv OF;L"RO ZtvnvnrnES W ATE( FTEn SEN OR. | |||
CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA TENP 1 TENP 2 TEMP 3 TEMP TEMP 5 TENP 6 MBER HOURS DEG F DEG F DEG F DEG F DEG F DFG F 1 0.00 75.825 76.930 75.908 76.306 75. 741 75.515 2 ~ 25 75.825 76.930 75.888 76.306 75 '41 75.515 | |||
.50 75.825 76.941 75.888 76.306 75.741 75.504 4 .75 75.800 76.928 75.895 76.293 75 '28 75.513 5 1.00 75.843 76.917 75.883 76.304 75.728 75.S13 6 1.25 75 '32 76.905 75 '95 76.304 75.739 75.513 7 1.50 75 '14 76.910 75.888 76.295 75.741 75.527 8 | |||
9 1 '5 2.00 75.836 75.825 | |||
: 76. 910 76.919 75.888 75.897 76.295 76 306 75.752 75.732 | |||
: 75. 51.5 75.504 | |||
,10 2.25 75.825 76.919 75 '77 76.295 75.732 75.515 11 2.50 75. 812 76.894 75.872 76.293 75.728 75.522 12 2.75 75.825 76.910 75 888 F 76.295 75 '41 75.527 13 F 00 75.820 76.894 75.895 76.304 75.739 75.513 14 3.25 75.812 76.8S5 75 '95 76 '93 75.728 75 513 15 350 75.836 76.899 75.897 76.306 75.741 75.515 | |||
,16 3.75 75.836 76.88S 75.897 76.295 75.741 7S.515 17 4.00 75.825 76.910 7S.SBS 76.295 75.741 75.504 18 4.25 75.S36 76.SBS 75.897 76.295 75.741 75.515 | |||
CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
'AtiPLE "JNBER DELTA HOURS TEMP DEG F 7 TENP DEG F 8 TENP DEG F 9 TEMP 1.0 DEG F TEMP DEG F ll TENP 12 DEG F 1 0.00 75.625 75. 411 81.122 81.047 81.277 81.068 2 .25 75.605 75. 400 81 068 | |||
~ 81.025 81.. 224 81.026 | |||
.50 75.617 75.388 81.037 80 '71 81.181 80.983 4 .75 75.612 75.386 80.970 80 '26 81.145 80.936 5 1.00 75.612 75.409 80.947 80.883 81.092 80.893 6 1.2S 75.623 75.397 80.894 sn.ssn 81.061 80.862 7 1 50 75.617 75 400 80.887 80.812 81.021 80.813 8 1 .75 75 617 75.411 80.833 80.758 80.967 80.779 9 2.00 75.617 75.400 80.780 80 724 | |||
~ 80 '36 80.737 10 2.25 75.617 75.388 80.748 80.682 80.893 80.683 11 2.50 75.601 75.386 80.724 80 637 80.858 80.65S 12 13 2 '5 3.00 75.625 75.612 75.400 7S.397 80.663 80.617 | |||
~ | |||
80.608 80.572 80.820 80.784 80.620 80.584 14 3.25 75.612 75.397 80.608 80.529 80.742 80.542 15 3.50 75 '37 75.400 80.556 80.500 80.702 80 502 F | |||
16 3.75 75 '37 75.411 80.536 80.458 80.670 80.479 17 4.00 75.617 75.400 80.491 80.426 80.628 80.437 1.8 4.25 75.625 75.411 Bn 460 80.393 80.594 80.405 | |||
I. | |||
h el" CLRT VARIABLE TABLE SUMNARY AMPLE DELTA TEMP 13 TENP 14 TENP 15 TEMP 16 TEMP 17 TEMP 18 MBER HOURS DEG F DEG F DEG F DKG F DEG F DEG F Sled 1 0.00 81. 158 81.166 81.086 81.212 81.221 81.. 168 | |||
~ 25 81.105 81.112 81.032 81.170 81.178 81. 114 | |||
.50 81 . 062 81.070 80.990 81.'116 81.1,35 81.0S3 4 ~ 75 81.015 025 80.934 81.071 81 . 088 81.036 5 1.00 80 984 | |||
~ 80 980 | |||
~ 80.902 S1.029 81.035 80.984 1.25 80.930 80.937 80.858 80.986 8.1 . 003 80.951 7 1.50 80.901 80.908 80.820 80.957 80.963 80.913 8 1.75 80.848 S0.866 80.777 80.'915 80.920 80 870 | |||
~ | |||
9 2.00 80.816 80.823 80.744 80.861 80.878 80.826 10 2.2S 80.774 80.792 80.701 80.830 80.846 80.794 11 2.50 80.738 80 '45 80.668 80.783 80.799 80.738 12 13 2.75 3.00 80.698 | |||
'62 SO. 715 80.671 80.639 80.580 80.7S4 80.718 8'70 80.709 80 80.725 80.674 14 3.25 3.50 S0.620 80.639 80.549 S0.675 80.691 80 '42 15 80.602 80.599 80.509 80.646 80.662, 80.602 16 3.75 80.559 80.567 80.478 80.604 80.620 80.582 17 4.00 80.517 80 534 | |||
~ 80.446 80 '72 RO.SSS 80.537 80.49S 80.502 80.413 80.541 R0.557 80.506 | |||
J) | |||
CLRT VARIABLE TABLF | |||
==SUMMARY== | |||
Arn LE DELTA TEMP 19 TEMP 20 TEMP 21 TEMP 22 TEMP 23 TEMP 24 | |||
.IMBER HOURS DEG F DEG F DEG F ~ | |||
DEG F DEG F DEG F 1 0 00 F 81.099 81.279 Sl.279 8'02 81.326 81. 428 2 .25 81.045 81.225 81 '26 81.337 81.264 81.397 | |||
.50 81.014 81.203 81.183 81.317 81.230 83 .354 4 .75 Bl . 000 81.149 81.129 81.252 81.188 81.323 5 1.00 80.967 81.117 81.109 Bl . 221 8.1.. 157 81.269 6 1 25 80.935 81.075 81.076 81.179 81.114 81.258 8'36 | |||
~ | |||
7 1.50 3.75 80.875 80.844 81.032 S1.022 81 '72 81.215 8 80.994 80.995 8] 107 | |||
. 81.043 81.175 9 2.00 80.801 80.972 80.941 81 045 80.980 81.144 | |||
'l10 12 2.25 2.50 2 75 80.779 80.743 80.725 80.956 80.905 80.871 80.906 80.894 80.84k | |||
~ | |||
81.029 80.975 80.953 80.953 80.922 80.880 Bl.ll9 81..086 Bl.043 13 3.00 80.647 80.829 80.787 80 899 | |||
~ 80.846 81.023 14 25 80.636 80.786 80.744 80.879 80 Bl5 80.980 15 3 50 80.609 80.790 80.726 80.830 S0.766 80. 95,1. | |||
16 17 3 '5 | |||
~ | |||
4.00 80.575 80.544 80.732 80.710 80.702 80 670 | |||
~ | |||
80 803 | |||
~ | |||
80.772 80.761 S0.719 | |||
: 80. 91 5 80.873 1.8 4.25 80.490 80.678 80.617 80730 80.676 80.850 Ql | |||
CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
Vg ANPLE DELTA TENP 25 TENP 26 TEMP 27 TEMP 28 TEMP 29 TEMP 30 jMSER HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 81. ]45 81.380 79. 440 81.337 8] .098 8.1, . 434 2 ~ 25 81.122 81.338 79.398 81.283 81.022 8].. 391 | |||
.50 81.060 81.295 79.364 81.230 80.980 8] .360 4 .75 81.006 8'50 79.313 61.]99 8'0. 957 81.315 5 1 ~ 00 80.995 8] .208 79 '68 81.156 80. 915 81.253 6 1.25 80.941 81.176 79.225 S]..123 80. 86]. R]..219 7 1 ~ 50 80 9] 0 | |||
~ 81.134 79.] 94 8].OBQ 80.83o 81.188 8 1.75 S0.872 81.004 79.134 81.042 ,80.770 , 81.127 9 2.00 80.839 81.042 79.103 80.988 80.738 8.1 . A96 | |||
.10 2.25 80.8]4 81.026 79.067 80.973 80.714 Sl 060 | |||
'1] 2 '0 2.75 BO.772 80.738 80.972 80.941 79.033 79.002 80 930 | |||
~ 80.669 80.626 Sl.n]8 12 80. 91.0 80.973 | |||
'13 3.00 80.707 80.907 78.971 80.868 80 595 | |||
~ BA.941 14 3.25 80.664 BO.S65 78 '37 SO.825 80.553 80.910 | |||
]5 3 '0 3.75 80.6]5 80.60A 80.826 80.802 78.877 78.864 80.785 80.760 | |||
: 80. 5] 5 80.850 | |||
,16 80.488 80.S34 17 4.on 80.546 80.759 78.841 80.729 BA.445 80.780 18 4.25 80.526 80.726 7S 780 | |||
~ 80.696 80.4]4 80.760 | |||
I ~ | |||
CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA TEMP 31 TEMP 32 TEMP TEMP TENP 35 TENP 36 NBER HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 79.629 80.798 81.005 79.061 S1.008 DELETED 2 ~ 25 79.576 80.755 80.972 79.030 80.975 DELETFD | |||
.50 79.533 80.713 80.918 78.976 80. 91.2 DELETED 4 .75 79.480 80.670 80.876 78.944 80.867 DELFTED 5 1.00 79 '26 80.637 80.833 78.891 80.825 DELFTED 6 1.25 79.404 80.594 80.791 78.857 80 '82 DELETED 7 1 ~ | |||
1.75 50 79.362 79.312 80.540 80.491 80.748 78 '03 80.740 DEl ETED 8 80.721 78.765 80 691 | |||
~ DELETED 9 2 00 79.270 80.460 80.668 78.723 80.637 | |||
'l DFLETED F | |||
10 2.25 79.246 80.433 80.641 78.698 Sn. 612 DEI ETED 2.50 79.201 80.379 80.5'98 78.655 80.579 DFLFTE 12 2.75 79.159 80.348 80.556 78. 610 80.558 DFLETED | |||
'13 3.00 79.127 80.317 80.525 78 '79 80.505 DELETED 14 3.25 79.096 S0.274 80.491 78.548 80.462 DELETED 15 3.50 79.056 80.234 80.453 78.498 80,424 DFLETED 16 3.75 79.020 80.209 80.417 78 '72 80.397 DELETED 17 4.00 78.978 80.167 80.406 78.440 80.355 DFLETED 18 4.25 78.947 80.133 80.353 78.3'98 80.323 DELETFD | |||
I CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
~ | |||
'MPLE DELTA TEMP 37 TEMP 38 TEMP 39 TEMP 40 | |||
'AMB ER HOURS DEG F DEG F DEG F DEG F 0.00 80.991 80.896 81.088 DELETED 2 ~ 25 80.926 80.854 81.034 DELETED 3 .50 80.895 80.800 80.992 DELETED | |||
.75 80.861 80.767 80.949 DELETED 5 1.00 80.808 80.716 80.907 DELETED 6 1.25 80.765 80.671 80.864 DELFTED 7 1.50 1.75 80.745 80 619 80 '22 DELETFD 8 80.673 80.579 80.773 DELFTED 9 2.00 80. 642 80.548 80.750 DELETED | |||
,10 2.25 80.615 80. 512 80.715 ll 12 2.50 2.75 80.573 80.542 80.470 80.436 80.661 80.639 DELETED DELETED DELFTFD 13 3.00 80.508 80.394 80.585 DELETED 14 3.25 80.466 80.374 80.565 DELETED 15 3.50 80 416 F 80.324 80.536 DELFTED 16 3.75 80.392 80.298 80 500 F DELETED 17 4.00 80.360 80.266 80.469 DELETED 18 e | |||
4.25 80.316 80.213 80.435 DELETED | |||
I CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA PRES 1 PRES 2 HUM 1 HUM 2 HUM HUM 4 JMBER HOURS PSIA PSIA RH RH RH RH 1 0.00 55.1630 55.1790 59.70 63. 44 63.30 76.47 2 .25 55.1570 55.1730 59.89 63.60 63.49 76.46 | |||
.50 55.1520 55. 1680 60.06 63.76 63.66 76.50 4 | |||
5 | |||
.75 1.00 55.1460 55.1410 | |||
. 55.1630 55.1570 60.21 60.44 63.93 64.09 63.80 63.87 76 '2 76.50 6 1.25 55 '360 55.1520 60.63 64.25 64.04 76.53 7 | |||
8 1.50 1.75 55.1310 55.,1250 55 '470 55.1420 60.80 60.97 64 '2 64.57 64.29 64.20 76.49 76 '2 2.00 55.1200 55.1360 61.13 64. 73 64.38 76.54 10 13 2.25 2.50 55.1150 55.1100 55.1310 55.1260 61 '0 61.47 64.90 65.06 64 . 72'4 84 76.55 76.59 | |||
.12 13 2 '5 F 00 55.1050 55.1000 55.1210 55.1170 61.60 61.77 65.24 65.42 | |||
~ | |||
: 64. 9? | |||
65.08 76.61 76.62 | |||
'14 3.25 55.0950 55.1110 61.95 65.57 65.25 76.58 15 3.50 55.0910 55.1070 62.08 65.72 65.42 76.62 16 17 3.75 4.00 55.0860 55.0810 55 '020 55.0970 62.31 62.41 65 '9 66.04 65.49 65.72 76.56 76.63 lg 4 '5 55.0760 55 '930 62.59 66.20 65.82 76.63 | |||
CLRT VARIABLE TABLE | |||
==SUMMARY== | |||
AMPLE DELTA HUM 5 HUM 6 HUM 7 HUM 8 HUM 9 | |||
~MBER HOURS -o RH RH RH ~ RH ~o RH 1 0.00 79.15 76 05 F 76.83 76 41 | |||
~ 77.14 2 .25 79.24 75.98 76.80 76.36 77.16 | |||
~ 50 79.29 75.98 76.86 76.48 77.19 | |||
.75 79.20 76.01 76.91 76. 48 77.20 5 | |||
6 1.00 1 25 79 '8 79.28 75 '8 75.96 76.90 | |||
: 76. '97 76.53 76.54 77.14 77.18 7 | |||
8 | |||
~ | |||
1.50 1.75 79.25 79.28 7'6. 05 76.03 76.88 76.94 76.47 76.55 77 '3 | |||
'1 | |||
'7.19 9 2.00 79.24 76.02 76.96 76 77.24 10 11 2 '5 2.50 79.32 79.32 76.06 76.08 77.02 76.95 76.57 76.54 77.26 77.28 12 13 2.75 3.00 79.36 79.30 76 '9 76.12 77.02 | |||
: 77. 03 76.62 76.63 77.36 77.30 14 15 3.25 | |||
.50 79 '8 79.28 76 10 F | |||
76.05 77.07 77.01 76.61 76.69 77.28 77.31 16 J7 3.75 4.00 79.35 79.28 76.13 75 '8 77.06 77.03 76.59 76.66 77 '7 77.31 lg 4.25 79.25 76.08 77.06 76.66 77.33 | |||
.l | |||
~ ~ | |||
g | |||
~ r CLRT AIR NRSS f987 Bt Lucia Uni t. | |||
685KG 685100 | |||
~685000 Ebosco Plant Bervlces T/me ln Hnure | |||
CLRT CBMPUTED LERKRGE RRTES 1987 St. Luc i e Un i t 0.5 | |||
+ Simple Leakage Rate 0 Fitted Leakage Rate 0.4 | |||
+ | |||
+ | |||
> th o 2 q El I >+ | |||
~ 0.2 | |||
~ 0.1 Ebasco Plant Services Time in Houre | |||
I a a I ~ | |||
I | |||
m 1 'I | |||
~ | |||
CLRT LEHKHBE RHTE RELATIVE TO LIMITS 1887 St. Lut:ie Uni t 0.55 Naxfmum Allo~able 0.50 0.45 0 Fitted Leakage Rate 0.40 Q | |||
e 0.35 0 0 0 0 u O.X 0 0 0 0 0 0 0' Nin/mtUm Allowable 0.25. | |||
0.20 Ebasco Plant Services Time fn Houra | |||
7 CLRT VEIBHTEI3 AVERAGE TEMPERATURE F987 Bt. Luefe Unit t 80.0 79.9M 79.8 0 s 79.7 ~o ~o~ | |||
I 79.6 | |||
-'9.5 O~ 0 | |||
) 79.4 e 79.3 | |||
~ 79.2 79.1 79.0 2 3 4 Ebosca Plant Services Time in Hour@ | |||
CLRT t:GNTRINMENT RBSGLUTE PRESSURE 1987 St Luc i e Un i t 55.18 55.16 | |||
~ 55.14 | |||
~ 55. 12 55.10 55.08 | |||
~ 55.06 55.04 55.00 2 3 hasca Plant Services Time tn Houre | |||
J | |||
~ 'I I | |||
S ~ | |||
CLRT WEIGHTED HVERRGE VAPOR PRESSURE | |||
)987 Bt Lucia Llni t 0.387 0.384 o 0.381 | |||
, 0.378 . | |||
0.375 | |||
~KK- | |||
, 0.372 %~+~%~ g 0.3M 0 | |||
> 0.366 0.363 0.3M Ebasca Plant Bet vicaa Tims in Hour+ | |||
lt V | |||
NON TEST X NG PE R T. OD DATA | |||
'/&7 St. I ucxe Line t. No 3 Per xocIx c: Test Sequence St.art.ecf 1 4 OO Hours 3/2 1 ( 87 SecIu e nce E ncIecI 23 | |||
= | |||
= BO Hour 8/21/87 EB ASCO PLANT SE RV X CES X NC XLRT Test. Services | |||
VARJABLE 1 AG', 1 St), ll)ARY FOR lVAil-TEST JNG PFR JAOS | |||
,rAN T TNF )-")VF TEI1P P RF SS>L) RF P PRES L FAK 1. FAK F J T Lkr'L r 1 R n() SS) | |||
)00. HOURS D.".C' P'A P S>ZA | |||
'<<TN'/DAY | |||
~./DAY -'DAY L 8! | |||
0.00 en. <<n3 ) 5. 6r<<90 ..~687 >.") QAQ 0, OAO 0. QGG 6H(>2(<<9 2 .25 8-1 . 208 55.6850 .. >>(<<Sn .021 A,OOG 0. (300 68() 27 1 | |||
.50 84. 073 5>.')G . ib(>72 Q.QQQ G.QAO 0. QAQ 6 i"i(.>.'/: 9 | |||
.75 8>>, 95/t 6570 >>h('>() ~ 0,19 .019 (<<k',( | |||
5 J,AQ 8>>.,828 55. r>n.)() ..") 6(.>.o , on9 , (,)/l(> 0 (:> 6 60<.c".~ ) | |||
6 1.25 8.<<. 708 55.(~>>AQ 36(<<7 Q <) ><< .077 , 100 H->(,>,)Ct C: | |||
7 1.. 50 83. >91 55. 616.'>0 . >>6(>2 ..115 . )09 6~i:62 ~ ) ) | |||
8 7 c> 8<< it 7 ~ (<<r) ..1A i5( >('>~) . 140 J.>>."> . 1'!7 (~.)1(' ('9 | |||
: 2. A>: .;)69 )5, ~9)0 a)c >r) ( . J n( .1~8 . JC>2 6>"!('.'6 IA 9 | |||
i 2 ) | |||
Y>.b 8;<<,. 2() I 5",) 57Rr) .1rH .'8 ,202 6< | |||
>) <<) | |||
<q () A<<158 ")"), 6('.c.0 . 3(,<>3 . 17 ) j9 (> t, 1 i) /I 12 2 7<< 8.=.. A56 55. 55)4r) ..:>(>hv . 18n . 20ci 68612/t 1:1 7> r)A R2. 9.)8 55>. 5>n.<<A .,bC~fy(> . L88 :?J6 (.'>"(; JOC | |||
+<<7 n 1 it <<.25 82865 55,5>>70 . i>(.(>7 , >g6 (>P ('>Of 7 '. | |||
15 :<< .,'sA 8."). ) 77 )5, .)2JA .,>670 .2JA 2(>() 8> (> Cl ) | |||
~ l( 59 1 | |||
('> ~ ) 7~<< F'.2 . (>8)n 55.,5110 , >>6'<<R .;01 2it J 98 68( 0 >n I / ~. 00 B2. ")95 5'), 5A1r) . -',67/ i) . 2A5) e (> i<<07 p <<), n910 % 85it , BJ5 (',8'>97(~ | |||
] 4) i) .."'>() r>> c)F)J 0 J(i',"'.r>R J. ~ 2>>2 w>2+.> ('>> 15>970 | |||
<<)4> A | |||
/ ), | |||
<<'> 8> .> ") "~ 55. ii 7.:>0 .,<<('>8 .21.) . 1>( i> (<<Fl )'/ 7 7 | |||
'() | |||
1 c'. .). GA F( ~ . "(')79 .221 "'P5"~5 > | |||
Ph ( ."2 r)n ~'~./k5SA ..<<6R 1 ~ >44 2(p8 r<<C. 9 ik p | |||
+A ,n .~ ~>, i1 'i(.>C) L<<I \ >/ . P~A 9(>(> (' ">9 ..i 8j | |||
..o(') 9~ ) 7'<< <<r) r> | |||
75 Ocr> 55 4>>70 c cg pr 6, ()A Fk) ryyg ' r>,. /k 29( ). i>(>>2 ;<<7 n ..1 5).') 68&971 2(~ (> | |||
~)r 81.9:,0 a .'10 ..<<(- .2 >r) ..'7(> )C>, (>i-) ~ >i~ ~) a '> | |||
."'7 (- ')A (1 ) k'<<>P, 5'~., 4120 9c',') | |||
('>9-'i .2~) 1 iP)/ + r(4">(>~' | |||
>4 > | |||
() / ) 81.805 5'>>.40 )0 ..>711 .c it() | |||
29 7. r)o Bi, 7n8 5"- ..<<97A i<< /1,) '<< '<< .2,8 ~8( ~ 0>a i/ | |||
>>U 7.25 81.679 5 >.>>899 "I | |||
>> I >>4<<> .262 .,<<(. ) (;>F)") /2 / | |||
7 5C) R), (>,=. 5")., <<P. >0 57>>7 . <<'69 ) i<</~ k=) 9" | |||
APPENDIX C LOCAL LEAKAGE RATE TESTING CONDUCTED SINCE THE LAST ILRT c << | |||
ST< LUCIE PLAMT UHIT HOo 1 TYPE 8 TESTING BETWEEN REFUELS OUTACES SDKE LAST ILRT REMYiS 5/6/N HATCH OPEHED FOR REACTOR COOLAHT PlNP SEAL REPAIR< | |||
5/12/N ie ie HATCH OPEHED FOR REACTOR GNAT PNP SEAL REPAIR< | |||
6/16/86 17<9 17<9 HATCH OPENED FOR STEAH CEHERATOR TSK PLUCGIHG 62/18/N 12% AIRLOCK PERIODIC LEAYi TEST TECHi SPEC> 3o6slo3 K 4ebeli3 68/17/N 3995 6 HOHTH IHTERVALSi PERS$ 5EL AIRLOCVi SEALS HERE 02/13/85 1270 1278 TESTED BY PORTABLE TESTER AT OTKR THAH 6 NNIH IHTHNALSo 68/15/85 ALL TEST HERE MITHIH THE TECH SPEC> 3o6oii3 K 4e6oii3 e2/12/86 56e LIHITSo 68/12/86 25 e3/14/87 7e25 7e25 | |||
TYPE 8 TESTIHO BETHEEH REFU3JHC NTACES SIHCE LAST ILRT RENRKS 82/18/84 2995 AIRLOCK PERIOOIC LEAK TEST TECH< SPECi 3i6ili3 K 4i6oii3 68/17/N 886 6 NNTH MHNALS 82/13/85 1838 68/15/85 e2/12/86 25 68/12/86 0 63/66/87 3150 428 LEAYAZ IS HNGM PA%HAY~ | |||
HIHINN PATNN LENSCE HAS HOT AFFECTED MNIHG REPAIRSi | |||
REFUELIllG OUTAGE TYPE 8 TESTIHG SIKE LAST ILRT 19N REFUELIHG s | |||
l TYPE s | |||
s s AS FOUHD s AS LEFT s AS FOUHD s AS LEFT l l TEST DATE SCCH l SCN l SCCH l SCCH l RENRK5 HIHs PATHl HIHs PATHl HAXs PATHl NXs PATHl s s s s s s s s NIH STEN BELLs TAP 41 s 01/26/N s 0 0 0 0 1A s TAP 42 l01/26/Nl 0 0 0 s s s s s s NIH STEN BELLl TAP 41 s01/26/N s 68 60 60 68 18 s TAP 42 <01/26/84s 8 0 0 0 s s s s s s t | |||
3 FEElNATER BELL l TAP 41 lei/26/N; 0 0 0 0 1A l TAP 42 l01/26/84s 20 20 20 20 s s s s s FEHNATER BELL l TAP 41 s01/26/Ns 0 0 0 0 18 l TAP 42 l01/26/Ns 0 0 8 0 s s s s s s s s s s s s FUEL TRANS BELLs TAP 41 s01/26/84s 8 0 0 0 s s s s s s OUTAGE aX PEH l GASKET l04/13/Nl 100 108 100 100 s s sIHTElKPACEl s s s s s s s s s s NIHT HATCH 'ASKET s 04/17/N s 0 0 8 0 s s lIHTERSPACEl s s s s s s s s s s FUEL TRANSFER l GASVET s l04/11/Nl 0 0 0 0 s s FLAHGE sIHTERSPACE s s s s s s s s s s s 1 THRU E-10s ELECTRICAL PEHs l HA l01/24/84l 820 820 820 820 s s s s s s TOTAL 8 | |||
JCE | |||
I REFUELIHG OUTAGE TYPE C TESTIHG SIHCE UST ILRT TIOH, l TYPE l AS FOUHO l AS LEFT l AS FOUHD l AS LEFT I HU%ER l TEST l DATE SCN l SCN l SCN l SCN l REINKS I | |||
I I | |||
I I | |||
I HIH>> PATHs lGH>> PATHs M>> PATHl HAX>> PATHs I I I | |||
s PRINRY NKEUP V-15-328 f ;02/16/N, 20 20 480 BYPASS I I s HATER %-15-1 I I LEAVJCE I I I I I I I I | |||
'TATIOH AIR V-18-796 l ;el/19/N, 8 100 I I V-18-794 f I I I I I V-18-797 l I I I I I I I V-18-798 l I I I I I I I I I I I I I | |||
l IHSTRlKNT AIR V-18-195 l ,ez/03/N, 680 I 1150 1150 BYPASS I I I I I %-18-1 I I I LEAKAGE | |||
>> I I I I I V-18-193 s I I I I I I I I | |||
>> I I I I I I | |||
18 l COHTAIlIEHT FCV-~ l ,02/22/N, 3500 I 3500 3500 I I I s PURGE EXHAUST FCV-25-5 I I I I I I I I I I I I I I | |||
s COHTAIHHEHT FCV-25-2 l ,02/23/N, 2000 I 2000 2090 I I I s PURGE SUPPLY FCV-25-3 l I I I I I I I I I I I I I I | |||
s HITROGEH SUPPLY l V-6779 >01/zi/84>> 45 I lee I I I I I V-6741 I I I I I I I I I I I I I l RCP COOLIHG HCV-14-1 l '81/20/N' 50 I | |||
I 50 I I I I HCV-14-7 l I I I I I I I I I I I I I I | |||
24 l RCP COOLIHG HCV-14-2 l ,ei/Ze/N', 140 140 I 148 I I I I I HCV-14-6 l I I I I I I I I I I I I I | |||
26 'ETDOHH LIHE V-2515 s 02/08/NI 100 I 650 V-2516 | |||
~l | |||
REFUELIHG OUTAGE TYPE C TEI'sSHG SIHCE LAST ILRT 19N REFUELIHG I I TIOH f TYPE l VALVE f TYPE I I AS FOUHO s AS LEFT l AS FOUHO s AS LEFT l HUHBER I SERVICE I HOI l TEST OATE I I I I I I I I I I HIHI PATH) HIHI PATHs HAXI PATHl HAXI PATHs s SIT SAHPLE IF~3-1E s C sei/31/NI e e I | |||
0 BYPASS I | |||
I lF~3-1F s I | |||
I I | |||
I I | |||
I I | |||
I USAGE I I I I I I I I I I I I I I s HOT LEG SAHPLE '-5200 s C Iei/16/Nl 12e 120 l 140 140 BYPASS I I I I I I I V-5203 s I I I I LEAKAGE I I I I I I I I I I I I I I | |||
~~ | |||
29A l PRESS SAHPE ', v-5zei; c l 01/16/Nl iM l 100 100 BYPASS I I I I I I l V-5204 I I I I LEAKAGE I I I I I I | |||
: s. I I I I I I I | |||
'29B l PRESS SAHPLE f V-5202 f C sel/13/NI 10M 1000 I I I I I I l V-5265 I I I I I I I I I I I I I I I I I I 31 l RCB VEHT HEAOER f V-6554 l C I 01/13/Nl s 1000 1000 I I I I I I l V-6555 I I I I I I I I I I I I I I I I I I f SIT TEST LIHE lM7M9 I C ,ei/12/84; 2000 I ZM0 I I I I I I f V-3463 I I I I I I I I I I I' I I I I I I l CONT SUHP lL~7-ilAI C hei/12/84' 1000 1008 1000 BYPASS I I I | |||
I fL~7-11Bl I I | |||
I I I LEAKAGE I I I I I I I I I I I I I I ROT PUHP SUCT f V-6301 l C I 01/17/Nl 2000 2200 2200 BYPASS I I I I I I I V-6302 I I I I LEAYJCE I I I I I I I I I I I I I l RCP SLED)WFF l 1-SF+1-1I C F 01/13/84 f 10M 1%0 1000 I I I I I I f V-2505 I I I I I I I I I I I I I I I I I I 46 f FUEL POOL f V-7189 I C ,ei/u/N; iee 100 l 100 iM BYPASS I | |||
I CLEAHUP I V-7266 I LEN<AGE | |||
'II I | |||
REFUELIHG OUTAGE TYPE B TESTIHG SINCE LAST ILRT 1984 REFUELIHG s | |||
EHETRATIOH s VALVE TYPE s AS FOUHD s AS LEFT l AS FOUHD l AS LEFT s HIRER HOs TEST s DATE SCN s | |||
s s | |||
s s | |||
s HIHs PATHs HIHs PATHs Ms PATHs Ms PATHI s s s s FUEL POOL s V-7188 C l 01/11/84l s s CLEAHUP , V-7170 s s s s s s s s H2 SNPLE sFSE-27-1 C :euevsR, 61e 61e s FSE-27-2 s s | |||
s s | |||
s s IFSE-27-3 s s lFSE-27M s s | |||
s s | |||
lFSE-27M s s | |||
s s | |||
s s s s s s | |||
'RBC H2 SAHPLE s V-27-101 C I el/07/84 s 1200 1200 s s IFSE-27-11 s s s s s s s s 51A H2 SAHPLE s | |||
V-27-102 C ,euevsR', 480 s | |||
:FSE-27-10 s s s s s s s s s 51C H2 SAHPLE f FSE-27-5 C ,eue7/84', 100 , 400 s s s FSE-27-6 s s s s l FSE-27-7 s s s s s FSE-27-9 s s s s s s s s RCB ATNS s FCV-26-1 C ,euevsR, s s RAD NNITORS l FCV-26-2 s s s s s s s s RCB ATNS s FCV-26-3 C sei/24/84f 410 418 s s RAD NNITORS s FCV-26< s s s s s s s s RCB ATtIS s FCV-26-5 C hei/24/84s s | |||
RAD NNITORS I FCV-26-6 s s s s s s s s s ILRT TEST s LH$140 C I 01/10/BR I COHHECTIOH s lH$143 s s | |||
s s | |||
s s s s s s ILRT TEST s LH$139 C ,erie/84, 105 | |||
'OHHECTIOH s V-M144 | |||
REFUELIHG OUTAGE TYPE B TEtKNG SIHCE LAST ILRT 1984 REFI1IHG s | |||
EHETRATIOH s TYPE s | |||
s s AS FOUHD l AS LEFT s AS FOUHD l AS LEFT l INBER TEST l ~ | |||
DATE SCN l SCN SCCH SCN s | |||
s s | |||
s lGHs PATHl HIHs PATHs Ms PATHl Ms PATHs s s s s s ILRT KST 'LHN01 ,ez/07/84; 5000 BYPASS l COHHECTIOH s | |||
s s | |||
s LEAYAZ s s s s s s l HYDRXEH PURGE V-25-11 ,ez/23/84, 800 BYPASS s s l HAREI' V-25 12 s s LEAYJCE s s s s s l HYDRXEH PURGE V-25-13 le1/ze/s4, 800 BYPASS l TO FILTER V-25-14 s s | |||
s s LEAKACE s s | |||
; 's s s s s l HYDROGEH PURGE V-25-15 ,01/ze/84, 870 s7e s7e s7e BYPASS s | |||
l FILTER BYPASS V-25-16 s s s LEAYAZ s s s s | |||
s s s 67 l COHTAIHHEHT V-25-20 l 01/16/84l 400 s NMN RELIEF FCV-25-7 s s | |||
s s | |||
s s s s s s s s l COHTAIHHEHT V-25-21 l C s01/19/84s 1100 1100 3700 3700 l NCULN RELIEF FCV-25-8 l OTAL C | |||
YPASS JKE TOTAL TYPE C ; 17480 17480 19845 19845 YPASS LEAYJCE OTAL PLAHT B LIHIT TYPE C 25880 71735 71735 544s786 SCN BYPASS | |||
C REFUELIHG OUTAGE TYPE B TESTIHG SIKE LAST ILRT 1905 REFlKLIHG I I TYPE I I AS FOUND l AS LEFT l AS FOUHD l AS LEFT l TEST DATE SCN l SCN l SCN l SCN REHARK5 I | |||
I I | |||
I HIHi PATHs HING PATHl SCi PAM Mo PATHl I I I | |||
I MH STM BELLl TAP 41 ai0/26/85l 0 0 0 I 0 I | |||
1A l TAP 42 ,ie/Z6/e5, 0 0 I 0 I I 1 I I I I I MH STM SELLs TAP fi ,ie/26/a5, 0 0 0 I | |||
I I | |||
8 1B l TAP 42 li0/26/05< 0 0 0 I 0 I I I I I I I 1 I | |||
FEEDHATER BELL l TAP 41 B , ie/26/B5', 0 0 8 I 0 I | |||
1A l TAP 42 B :ie/26/S5, 0 0 0 I 0 1 I I I I I I I I | |||
4 FEEDHATER BELL l TAP 41 B , ie/26/S5', 0 0 0 I 0 I | |||
iB l TAP 42 B l10/26/85' 0 0 8 I 0 I I I I I I I I I I I I I I I 1 | |||
FUEL TRAHS BELLl TAP 41 B l11/02/85l 0 0 8 I 0 I I I I I I I I I | |||
OUTAGE AUX PEH l GASKET B l12/16/85l 0 0 8 I 8 I I I lIHTERSPACEl I I I I I I I I I I I I I HAIHT NTCH l GASKET l B l 12/19/85l 0 0 0 0 I I lIHTERSPACE s I I I I I I I I I I FUEL TRANSFER l GASKET B (12/15/85l 8 0 0 0 I I FLANGE lIHTERSPACEl I I I I I I I I I I 1 THRU E-10l ELECTRICAL PEHo l HA l B :ie/25/05; 0 0 8 0 TOTAL B | |||
iCE | |||
REFlKLIHG OUTAGE TYPE C THAR'S SINCE LAST ILRT 1985 REFUELIHG s s s TIOH l TYPE VALVE TYPE s s AS FOUHO l AS LEFT l AS FOlNO l AS LEFT l s NN8ER s SERVICE HOs TEST s OATE s SCN SCN SCN SCN RENRYiS s | |||
s s | |||
s s | |||
s HIHs PATHl HIHs PATHs NXs PATHl Ms PATHl s | |||
s s s s s s l PRIHARY HAKEUP V-15-328 l l 12/12/85l e 20 20 s HATER N-15-1 s s | |||
s s | |||
s s s s s s s s s STATIOH AIR V-18-796 l 12/15/85 330 800 s | |||
s V-18-794 l s s | |||
s s | |||
s s V-18-797 s s | |||
s s | |||
s s | |||
s V-18-798 l s s | |||
s s | |||
s s s s s s s s s 90 l IHSTRlNEHT AIR V-18-195 l l12/13/85l 300 300 s | |||
s HV-18-1 s s | |||
s s | |||
s fg s V-18-193 l s s | |||
s s | |||
s s s s s s s s 10 s COHTAIRKHT FCV-~ l s 12/17/85l 700 700 s | |||
l PURGE EjtHAUST FCV-25-5 s s s | |||
s s s s s s s s s l COHTAIHHEHT FCV-25-2 s s 12/15/85s 32667e 326670 200 l PURGE QFPLY FCV-25-3 l s s | |||
s s | |||
s s s s s s s s s HITtmGEH SUPPLY s V-6779 s l11/02/85s e e s s s s V-6741 s s s s s s s s s s s RCP C00LIHG HCV-14-1 l , ie/29/85, e e s s s | |||
s HCV-14-7 l s s s s s s s s s s s RCP COOLIHG HCV-14-2 l 10/29/85 e 0 BYPASS s s s | |||
s HCV-14-6 l s s LEAYJCE s s s s s s s s 26 s LETlNHH LIHE V-2515 s11/04/85l 6500 7200 BYPASS V-2516 LEAKAGE s s | |||
. I | |||
~ | |||
I l | |||
REFUELIHG OUTAGE TYPE C TESTIHG SIKE LAST ILRT 1985 REFUELIHG I I TIOH l TYPE l VALVE I TYPE I I AS FOUHD f AS LEFT l AS FOND l AS LEFT l IIBER SERVICE I HOI l TEST DATE I | |||
I I | |||
I I | |||
I I | |||
I HIHI PATH5 HIHI PATHl HAXI PATH5 MI PATHI I I I SIT SNPLE I F9'-1E I , ie/29/85, 0 e ', | |||
e I | |||
0 I | |||
I BYPASS I | |||
I lF~3-iF l I | |||
I I | |||
I I | |||
I I | |||
I I | |||
I I | |||
LEAKAGE I I I I I I I | |||
I HOT LEG I | |||
I QNPLE l V-5200 I V-5203 I | |||
I I | |||
'll/01/85 I | |||
I I | |||
I I | |||
e e, I I | |||
I e | |||
I I | |||
I e | |||
I I | |||
I I | |||
I BYPASS LEAKAGE I | |||
I I I I I I I I I I I I I I I I I | |||
l PRESS QNPLE I V-5201 I 112/13/851 3100 425 l 3150 425 I BYPASS I I I I I I I ; v-szea I I I I I LENWCE I I I I I I I I C I I I I I I I I I I | |||
'298 l PRESS SAHPE I V-5202 I 112/02/851 e 0 e I BYPASS I I I I I I I l V-5205 I I I I I LEAKAGE C I I I I I I I I I I I I I I I I I | |||
31 I RCB VEHT HEADER l V-6550 ill/03/85' e e I 0 I BYPASS I I I I I I I V-6555 I I I I I LEAYAZ I I I I I I I I I I I I I I I I I | |||
I SIT TEST LIHE IM7M9 110/27/85I 3e I 30 I 30 I BYPASS I I I I I I I IV-%63 I I I I I LEAKAGE I I I I I I I I I I I I I I I I I | |||
I COHT SSP ILUH)7-ilAl l 10/28/85' 18M 1800 18M I BYPASS I I I | |||
I lL~7-11Bl I I | |||
I I | |||
I I I LEAKAGE I I I I I I I I I I I I I I I I I | |||
l RDT PSF SUCT f V-6301 ,11/ae/85, 5 18 I 18 I BYPASS I I I I I I I I V-6302 I I I I I LEAKAGE I I I I I I I I I I I I I I I RCP BLEEMFF f 1-SF+1-il 'l/05/85 e e BYPASS I I I I I I V-2505 I I I LEAKAGE I I I I I I I I I I I I l FUEL POOL '-7189 , ie/F85', 72 72 72 72 BYPASS I | |||
I CLEAHUP l V-7206 I I LEAYAZ I | |||
I I | |||
REFUELIHG OUTAGE TYPE 8 TBsSHG SIKE LAST ILRT 1985 REFUELIHG s | |||
VALVE TYPE l AS FOUND l AS LEFT l AS FOUHO l AS LEFT l HOs TEST l DATE SCCH SCCH SCN l SCN s s s s s s HIHs PATHl HIHs PATHl HAXs PATHs HAXs PATHl s s l RKL POOL l V-7188 '0/23/85' 7e 7e 7e 7e s | |||
CLEAHN'2 l V-7170 s s s s s s s s SNPLE s FSE-27-1 l 10/30/85s 0 8 s | |||
lFSE-27-2 s s s lFSE-27-3 s s | |||
s s | |||
lFSE-27M s s | |||
s s | |||
lFSE-27M s s | |||
s s | |||
s s s s s s Rsc H2 SAHPLE l V-27-101 l 11/01/85s e 288 s s l FSE-27-11 s s s s s s s s 51A HZ SAHPLE s V-27-102 ;11/02/85, 8 128 s s lFSE-27-10 s s s s s s s s 51C H2 SAMPLE l FSE-27-5 s 11/02/85s e 8 l FSE-27-6 s s s s s | |||
l FSE-27-7 s | |||
s s s | |||
s FSE-27-9 s s s s s s s s s RCB ATNS s FCV-26-1 l 10/30/85l 88 90 90 s | |||
RAD HOHITORS s FCV-26-2 s s s s s s s s s RCB ATNS l FCV-26-3 l 10/30/85l 35 3ze BYPASS s | |||
RAO NNITORS s FCV-26< s s | |||
s LEANGE s s s s s RCB ATNS s FCV-26-5 l 10/31/85l 50 1380 BYPASS l FCV-26-6 s s RAD HOHITORS s s LEAKAGE s s s s s s ILRT TEST l 'LHSiR0 l 10/38/85l e 1868 BYPASS s s COHHECTIOH l lH01R3 s s LEAKAGE s s s s s s ILRT TEST l 'LH$139 lie/3e/s5l 30 38 BYPASS COHHECTIOH l LH$1RR LEAKAGE | |||
/ | |||
REFUELIHG OUTAGE TYPE B TESIIHG SIHCE LAST ILRT 1985 REFU3JHG TIOH s s TYPE s s | |||
AS FONS s AS LEFT 'S FOUHO s AS LEFT l HUHBER s TEST s OATE SCN s SCN s SCN s SCN s s s s s s HIH>> PATHs HIHs PATHs HAXs PATHs HAXs PATHs s s l ILRT TEST tH%101 s s 12/13/85' e 60 0 s s s COHHECTIOH s s s s s s s s s s s s HYORXEH PURCE V-25-11 C F10/20/85' 240 2% 2% | |||
s s HAKElP V-25 12 s s s s s s s s s s s HYORXEH PURCE V-25-13 l 10/25/85 f 800 2%9 800 BYPASS s TO FILTER V-25-N s s | |||
s s LEAVEN% | |||
s s s s s s s s s HYORXEH PURGE V-25-15 10/24/85 500 5M 5M BYPASS f FILTER BYPASS V-25-16 s s | |||
s s | |||
s LEAKACE s s s s s s s s s COHTAMEHT V-25-20 s C '10/28/85 350 15M 1500 s | |||
s NCNN RELIEF FCV-25-7 s s | |||
s s s s s s s s s s s COHTAIHHEHT V-25-21 s 10/29/85s 90 75e 75e s NMN RELIEF FCV-25-8 s | |||
, 327810 TOTAL C 17402 4597 6815 ASS LEAKAGE OTAL PLAHT B LIHIT TYPE C s %5212 5937 s 357228 10373 SN~786 SCN BYPASS 12 | |||
REF1%1IHG OUTAGE TYPE B TESTIHG SIHCE LAST ILRT 1987 REFIKLIHG TYPE | |||
>> AS FOmm l AS LEFT>> AS Fme l AS LEFT>> | |||
TEST >> OATE lENRKS | |||
>> lGH>> PATHl HIH>> PATHl M>> PATHl HAX>> PATHl NIH STEAH BELLl TAP 41 B >>02/09/87>> 0 0 1A l TAP 42 B l02/09/87>> 0 MH STEAH BELLl TAP 41 B l 02/09/87>> 0 0 iB l TAP 42 B >>02/09/87>> 0 0 | |||
>> I >> | |||
FEElNATER BELL l TAP 41 B ,02/09/87; 0 0 1A l TAP 42 B :02/09/87; 0 0 FEHNATER BELL>> TAP 41 8 >>02/09/87l 0 0 18>> >> | |||
TAP 42 B >>02/09/87l 0 0 FUEL TRAHS BELLl TAP 41 8 l02/14/87l 0 0 OUTAGE AN PEH l GASKET B >>02/09/87>> 0 0 lMERSPACEl >> >> | |||
l GASKET B '02/05/87l 0 0 lIHTERSPACEl >> >> | |||
FUEL TRAl'6FER l GASKET B >>02/13/87l 0 0 FLAHGE lIHTHKPACEl >> >> | |||
1 THRU E-10>> ELECTRICAL PEH>> l HA B >>02/06/87l 46>>1 46>>1 46>>1 46>>1 OTAL TYPE B 46>>1 46>>1 46>>1 46>>1 JKE 13 | |||
REFUELIHG OUTAGE TYPE C TESTIHG SIHCE LAST IIRT 1987 REFL'ELDC I | |||
TYPE l AS FOUHO l AS LEFT l AS FOUHO l AS LEFT l TEST l OATE SCN SCN SCN l SCN I | |||
I I NIHIL PATHl lGHe PATHs Me PATHs NXo PATHl I I I | |||
PRINRY HAKElF V-15-328 l03/13/87l 0 0 4500 I BYPASS I I I HATER | |||
'-15-1 I I I LEAKAGE I I I I I I I I I | |||
STATIOH AIR V-18-796 l ,02/07/87; 125 125 380 I BYPASS I I I V-18-794 l I 1 I LEAKAGE I I I V-18-797 l I I I I I V-18-798 l 1 I I I I I I I I I I I I | |||
IHSTRUHEHT AIR V-18-195 l l02/20/87l 0 0 0 1 BYPASS I I I N-18-1 I I I LEAKAGE I I I' V-18-193 l I I I I I I I I I I | |||
COHTAIHHEHT FCV-~ l l03/13/87l 600 0 0 I I I I PlSGE EXHAUST FCV-25-5 l I I I I I I I I I I I I | |||
COHTAIHHEHT FCV-25-2 l >03/07/87s 337436 0 )1624067 0 I SEE PROBU3) | |||
I PURGE SUPPLY FCV-25-3 l I I | |||
I I I HRITE lP I I I I I I I I I | |||
HITROGEH SUPPl Y l V-6779 l l02/13/87l 0 0 0 1 BYPASS I I I V-6741 I I I LEAl<AGE I I I I I I I I I | |||
HCV-14-1 l l03/12/87l 0 0 0 I BYPASS I I lG-14-7 l I I I LEAKAGE I 1 I I I I I I I | |||
HCV-14-2 l l03/12/87l 0 0 0 I BYPASS I I I HCV-14-6 l I I I LEAKAGE I I I I I 1 I I I | |||
26 V-2515 l l02/24/87l 0 0 0 I BYPASS I | |||
V-2516 I LEN<AGE 14 | |||
REFUELIHG OUTAGE TYPE C TW3C SIHCE LAST ILRT 1987 REFUELIHG NLVE TYPE l s AS FOUHD l AS LEFT l AS FOUHD l AS LEFT l HOs TEST l DATE SCCH s | |||
HIHs PATHl HIHs PATHl Wcs PATHl HAXs PATHs s s s s s s s s s SIT SAHPLE sF~3-1E s02/17/87s e 8 lFQH3-1F s s | |||
s s s s s s s HOT LEG SNPLE l V-5200 l82/14/87s 68 6e s s s V-5203 s s s s s s s s PRESS SAHPLE s V-5281 s03/14/87l 17s9 17s9 s 800 800 BYPASS s s l V-5204 s s LEAKAGE s s s s s s PRESS SAHPLE s V-5282 l02/28/87l e e s s s V-5205 s s s s s s s s 31 RCB VEHT HEADER l V-6554 ~ 02/17/87l e ,8 s s l V-6555 s s s s s s s s SIT TEST LIHE lM7009 s 02/12/87s 400 400 BYPASS s s lV-3463 s s LEAYJCE s s s s s s CONT QNP lLQH)7-11Al C ,ez/ie/87, 700 700 BYPASS lL~7-11Bl s s | |||
s s LEAKACE s s s s s s s s 43 RDT PlNP SUCT l V-6301 lez/ze/87l e e BYPASS s s l V-6302 s s LEAKAGE s s s s s s s s RCP BLEElHFF l 1-SF<i-ll sez/14/87l 8 8 BYPASS s | |||
l V-2505 s | |||
s s LEAKAGE s s s s s s s s RKL POOL l V-7189 l02/12/87s 2600 2008 BYPASS CLEAHUP l V-7206 LEAKAGE s s s s | |||
REFUELIHG OUTAGE TYPE B TFs)TTHG SIKE LAST ILRT 1987 REFUELIHG PEHETRATIOH l VALVE TYPE l l AS FOUHO l AS LEFT l AS FOUHO l AS LEFT l HNSER HOI TEST DATE 'CN SCCH l SCN l SCN I | |||
I I I | |||
s I | |||
HIHI PATHl HIHI PATHl MI PATHs NXI PATHl I I s RKL POOL l V-7188 C s02/10/87s 8 I I s CLEAHUP , V-7170 I I I I I I I I I I s H2 SNPLE lFSE-27-1 C l02/17/87l 17I9 17I9 I I I I sFSE-27-2 I I I I I I lFSE-27-3 I I I I I I IFSE-27M I I I I I I IFSE-27M I I | |||
~ ~t I I I I I I I I I | |||
%C l H2 $ &lE s V-27-101 C l02/17/87l 320 I I I I lFSE-27-11 I I I I I I I I I I s H2 SAHPLE l V-27-102 C l02/18/87l see I I I I lFSE-27-10 I I I I I I I I I I 51C s H2 SAHPLE s FSE-27-5 C l02/17/87s 160 I I I I l FSE-27-6 I I I I I I l FSE-27-7 I I I I I I l FSE-27-9 I I I I I I I I I I l RCB ATNS l FCV-26-1 C ,02/ie87, 65 l 20000 70 I I l RAD NNITORS s FCV-26-2 I I I I I I I I I I l RCB ATNS s FCV-26-3 C l02/14/87l 260 BYPASS I I l RAD NNITORS s FCV-26M I I LEAKAGE I I I I I I I s RCB ATNS s FCV-26-5 C l02/16/87l 350 BYPASS I I l RAD NNITORS s FCV-26-6 I I LEAYJCE I I I I I I I s ILRT TEST s LH$148 C l02/10/87l 0 | |||
; COHHECTIOH s lH$143 I I | |||
I I | |||
I I I I I I I I l ILRT TEST l lH$139 C l02/10/87l 38 250 | |||
, COHHECTIOH l lHSN4 1 | |||
P REFUELIHG OUTAGE TYPE B TESTING SIKE LAST ILRT 1987 REFUELItC I | |||
TYPE l AS FOUHD l AS LEFT l AS FIND l AS LEFT l TEST l DATE SCN SCN SCN l SCN RENRKS I | |||
PATHl SNo PATHl 1 | |||
I I NIHIL PATHl HING PATHl HAXEL I I I I l ILRT TEST LH$101 ;02/19/87, 8 8 I I l COHHECTIOH I I I I I I I I l HYDROCEH PUKE V-25-11 l02/19/87l 125 70>> 70 << | |||
I I l NKEI' V-25 12 I I I | |||
I I I l HYDROCEH PURCE V-25-13 ,02/07/87l 2000 125 << 125 << | |||
I I l TO FILTER V-25-il I I I I I I I I I'58 l HYOROCEH PURCE V-25-15 :02/07/87', 560 268 << 260 << | |||
I I l FILTER BYPASS V-25-16 I I I I I I I I 67 l COHTAIHtKHT V-25 Ze l02/12/87l %0 %6 l NMN RELIEF I I FCV-25-7 l I 1 I I I I I 1 I I l COHTAIHHEHT V-25-21 l C ,02/12/87'l 100 0 l NMN RELIEF FCV-25-8 l I | |||
I I | |||
see l 1986884<9 0637<9 I | |||
1 I | |||
I I | |||
TOTAL C 6082<9 3852i9 BYPASS LEAKNZ OTAL PLAHT TYPE B LDGT TYPE C l 2019016 <<l %4<786 AHD BYPASS | |||
- SEE,LOCAL LEAK RATE PROBLElS HRITE UP | |||
LOCAL LEAKAGE RATE PROBLEMS SINCE LAST XLRT MARCH 7~ 1987 THE PURGE MAKE-UP AXR VALVES FCV-25-2 AND FCV-25-3 HERE FOUND BE LEAKXNG 1 '24~067 SCCMi THE LOCAL LEAK RATE TEST XS PERFORMED BY TESTING TWEEN THE 'VALVES XN ORDER TO DETERMXNE THE AMOUNT OF LEAKAGE ON EACH VALVEi E VALVES HERE REPAIRED INDEPENDENTLY+ VALVE FCV-25-3 HAS REPAIRED FIRST AND OTHER LOCAL TEST HAS DONEE DURXNG THIS TEST THE LEAKAGE HAS 337>436 SCCMi LVE FCV-25-3 HAS CHECKED WITH SNOOP AND NO VXSXBLE LEAKAGE HAS OBSERVED ON E VALVE+ THE DATA GATHERED FROM BOTH LOCAL LEAK RATE TESTS HAS USED TO ASSXGN LEAKAGE VALUE TO EACH VALVEi THE RESULTS HEREt FCV-25-2 *S fOUND LEAKAGE WAS 7v436 SCCM AND FCV-25-3 AS FOUND LEAKAGE HAS it286~631 SCCA BOTH VALVES V-25-3 AND FCV-25-2 HERE REPAIRED AND THE AS LEFT LEAKAGE ON BOTH VALVES HAS SCCM AS A RESULT OF THE EXCESS LEAKAGE ON THESE'VALVES THE TYPE B R C AKAGE VALUE OF 8+6 LA WAS EXCEEDED'HXS HAS REPORTED ON LICENSEE EVENT PORT (LER) 335-87-005+ | |||
TZR-THE 1987 TYPE A TEST PLANT CHANGE MODIFXCATXON (PCM-98-186) HAS PLEMENTED TO CHANGE THE FXRST ISOLATXON VALVE ON PENETRATION 56~ 57 D .8 FROM FLANGED VALVES TO FIELDED VALVES DURING THE TYPE A TEST | |||
'ESE PENETRATION MERE ISOLATED HITH THE EXXSTING FLANGED THE MINIMUM PATHMAY DURXNG THE TYPE | |||
* TEST DID NOT CHANGE VALVES'REFORE OM THE LOCAL LEAK RATE FOUND PRIOR TO THE TYPE A TEST+ | |||
4 I | |||
A | |||
\}} |
Revision as of 13:43, 4 February 2020
ML17219A623 | |
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Site: | Saint Lucie |
Issue date: | 03/21/1987 |
From: | Dillon P EBASCO SERVICES, INC. |
To: | |
Shared Package | |
ML17219A622 | List: |
References | |
NUDOCS 8706150244 | |
Download: ML17219A623 (125) | |
Text
ST. LUCIE PLANT UNIT NO. 1 NUCLEAR POWER PLANT FT. PIERCE, FLORIDA DOCKET NO. 50-335 REACTOR CONTAINMENT BUILDING INTEGRATED LEAKAGE RATE TEST Prepared for:
FLORIDA POWER 6 LIGHT COMP%VS Approved by.
Manager of Testing Date of Test Completion:
March 21, 1987 8706f50244 870610 PDR ADOCK 05000335 p
PDR'JLNO5 RL'IKT FtE MP7;
v'~r I I
TABLE OF CONTENTS Page I. INTRODUCTION AhD
SUMMARY
II. TEST DISCUSSION. ~ I ~ 3 A. Description of the 'Containment.
B. Description of ILRT Instrumentation .
- 1. Temperature Instrumentation. 6
- 2. Humidity Instrumentation . 6
- 3. Pressure Instrumentation . 7
- 4. Flow Instrunentation . 7
- 5. Instrument Selection Guide (ISG) Calculation . 7 C. Contaireent Pressurization Equipment............. 8 D. Description of the Computer Program.............. 8 E. Description of the Testing Sequence.............. 10 ANALYSIS AhD INTERPRETATION.................... 15 A. Instrumentation System Performance.............. 15 B. Temperature Stabilization Phase. 16 C. Leakage Survey Phase . 17 D. Integrated Leakage Rate Phase. 18 E. Verification Controlled Leakage Rate Phase.......... 19 IV. FIGURES 1 RTD Location and Volume 2 RH3 Location and Volume 3 Flow Diagram for Pressure Sensing and Controlled Leakage 4 Flow Diagram for Pressurization System V. APPENDICES A. Tabulation of "As-Found" and "As-Left" ILRT Results B. ILRT Computer-Generated Report
- 1. Test Sequence
- 2. Temperature Stabilization
- 3. Integrated Leakage Rate Test
- 4. Verification Controlled Leakage Rate Test
- 5. Non-Test Period Data C. Local Leakage Rate Testing Conducted Since the Last ILRT
t I+
I. INTRODUCTION AND
SUMMARY
A periodic Type "A" Integrated Leakage Rate Test (ILRT) was successf ully conducted on the primary containment structure of the Florida Power & Light Company St. Lucie Plant Unit No. 1 Pressurized Water Reactor. This test was perf ormed at full pressure in accordance with the facility Technical Specifications.
This ILRT test was perf ormed using the "Absolute Method" of testing in accordance with the Code of Federal Regulations, Title 10, Part 50, Appendix J, "Primary Reactor Containment Leakage Testing for W ater-Cooled Power Reactors," in accordance with ANSI N45.4 1972, American National Standard, "Leakage Rate Testing of Containment Structures for Nuclear Reactors," and the methodology and calculational requirements of Topical Report BN-T(P-l, Revision 1, "Testing Criteria for Integrated Leakage Rate Testing of Primary Containment Structures for Nuclear Power Plants." The ILRT was performed at a pressure in excess of the calculated peak containment internal pressure related to the design basis accident as specified in the Final Safety Analysis Report (FSAR) and the Technical Specifications.
This report describes and presents the results of this periodic Type "A" leakage rate testing, including the supplemental test method utilized for verification. In addition, Florida Power h Light Company performs Types "B" and "C" testing in accordance with the requirements of 10CFR50, Appendix J, and the Technical Specifications. The results of types "8" and "C" testing performed since the last ILRT are provided in this report.
The resulting reported "as-found'ype "A" containment leakage at 40.7 psig is 0 335 percent of the contained mass per day. This value includes the difference between the as-found and as-left minimum pathway Types "B" and "C" local leakage measurements as required by the NRC IhE Information Notice 85-71. Th resulting reported "as-left" Type "A" containmnt leakage at 40.7 psig is 0.130 percent of the contained mass per day. The acceptance criteria
for this test, as contained in the facility Technical Specifications is that leakage cannot exceed 0.375 percent of the contained air mass per day for either the "as-found" or "as-left" case.
II. TEST DISCUSSION A. Description of the Containment The contairrnent vessel ccmpletely encloses the entire reactor and reactor coolant system to ensure no leakage of radioactive materials to the environment in the mlikely event of a hoss of coolant accident.
The containment system design incorporates a free-standing containment vessel surrounded by a low-leakage concrete shield building. A four-foot annular space is provided between the outer wall of the containment vessel and the ironer wall of the shield building to allow filtration of containment vessel leakage during accident conditions to minimize off-site doses.
The free-standing containment vessel is a two-inch thick right circular cylinder with a one-inch thick hemispherical dome and two-inch thick ellipsoidal bottom. The overall vessel dimensions are 140-f oot diameter by 232-foot high. The vessel wall thickness is increased to a minimun of four inches adjcent to all penetrations and openings. The vessel is fabricated of ASME-SA 516 Grade 70 fully killed pressure vessel quality steel plate. The net free volume of the containment vessel is 2.5 x 10 cubic feet.
The contaiment vessel structure includes one personnel airlock, one emergency escape lock, one fuel transfer tube, one equipment maintenance hatch and one seal-welded construction hatch. All process piping and electrical penetrations are welded directly to the containment vessel nozzles with the exception of the main steam, main feedwater, and fuel transfer tube penetrations. These penetrations are provided with testable multiple ply expansion bellows to allow for thermal growth or building differential motion.
The containment vessel is d signed and constructed in accordance with the requirements for Class MC vessels contained in Section III of the ASME Code (1971 Edition). The containment vessel is code stamped for a d sign internal
contairment pressure of 44 psig at a temperature of 264 F. The containment vessel and all penetrations are designed to limit leakage to less than 0.5 percent by weight of the contained air per day at the above design conditions. The calculated peak accident pressure for the design basis accident for the St. Lucie Plant Unit No. l is 39.6 psig.
B. Description of ILRT Instrumentation The containment system was equipped with instruoentation to permit leakage rate determination by the "absolute method." Utilitizing this method, the actual mass of dry air within the containment is calculated. The leakage rate becomes the time rate of change of this value. The mass of air (Q) is calculated according to the Perfect Gas Law as follows:
Q = (P-Pv) V where: P - Containment Total Absolute Pressure Pv - Containment Water Vapor Pressure (Average)
V Containment Net Free Volume R - Gas Constant T Containment Absolute Temperature (Average)
The primary measurement variables required are containoent absolute pressure, containment relative hunidity, and containment temperature as a function of time. During the supplementary verification test, containment bleed-off flow is also recorded.
Average containment absolute temperature is determined'y measuring discreet local temperatures throughout the containment and applying a mass and volume weighted averaging technique. The volune fraction for each sensor is determined based ~on solid geometrical calculations:
where: T Containment Absolute Temperature (Average)
Ti Local Temperature for Sensor i Vfi - Volune Fraction for Sensor i Average containment water vapor pressure is determined by measuring discreet local relative humidities throughout the containment, converting this to local vapor pressures using local group temperatures and applying a mass and volume weighted averaging technique. The volume fractions for the relative hunidity sensors are determined in the same manner as for the temprature sensors above.
(~) j . Steam Table =
TLocal.
Pv j
j where: Pv - Containment Water Vapor Pressure (Average)
Pvj - Calculated Local Vapor Pressure for Sensor j VFj T
Volune Fraction for Sensor j
Contairment Absolute Temperature (Average)
TLocalj Local Group Average Temperature iVear Sensor (XfH) - Relative Hunidity for Sensor j
j j The Instrument Selection Guide or ISG is used to determine the ability of the instrumentation system to m asure the leakage rate. The calculated ISG for this test met all acceptance criteria for all test instrumentation systems.
- 1. Temperature Instrumentation Forty precision Resistance Temperature Detectors (RTDs) were located throughout the containment to allow measurement of the weighted average air temperature. The location of the temperature detectors in the containment is depicted in Figure 1. Each RTD sensor was supplied with a calibrated resistance versus temperature curve accurate to +0.5 F. The sensitivity and repeatability of each RTD sensor is less than'+0.01 r.
The signal conditioning circuit and readout for the RTD sensors was a Fluke 2280B data logger operating in a constant current mode. The operating 0
parameters for the RTD constant current card are accuracy of +0. 16 F and resolution of +0.01 0F.
Each RTD was in-situ calibration checked after installation to verify correct operation. The data logger operating as a total loop with an RTD in 0 0 the circuit had a repeatability of +0.02 F and a resolution of +0.01 F.
~
- 2. Humidity Instrumentation Nine Resistance Humidity Detectors (RHDs) were located throughout the containment to allow measurement of the weighted average containment vapor pressure. An additional RHD was installed in the containment as a spare, in case one of the original nine RHDs failed. The location of the RHDs in the containment is depicted in Figure 2. The calibrated accuracy of the RHDs is
+2.5 percent RH, the repeatability of the RHOs is +0.25 percent RH, and the sensitivity of the RHDs is +O.l percent RH.
The readout device used for the RHDs was a Fluke 22803 data logger. The repeatability of this device is +0.01 percent RH while the resolution of the device is +0.01 percent RH.
Each RHD was in-situ calibration checked after installation to verify correct operation.
- 3. Pressure Instrumentation Two precision quartz bourdon tube manometers were used to determine containment absolute pressure. The arrangement of tubing connections between the manometers and the contaireent is shown in Figure 3. Either manometer could be used as the primary pressure sensor for leakage rate calculations with the remaining sensor being considered as a backup. The calibrated accuracy of the manometers if +0. 015 percent of reading. The sensitivity, repeatability, and resolution of the manometers is +0.0015 psi. Binary Coded Oecimal (BM) output from both manometers was .connected to the Fluke 2280B data logger.
- 4. Flow Instrumentation A variable area float-type rotameter was used to superimpose leakage during the supplementary CLRT. The piping connection between the rotameter and the containment is shown in Figure 3. The accuracy, repeatability, and sensitivity for the rotameter in units of SCFM and converted to equivalent leakage values is given below:
Equivalent SCFM Leakage Peak Pressure Rotameter Accuracy +0. 20 +0. 0031 I/day Repeatability +0.05 +0.0008 I/day Sensitivity +0. 05 +0.0008 I/day
- 5. Instrument Selection Guide (ISG) Calculation The Instrument Selection Guide is a method of compiling the instrumentation sensitivity and resolution for each process measurement variable used during the ILRT and evaluating the total instrunentation systems'bility to detect leakage rates in th range required. The ISG formula is described in American National Standard ANSI/ANS 56. 8-1981.
Although the ISG is a very conservative measure of sensitivity, the general industry practice as for this test has been to require sensitivity at least four times better than the containment allowable leakage or ISG ~ 0.25La.
The calculated ISG for the instrumentation used for this test was 0.041 percent per day, for an 8.25-hour test. The allowable valu for this test is 0.25l a or 0.125 percent per day, for an 8.25-hour test. The ISG calculation met all recommended criteria and demonstrated the ability of the ILRT instrumentation system to measure containment leakage with a sensitivity exceeding that required by the appropriate industry standards.
C. Containment Pressurization Equipment The equipment used to pressurize the containment is shown in Figure 4.
The ten oil-free industrial diesel-driven air compressors had a total nominal capacity of 11,000 ACFM. The compressed air was then routed to water-cooled aftercoolers, moisture separators, and refrigerant air dryers. This equipment assured that clean and dry air was used to pressurize the containment.
D. Description of the Computer Program The Ebasco ILRT ccmputer program is an interactive program written specifically for fast, easy utilization during all phases of the ILRT and CLRT. The program is written in a high-level, ccmpiled, structured language and is operated on a portable CP/M-based microcomputer. The program has been verified and meets all requirements of the Ebasco Quality Assurance Program.
As necessary, data entry and modifications are readily accomplished by the data acquisition team. In addition to extensive data verification routines, the program calculates, on demand, total tim and mass point leak rates as well as the 95 percent Upper Confidence Level for these leakage rate calculations. Calculations and methodology of the program are derived from American National Standard ANSI N45.4-1972 and Topical Report BN-TCP-1, Revision 1. Containment air mass is determined from mass-weighted sensor readings as described in EFRI report NP-2726, November 1982.
Input data may be d leted for a given instrument in the case of a sensor malfunction. This deletion of a given instrument is performed on all samples in the data base. Weighting factors, if applicable, are then recalculated for the remaining instrument sensors of that type.
Data evaluations are enhanced by the flexible display of either sensor f
variables or various computed values in tabular or graphical orm on the computer screen or printer. Data is recorded on magnetic media to prevent loss during th testing. All data is stored on the computer system in use, with retrieval capability to any desired data base throughout the testing.
Ancillary portions of the program assist the user in detection of temperature stabilization, determining the ILRT termination criteria, performing ISG calculations, performing in-situ instrum nt loop performance calculations and detecting acceptable superimposed CLRT leakage verification.
Temperature, pressure, and humidity data are transmitted from the ILRT instrumentation system to the ccmp uter via an RS-232 link at 15-minute intervals. Computer verification and checking routines supplem nt data verification by the data acquisition team. Modifications are promptly made when errors are detected. Prior to issuance of this report, further extensive data verification was perf ormed.
E. Description of the Testing Sequence During the current refueling outage, maintenance modifications to the containment electrical penetrations were made. Electrical penetrations C-8, D-l, 0-2, 0-3, and 0-9 were replaced. In addition, a spare penetration at location C-9 was converted to an operable electrical penetration. Local leakage rate Type "B" tests were performed cn these electrical penetrations, both prior to and following the replacement.
All ILRT instrunentation was declared operable with perf ormance within manuf acturer' tolerances. Pressure sensor No. 2 was selected to be the primary pressure instrunent, as it had exhibited better repeatability and stability during the in-situ testing.
Two penetrations were required to be in service during the ILRT and were not lined up to simulate accident conditions, P-523 (ILRT Pressure Sensing Line) and P-52E (ILRT Controlled Bleedoff Line). These two Il RT penetrations are used to conduct the test and cannot be positioned in the post-accident lin up. The minimum pathway leakage for those penetrations, determined during Type "C" local testing, is added to the measured ILRT leakage to account for these penetrations being in service during the test (refer to Appendix A).
As a result of the Type "B" and "C" local leakage rate testing and repairs perf ormed during the ref ueling outage, additions to the "as-f ound" Type "A" ILRT results were necessary du to NRC Information Notice 85-71.
These additions were for the reduction in minimun pathway leakage due to repairs. These leakage reductions have been corrected for uncertainties prior to being added to the measured ILRT values (refer to Appendix A).
Preparations to pressurize the containment for the conduct of the ILRT included internal and external inspections of the containment structure; installation and checkout of the ILRT instrumentation; Types "B" and "C" Local Leakage Rate Tests; alignment of valves and breakers for test conditions; and the installation and checkout of the temporary pressurization facilities.
These preparations were completed early on March 20, 1987.
Pressurization of the containment structure started at 2120 hours0.0245 days <br />0.589 hours <br />0.00351 weeks <br />8.0666e-4 months <br /> on March 20, 1987, at an average pressurization rate of 3.4 psi/hr.
Soon after the start 'f pressurization, two temperature sensors were beginning to exhibit anomolous behavior. TE-40 (Elevation 194') displayed erratic readings on the data logger ranging from an open connection (high resistance) to -453 0F. The diagnosed fault with TE-40 was loose connections at some point in the containment. Temperature sensor TE-40 was deleted from all computer calculations, and the remaining temperature sensors at that elevation received adjusted volume fractions. The ISG calculations presented in Section II.B.5 were performed to accommodate the deletion of TE-40. The ISG value remained at 0.041 percent per day, well below the limit of 0.125 percent per day for an 8.25 hour2.893519e-4 days <br />0.00694 hours <br />4.133598e-5 weeks <br />9.5125e-6 months <br /> ILRT.
Temperature sensor TE-36 (Elevation 171' was noted to be reading 0
approximately 7 F below the other temperature sensors at that elevation, but exhibited stable behavior and was following the trend of the other temperature sensors at that elevation. The decision was made not to officially delete temperature sensor TE-36 at this time, but to monitor its behavior during the balance of testing.
During final stages of pressurization, leakage survey teams found evidence of small leaks at the leakage chases for the following penetrations:
P-9 Instrunent Air P-14 Nitrogen Su)ply P-26 CVCS Letdown All leakage from these paths was estimated to be less than 5 percent of the ILRT acceptance criteria, and no repairs or adjustments were made to these penetrations.
Pressurization was secured at 0957 hours0.0111 days <br />0.266 hours <br />0.00158 weeks <br />3.641385e-4 months <br /> on March 21, 1987, at a final pressure of 56.3 psia (41.6 psig). This pressure is 2 psi above the minimum test pressure to account for the expected pressure decrease due to temperature stabilization and to allow for some leakage margin during the test sequence.
Data acquisition and analysis for the temperature stabilization phase was begun at 1000 hours0.0116 days <br />0.278 hours <br />0.00165 weeks <br />3.805e-4 months <br /> on March 21, 1987. Plots of Containment Temperature and Pressure versus Time demonstrated smooth and expected behavior. The containment stabilization phase was declared acceptable at 1400 hours0.0162 days <br />0.389 hours <br />0.00231 weeks <br />5.327e-4 months <br /> on March 21, 1987, after four hours of data acquisition. All stabilization criteria contained in Topical Report BN-TOP-1 were met, and integrated leakage rate measurements were initiated at 1400 hours0.0162 days <br />0.389 hours <br />0.00231 weeks <br />5.327e-4 months <br /> on March 21, 1987.
At 1645 hours, after recording two-and-three-quarter hours of leakage rate data, it was determined that the leakage was trending above the "as-found" ILRT acceptance criteria at a 95 percent Upper Confidence Level. This measured leakage was below the acceptance criteria for an "as-lef t" ILRT, however. Leakage survey teams were dispatched to identify and quantify the containment leaks. The survey t ams identif ied the three 3eaks previously discovered, plus the following small leaks:
P-28B Pressurizer Sample P-56 Hydrogen Purge Make~
These leaks were determined to be of a small magnitude and in conjunction with the small leaks previously noted on P-9, P-14, and P-26, were not a cause of concern. No repairs or adjustments were made to any of the above leakage paths.
At 2115 hours0.0245 days <br />0.588 hours <br />0.0035 weeks <br />8.047575e-4 months <br />, the leakage survey teams found that the contairment emergency sump suction isolation valves MV-07-2A and 2B were leaking air into the safety injection system. As these valves are not containment leakage paths in accordance with the FSAR and Technical Specifications, a decision was made to manually tighten these valves with no penalty to the "as-found" ILRT values. These valves were manually tightened shortly af ter 2130 hours0.0247 days <br />0.592 hours <br />0.00352 weeks <br />8.10465e-4 months <br /> on March 21, 1987, and the ILRT calculations restarted at the next data set (2145 hours0.0248 days <br />0.596 hours <br />0.00355 weeks <br />8.161725e-4 months <br /> on March 21, 1987).
After eight-and-one-quarter hours of ILRT data accumulation, all Topical Report BN-TOP-1 acceptance criteria for the ILRT were met with stable and predictable trends. The ILRT was officially terminated at 0600 hours0.00694 days <br />0.167 hours <br />9.920635e-4 weeks <br />2.283e-4 months <br /> on March 22, 1987.
At 0606 hours, a superimposed flow equivalent to 0. 318 I/day was initiated using the rotameter. This flow was observed to be stable during the required BN-TOP-1 Controlled Leakage Rate Test (CLRT) stabilization period of approximately one hour.
At 0700 hours0.0081 days <br />0.194 hours <br />0.00116 weeks <br />2.6635e-4 months <br />, on March 22, 1987, the leakage rate measurements for the CLRT were initiated. Stable and acceptable leakage rate measurements were made for four-and-one-quarter hours. At 1115 hours0.0129 days <br />0.31 hours <br />0.00184 weeks <br />4.242575e-4 months <br />, all Topical Report BN-TOP-1 criteria were met for the CLRT verification test, and the test was declared acceptable.
Depressurization of the containment structure was initiated at 1120 hours0.013 days <br />0.311 hours <br />0.00185 weeks <br />4.2616e-4 months <br /> on March 22, 1987, at a rate of 6 psi/hr. At 5.5 psig a containment entry was made during the depressurization to conduct the post-ILRT containment inspec-tion. The only damage observed included 11 broken light bulbs and hydraulic fluid leaking from two HVAC damper actuators.
The ILRT test sequence was officially terminated at 1945 hours0.0225 days <br />0.54 hours <br />0.00322 weeks <br />7.400725e-4 months <br /> on March 22, 1987, with less than three-quarters of a psig in the containment.
Subsequent to the ILRT, the containment sump suction valves MV-07-2A and 2B were reworked to adjust the motor torque switches. Proper closure of the valves was verified by functional testing.
Inspection of the data from temperature sensor TE-36 (Elevation 171' after depressurization demonstrated the anomolous reading of 7 F below the other temperature sensors at that elevation persisted throughout the course of testing. The data from TE-36 exhibited stable behavior and was following the trend of the other temperature sensors at that elevation. It is hypothesized that a high resistance developed in the compensating lead for the RTO, thus causing the low reading. It was decided to delete TE-36 from all calculations as its readings could not be justified. All Temperature Stabilization, ILRT, and CLRT calculations were r vised following th deletion with no differences in the calculations noted. The ISG calculations of Section II.B. 5 were performed to accommodate the deletion of TE-36. The ISG value remained at 0.041 percent per day, well below the limit of 0.125 percent per day for an 8.25-hour ILRT.
III. ANALYSIS AND INTERPRETATION A. Instrumentation S stem Performance Two of 40 temperature detectors failed during the initial stages of pressurization of the containment, as described in Section II.E. All of the remaining temperature detectors performed as expected with no anomolous behavior detected by the Ebasco ILRT computer program" error checking routines. This computer program also determines the in-situ temperature loop repeat ability which consists of process measurement variations as well as sensor noise. The average in-situ loop repeatability for the 38 operating temperature sensors was 0.009 F, with the worst sensor exhibiting an in-situ loop repeatability of 0.024 F. This perf ormance compares well with the vendor-claimed temperature sensor loop repeatability, excluding process variations, of 0.02 F as given in Section II.B.1.
Ten relative humidity sensors were installed in the containment for the Il RT, even though the signal conditioning circuitry would only process signals for nine channels. The tenth sensor was maintained as a spare in the event one of the operating sensors failed. The nine operating channels for humidity operated as expected with no anomolous behavior detected by the ILRT computer program error checking routines. The average in-situ loop repeatability for the relative humidity sensors was 0.039 percent RH, with the worse sensor exhibiting an in-situ loop repeatability of 0.092 percent RH. This performance is substantially better than the vendor-claimed humidity sensor loop repeatability, excluding process variations, of 0.25 percent RH as given in Section II.B.2.
Two pressure sensors were installed for the ILRT, with one utilized for testing and one considered as a spare. Prior to containment pressurization, computer analysis demonstated that pressure sensor 2 was more stable over an eight-hour period than the other sensor. During the ILRT, the in-situ pressure loop repeatability for both sensors was 0.0018 psi. This performance compares well with the vendor-claimed pressure sensor loop repeatability, excluding process variations, of 0.0015 psi as given in Section II.B.3.
The variable area rotameter perf ormed as expected with no evidence of unstable readings, float sticking, or moisture in th float tube.
In summary, all of the ILRT test instrumentation performed in an adequate manner to allow determination of containment leakage rates to the sensitivity required.
B. Temperature Stabilization Phase Prior to pressurization of the contairment, the atmosphere was very 0
stable with an average temperature of 77. 38 F and a maximun spread of temperature from the highest reading sensor to, lowest reading sensor of 5.5 0F. During pressurization, the heat of compression of the air occurs mainly at the top of the containment with colder pressurization air being added at the bottom. At the end of pressurization, the average temperature 0
was 90. 67 F with a maximun spread of temperature frem the highest reading sensor to lowest reading sensor of 22.9 0F.
The results of the four-hour temperature stabilization phase are presented in Appendix B.2. The acceptance criteria given in Topical Report BN-TOP-1, Revision 1, are described in Note 2 in that appendix. The data presented shows that a smooth and predictable temperature stabilization occurred. At the end of stabilization, the average temperature was 84.34oF with a maximum spread of temperatue from the highest reading sensor to the lowest reading sensor of 12.8 0F. This demonstrates that the heat sinks of concrete and steel in the containment were quickly returning the containm nt atmosphere to a stable condition.
C. Leakage Survey Phase Small leaks were found on five penetrations by leakage survey teams during containment pressurization and temperature stabilization, as described in Section II.E. These leaks were, of such a small magnitude as to not impact acceptance of the leakage rate test and were not adjusted or repaired.
Leakage rate measurements on the containment were begun after the temperature stabilization phase using the total tice leakage rate methods of Tooical Report BN-TG'-1, Revision l. As an additional diagnostic tool, mass point leakage rate measurements, as described in ANSI/ANS 56.8-1981, were conducted in parallel. The mass point leakage calculations are not sensitive to the starting point of the test and will detect changes in containment leakage more rapidly than the total time method.
As presented in Appendix A, a containment measured leakage rate of no greater than 0.170 percent per day at the 95 percent upper confidence level was the maximum rate which would allow an acceptable "as-found" ILRT. After two-and-thr e-quarter hours of accumulating leakage rate data, both the total time and mass point leakage rate calculations were measuring leakage above the "as-found'LRT acceptance criteria. A sugary of these results at two-and-three-quarter hours is:
BN-TOP-1 ANSI 56.8 Total Time Mass Point Simple Leakage Rate 0. 184 I/day 0.184 I/day Fitted Leakage Rate 0.206 I/day 0.199 R/day Upper Confidence Level 0.243 I/day 0.228 X/day Due to the short measurement interval, these leakage measurements should not be considered as final accurate measurements, but an indication of the order of magnitude of leakage present in the containment. Leakage survey teams were dispatched in a coordinated manner to identify the source of high "as-found" ILRT leakage. It should be noted that this measured leakage would pass an "as-left" ILRT as presented in Appendix A.
Leakage measurements were continued as the leakage survey teams searched for the source of excessive "as-found" leakage. Computer analysis using both the total time method and mass point method demonstrated the presence of a steady leakage rate that would stabilize at a value b tween 0.28 I/day to 0.31 X/day.
Leakage calculations at 2100 hours0.0243 days <br />0.583 hours <br />0.00347 weeks <br />7.9905e-4 months <br /> and 2115 hours0.0245 days <br />0.588 hours <br />0.0035 weeks <br />8.047575e-4 months <br /> on March 21, 1987, demonstrated increasing leakage values and a leakage survey team reported that a large leak on both containment emergency sump suction lines had been found by venting air from the outboard side of isolation valves MV-07-2A and 2B.
Observations by the leakage survey team allowed for the possibility that these two emergency sump suction isolation valves were not fully closed.
These two isolation valves are, not considered as potential leakage barriers in the Final Saf ety Analysis Report (FSAR) Sections 6.2.4. 2 and 6.2.4.4, as they will be water covered in a Loss of Coolant Accident and open during the recirculation phase of the transient. Any water leakage through these valves in the closed position will be returned to the containment by the Safety Injection System pumps. No potential containment leakage or off-site dose is credible due to seat leakage of these valves in the closed position.
These two isolation valves were then manually closed with subsequent containment leakage rates significantly reduced as described in th next section.
D. Integrated Leakage Rate Phase Leakage measurements were started after isolation of valves MV-07-2A and 2B at 2145 hours0.0248 days <br />0.596 hours <br />0.00355 weeks <br />8.161725e-4 months <br /> on March 21, 1987. Stable leakage rates were measured by both the total time method and mass point method. The total time BN-TCP-1 results for eight-and-one-quarter hours of leakage measurements are presented in Appendix B.3. A summary of the measured leakage by both methods after eight-and-one-quarter hours is:
BN-TOP-1 ANSI 56.8 Total Time Mass Point Simple Leakage Rate 0. 102 I/day 0.102 X/day Fitted Leakage Rate 0.077 I/day 0.086 I/day Upper Confidence Level 0. 130 I/day 0.098 I/day The higher Upper Confidence Level of the BN-TOP-1 measurements is due to the nature of performing regression analysis on simple 3eakage rates instead of regression analysis on masses and the more conservative statistics utilized by BN-TG'-1. The measured leakage rates and upper confidence levels for both calculated methods were slowly decreasing with time.
As all acceptance criteria for a Reduced Ouration BN-TCP-1 ILRT were met at eight-and-one-quarter hours as presented in Appendix B.2, the ILRT was declared acceptable. Appendix A presents the corrections to the measured ILRT leakage rates for local leakage rate measurements for both the "as-found" and "as-left" cases.
E. Verification Controlled Leakage Rate Phase Subsequent to the acceptance of the ILRT results, a superimposed leakage equivalent to 0.318 percent per day was added to the existing containment leakage using the variable area rotameter. A one-hour stabilization period was allowed to lapse after addition of this leakage in accordance with the requirements of Topical Report BN-TOP-l.
Leakage measurements were initiated to verify the results of the ILRT.
The minimum duration for the Controlled Leakage Rate Phase was determined to be four-and-one-quarter hours in accordance with Topical Report BN-TCP-l. As presented in Appendix B. 4, the leakage measurements met the acceptance criteria for the verification phase. Leakage results for both the total time and mass point method is:
8N-TOP-1 ANSI 56.8 Total Time Mass Point Simple Leakage Rate 0.312 I/day 0.312 I/day Fitted Leakage Rate 0.324 I/day 0. 320 I/day SECTICN IV FIGURES
RTD LOCATION/VOLUME ST. LUCIE UNIT NO. 1 FLORIDA POWER & LIGHT COMPANY
.3 RTD'S AT EL 194'OLUME 242,055 CU FT RTD 38-40 9 RTD'S AT ELEVATION 171'OLUME 453,235 CU FT RTD 29-37 10 RTD'.S AT ELEVATION 130'OLUME 669,627 CU FT RTD 9-18 10 RTD'S AT ELEVATION 84'OLUME 600,926 CU FT RTD 19-28 8 RTD'S AT ELEVATION 40'OLUME 534,157 CU FT RTD 1-8
RHD LOCATION/VOLUME ST. LUCIE UNIT NO. 1 FLORIDA POWER & LIGHT COMPANY 3 RHD'S AT ELEVATION 171'OLUME 1,049,347 CU FT RHD 7-9 3 RHD'S AT ELEVATION 84'OLUME 900,640 CU FT RHD 4-6 3 RHD'S AT ELEVATION 40'OLUME 550,013 CU FT RHD 1-3
~ ~
FLOW DIAGRAM ILRT PRESSURE SENSING & CONTROLLED LEAKAGE INST Pl INSIDE OUTSIDE CONTAINMENT CONTAINMENT 3/8" TUBING 1/2" TUBING (TYP.)
3/8" X 1/2" EXP.
P QUARTZ 52E BOURDON CONDENSATE POT TUBE MANO- TO ATMOS.
(TYP.)
METER
~
QUARTZ VARIABLEAREA Pl BOURDON FI ROTAMETER TUBE LLR TEST MANO-1/2" DRAIN & TEST METER 1" PIPE I
Fl P 1" X 1/2" RED.
520 (TYP.)
LLR TEST 1/2" DRAIN 5 TEST SEISMIC CLASS I
~
FLOW DIAGRAM ILRT PRESSURIZING 8 DEPRESSURIZING SYSTEM 'O TO ATMOSFHE 4 E UNIT NO. 2 ILR1'ENETRATION 4 FIFE I
I SEISMIC CIASSI tt'tECTACLE I Sl FIANCE ITYSI I I S 9 I I
~ UND REMOTE I
I 2 SYtASS r SLIND X LUI ~ DRAIN I X" LLR FOR ILRT I
I I DRAIN OUTDOORS INSIDE OUTSIDE RINDS I AUXILIARY CONTAINMENT ICONTANMKNT SLDO.
FPSIL ILRT DRYER TRAILER f
FILTER I WATEROVT WATKR IN I REFRIO. WATER OVT I EWART MOISTURE I DRYER SKtAR I ATOR I AUTO ASTER I DRAIN COOLER I ITYFI I
I ~ OST AUTO DIESEL DRIVEN F IL'TER DRAIN WATER IN INDUSTRIAL ITYtI WATER OUT OIL FREE I AIR COMPRESSORS I (11,000 CFM TOTAL)
I AFTER I COOLER I
I FILTER MOISTVRE I REFRIO. SKFAR.
EWART ATOR I DRYER WATER IN I
I WATER OVT WATER IN I
L WATER OUT AN COOLED AfTER REF Rl 0.
MANT COOLER ORTKR WATER OVT AUTO DRAIN ITYFI WATER IN AIR COOLED RtfNO. AFTKR KRANT COOLER DRYER MOISTINK SEtARATORS WATER FN
SECTION V APPENDICES
APPENDIX A TABlLATION OF "AS-FOUi G" AND "AS-l EFT" ILRT RESULTS
APPENDIX A TABULATION OF AS FOUND AhD AS-LEFT ILRT RESULTS Correction of ILRT Results for "As-Found" Case In accordance with NRC IK Information Notice 85-71, the following additions are required to the ILRT results due to repairs and/or adjustments made due to Local Leakage rate testing during the 1987 Refueling Outage. The corrections include only repairs or adjustments made to containment leakage boundaries which were made prior to the ILRT. These corrections are th difference between the pre-repair and post-repair leakages calculated in the minimus pathway case and corrected for uncertainties in the measurem nts.
Minimun Pathway ILRT Penetration Leakage Difference Uncertainty Correction P-10 Purge Exhaust 600 sccm 11.5 sccm 611.5 sccm P-ll Purge Supply 337,436 sccm 34,411.9 sccm 371,849,9 sccm P-68 Vacuum Relief 100 sccm 1.6 sccm 101.6 sccm The total local minimus pathway leakag plus uncertainty must be added for the penetrations which are in use during the ILRT and whose containment isolation valves are not tested:
Total Minimun ILRT Pen tration Pathway Leakage Uncertainty Correction P-520 ILRT Test 0 sccm 1.6 sccm 1.6 sccm P-52E ILRT Test 250 sccm 11.5 sccm 261.5 sccm
The total ILRT "as-f ound" correction can be found adding the above ILRT corrections (Note: A conservative simplification was made by not performing a root-mean-square summation of the local mcertainties.)
Correction of ILRT results for "as-found" case 372,824 sccm or 0.205 X/day Measured ILRT leakage at a 95X UCL 0. 130 X/day Reported "as-found" ILRT results 0.335 X/day Acceptance Criteria (75X La) 0.375 X/day Correction of ILRT Results for "as-left" Case The only correction for the "as-lef t" ILRT case involves the penetrations which were in use during the test, P-520 and P-52E. From the above section, the ILRT "as-left" correction can be determined:
Correction of ILRT results for "as-left" case 263.1 sccm or 1.4 x 10 X/day Measured ILRT Leakage at a 95X UCL 0.130 X/day Reported "as-left" ILRT results 0.130 X/day Acceptance Criteria (75X La) 0. 375 X/day
APPENDIX B ILRT COMPUTER-GENERATEO REPORT
CON TA X NMENT X NTEG RATED LEAKAGE RATE F XNAL, TEST REPORT 987 St. Lucre Uni t. No 1 Periodic Test.
EB ASCO PLANT SE RV X CES X NC XLRT Test Services
II RT TEST SEC)UENCE
~
Luci e Un@ R No 3 Per xoUxc Te t.
Segu e nce St.ar Sequence E ncfecl
=
=
15 Hours t.ed 2191 4S ~/20/87 Hou rs 5/22/87 I
EBASCO PLANT SERV CES INC ILRT Test. Services
ILRT TESTING SEQUENCE 1987 St. Luci:e Unit 1
~ 59.5 I 54.5 Stabilization Leak Survey
~ 49.5 ILRT
~ 44.5 CLRT
~ 39.5 Cy Cy Q- 34.5
~ 29.5
~ 24.5
~ 19.5 4 8 12 16 20 24 28 32 36- 40 44 48 Ebosco P 1ant Services Time in Hours
TEMPERATURE STAB XLXZATXON MODE 987 S t Lucia Uni t. No 3 Perioclic Test.
Sequence St.ar EnMeM t.ed 3 3
0 = OO W" OO Hour s 8/23 Hour /8?
Z/R3 /8/
EBASCO PLANT SERVXCES XNC XLRT Test, Services
St. Lucie 1, Periodic STABXLX7ATXON PERTOD STARTFD AT 10: 0 Hol)RS AN ~/21/87 TEMPERATURE STABXLXZAT'EON SAMPLE TXME AVF TEI~)P HOL) RL Y DELTA T HOURI Y DEl. TA T TNC) HR Df, l TA T NL)MBER HOURS DEG F FOR LAST .1 HR FOR LAST 2 HRS MI l'IUS ONE'R DEl TA T 1 O.oo 90.537 0.000 A.AOO 0.000 2 .25 89 040
. A.AQA O.QOO 0.000 50 BR ..1.20 0., 000 0.000 A.AOO 4 .75 87. 48A C) QC)0 QQQA A.QOA 5 1.AO 86.9RA -.>. 558 O.OAO Q.OAQ 6 1 .25 86.575 -2.464 A. QQC) Q.AAO 7 1.50 86.249 -.1 .871 0.000 Q.QOO
.1 .75 8596o -1.517 A.AQO A.OOA 2.00 85 7?2 -1.257 -2.,408 1.150 10 2.25 85.506 -1 . 069 -1.767 .697 11 ?.50 85.3]4 935 -1 . 10,> .468 75 85. 1.>2 .882 -1. 174 . 34..)
.1 .~ ,>, QA 84,957 -.765 -1. 011 . 246
~,1 4 5.25 84 . 783 .723 .896 .173 15 3.50 84.630 .684 .809 .1?6 16 3.75 84.482 .650 -.741 , 09.1 "1 7 4.AQ 84.>4 .614 .689 .075 l8 4.25 Bil 2A8 .576 .649 ,A74 19 4.50 84 . 073 .557 .620 .063 2A 4.75 8.>, 954 .527 .589 Oj, '1 21 5. 00 83.828 .515 .565 .o50 2? 5. 25 83.708 .500 .538 . 0<>8 55A Rc. 591 .482 -.52n . A.>8 NOTI";S-1 ) THF ONE I.IO(.JR AND TNO HOL) R DF, I. TA Tf.",I'1PI. RATURE VALI.JF.S ARF blOT VALID L)NTXL ONE HOLJR AND THO HOURS RFSPECT I VFI. Y HAVF.. PASSF.D XN THE TEST .
- 2) THE STABXLX7ATXON CRXTERXA IS MET NHEN:
THE HOURLY AVERAGE DFLTA T FOR THE PRFCFDXNG HOUR DTFFFRS FROM THE HOURLY AVFRAGE DFLTA T FOR THF PRECFDING Tldo HOURS BY I FSS THAN 0.5 DEGRFFS F OR
- THF HOL) RL Y AVE RAGE DELTA T F OR THF, PRECEEDING 1 NO HOL) Rh XS L FSS THAI'I 1 . 0 DFGREES F .
THF. TAP TI XZAT'ION PERXOD XS FOR A MXNXIRl)I1 OF FOUR Hol)R- .
- 3) TI IF ">" INDTCATFS THAT THE STABXI, 17ATTON CRITERXA HAS BEFN I)ET.
TENPERBTURE STAB ILIZFITIGN
)987 Bt LUcie Unit 91 U
C Q
CR E3 C
87 0 C
L 0 0
Q M0 L
e Q.
0 E
f-Stab l I I tg 81 5
Ebaaca Plant Ssrvlcss Ttma in Houre
XLRT TEST NODE QR7 St; Lucia Uni t; No 3 Par ionic Test Seciu e nce St.ar Saciu ance t act 06 23 4G Hour s p/23. /B7 OO Hou r ~/ 22/ 87
=
E nctec9 =
EB ASCO PLANT SERV CES I X NC ILRT Test; Services
St. Lucie 1 Periodic CONTAINMENT XNTEGRATFD LEAKAGE RATE TEST LFAKAGE RATE 1$ MEASURED USING THE ABSOLUTE METHOD AND I-COMPUTED USTNG THE TOTAL TI'ME METHOD 1'N STR1CT ACCORDANCE WITH TOPICAL REPORT BN-TOP-1 (REV 1)
TEST PER1'OD STARTED AT 21: 45 HOURS ON o/21/S7 TEST CONDUCTED FOR a.25 HOUR, FREF., PACF VOLUME OF CONTAINMENT I 2,500000 CU FT CONTAINMENT WAS PRESSURXZFD TO 55.38 PSXA FITTED TOTAL TIME XLRT LEAKAGF RATE Lam ~ 077 -o PF R DAY UPPFR LIMXT OF 95. CONFTDENCF LFVFL UCL ..1.30 -', PE R DAY CONTAINMENT DESIGN I EAKAGE RATE La .500 -'ER DAY ILRT ACCEPTANCF CRITERIA 75'-o .375 - PER DAY
BN-TOP-1 REDUCED DURATION ILRT TERMINATION CRITERIA
-THF TRFND OF THE TOTAL. TIME CALCULATED LEAKAGE RATE SHALL INDICATF THAT THE MAGNITUDE OF THF LEAKAGE RATE IS TENDING TO STABILIZE AT A VALUE LFSS THAN OR EQUAL TO 75'-o OF La.
Lam = .077 % PER DAY WTTH A NEGATIVE SKFW
-AT THF END OF THE XLRT THE UPPER LIMIT OF THE 95% CONFIDENCE LEVEL SHALL BE LESS THAN OR EQUAL TO 75'-o OF La.
UCL = .130 -o PER DAY
-THE MEAN OF THE MEASURED LEAKAGE RATES OVFR THE LAST FTVE HOURS OR TWENTY DATA -ETS, WHICHEVER PROVXDES THE MOST POTNTS SHALL BE LESS THAN OR EQUAL TO 7 >% OF La.
MEAN OF SIMPLE LEAKAGE F ROM SN1 12 TO SNl 32 = . 1 42 -o PER DAY
DESCRT PTION OF VARIABLES AVE TFMP CONTAINMFNT MEAN TEMPERATURE CALCULATED FROM VOLUMETRICALLY WEXGHTED RTD SENSOR INDXCATIONS.
PRFSSURE PRIMARY CONTAINMENT PRESSURE INDXCATION.
VAPOR PRES CONTAINMENT VAPOR PRF,-SURE CALCULATED FROM VOLUMETRICALLY WEIGHTED HUMXDITYlDEWPOINT SENSOR INDICATIONS.
LEAK SIM SIMPLE TOTAL TXME, MEASURED LEAKAGE RATE.
LEAK FIT LEAKAGE RATE CALCULATED FROM FIRST ORDFR REGRESSION OF SIMPLE TOTAL TIME LEAKAGE RATE DATA.
95<o UCL UPPER LIMIT OF THE 95 o CONFXDFNCE LEVEL OF FITTED LEAKAGE RATE DATA.
AXR MASS CONTAINMENT AIR MASS.
NOTE FOR TABULAR DATA
- 1. TABI E VALUES OF ZERO SIGNIFY THE DATA XS NOT APPLICABLE TO THE CALCULATION.
'REJECTED'IGNIFIES THE SAMPLE WAS RFJECTED.
'DELETED'IGNIFIES THE -ENSOR WAS DELETED.
NOTE FOR THE CURVES
- 1. NUMBERS CLOSEST TO LEFT MARGIN ALONG ABSCISSA REPRESENT SAMPLE NUMBERS.
- 2. NUMBERS CI OSEST TO ABSCISSA REPRESENT TIME FROM BEGINNING OF MODE IN HOURS.
'E JECTED 'IGNIFIES THE SAMPLE WAS RF JECTED
ILRT VARIABLE TABLE SUNNA RY AM TINE AVE TENP PRESSURE VAP PRES LEAK SIN LEAK FIT UOL ATR NABS HOURS DEG F PSIA PSIA %/DAY ~o/DAY <n/DAY LBS Bled 0.00 81.569 55.3750 . 3741 0.000 0.000 0.000 685680
~ 25 81.512 55.3680 . 3745 .263 0 000 0.000 685663
.50 462 55.3610 .3749 .345 0.000 0.000 685631 4 ~ 75 81.401 55.3550 .3756 .253 . 28>2 .970 685626 5 1.00 81.348 55.3490 .3771 .284 .282 .534 685599 6 1.25 81.300 55.3430 .3786 .318 .302 .473 685567 7 1.50 81.247 55.3360 ~ 3792 .330 . 31'9 ~ 448 685539 8 1.75 81.191 55.3300 .3792 .291 ~ 310 .422 685535 9 2.00 81.139 55 '240 .3787 258 . 291 .400 685533 0 2.25 2.50 8'94 55.3180 .3788
~
.260 .279 .378 685513 11 81.041 55.3120 ~ 3784 ~ 238 ~ 263 .357 685510 2.75 80.990 55.3060 .3781 .224 . 248 .337 685504 3.00 80.942 55. 3010 .3781 .207 .231 ~ 318 685503 3.25 80.888 55 '950 .3779 .196 .216 .299 685498 5 3.50 80.843 55.2900 ~ 3777 .185 ~ 202 ~ 281 685495 6 3.75 80.800 55.2840 .3775 .188 .192 .267 685479 17 4.00 80.751 55.2790 .3773 .175 ~ 181 .252 685480 8 4.25 80.704 55.2740 .3771 .165 F 170 .238 685480 9 4.50 80.656 55.2690 ~ 3770 ~ 156 .160 .225 685479 0 4.75 80. 613 55.2630 .3768 . 161. .152 .216 685462
~1 ~
5 00 F 80.569 55.2590 ~ 3766 .147 ~ 144 ~ 205 685470 5.25 80.520 55 '540 .3766 .14k .136 . 1'95 685469 5.50 80.482 55.2490 .3762 .140 ~ 129 .186 685460
- 5. 75 80.440 55.2440 .3762 . 140 ~ 123 .179 68545l 5 6.00 80.395 55.2390 ~ 3759 .134 . 117 .173 685450 6.25 80.354 55.2340 .3756 .112 167 685443
>7 6.50 80.313 55.2300 .3756 .127 .107 .l62 685445
)8 6.75 80.275 55.2260 .3754 .122 .102 156 685446 9 7.00 80.232 55. 2210 .3750 ~ 119 .097 .351 685442 0 7.25 80.196 55.2170 .3749 .116 .093 685441.
>1 2
7 '0 7.75
- 80. 158 80.122 55.2130 55.2090
.3747
.3745
.112 .089 146 142 685440
~ 109 .085 . 138 685439 F 00 80.084 55 '050 .3743 106 .081 .134 8 '5
~ 685439 80.047 55.2OSO ~ 374l .102 .077 .130 685439
SENSOR .VOLUME F RACT IONS TEMPERATURE SENSORS 1 TO 5 ~ 0267078 ~ 0267078 ~ 0267078 .0267078 .0267078 6 TO 10 0267078 .0267078 .0267078 .0267851 .026785l ll TO 15 16 TO 20
~
~ 0267851
.0267851
.0267851
.0267851
.0267851
.0267851
.0267851
.0240370
.0267851
.0240370 21 TO 25 .0240370 .0240370 .0240370 .0240370 .0240370 26 TO 30 .0240370 .0240370 .0240370 .0226618 .0226638 31 TO 35 ~ 02266.18 .0226618 ~ 0226618 .0226618 .0226618 36 TO 40 n.nnooooo ~ 022663 8 .O484ll.O .0484110 o.oooonno HUMIDITY/DP SENSORS 1 TO 5 .0733350 .0733350 .0733350 .1200850 .1200850 6 TO 9 ~ 1200850 .1399130 .1399130 .1399130 TE:. VALUE OF ZFRO INDICATES A DELETED SENSOR.
ILRT VARIASLE TABI E
SUMMARY
'AMPLE DELTA TENP 1 TEMP 2 TENP 3 TEMP TEI"IP 6 iUMGER HOURS DEG F DEG F DEG F DEG F DEG F 1 0.00 75.856 77 '37 75.908 76.318 75.687 75.451 2 .25 75.825 77 '26 75.908 76.329 75.656 75 '62
.50 75.825 77.0lS 75.908 76.329 75.678 75.442 4 .75 75.836 77.015 75.897 76 '18 75.678 75. 45.1 1.00 75 '45 77.026 75.908 76.329 75.678 75.462 1.25 75.832 77.035 75.906 76 '24 75.685 75.469 7 1.50 75.825 77. 035 75.888 76.318 75.678 75.462 1.75 75.825 77.006 75.877 76.306 75.698 75.462 2.00 75.843 77.001 75.906 76.324 75.696 75.449 10 2.25 75.836 77.026 75.897 76.318 75.698 75.462 l,l 2 50 F 75.825 77.015 75 '97 76.318 75.687 75.462 2.75 75.856 77 '06 75.897 76.318 75.698 75.462 13 3.00 75.825 77.006 75 '97 76.329 75.698 75.473 14 3.2S 75.845 77.006 75.897 76.318 75.698 75.473 15 3.50 75.836 76.963 75.908 76.318 75.69R 75 '62 16 3.75 75.845 77 006 75.897 76.318 75.710 75.473 17 18 4.00 4.25 75.825 75 '43 F
76.984 76.990 75.908
- 75. 915 76 '18 76.313 75.721 75 '07 75.473 75.469 19 4.50 75.843 76. 990 75.906 76.313 75.696 75.480 2.0 4.75 75.836 76.972 75 '08 76.318 75 '.10 75.493 21'2 5.00 75.845 76.984 75.908 76.318 75.721 75.473 5.25 75.820 76.970 75 '15 76 '24 75 '16 75.480 5.50 75.845 76.963 75.90S 76.318 75.721 75.484 24 5.75 75.856 76.972 75.908 76.338 75.721, 75.504 76.3lS
'5 6 .00 75.836 76.963 75.908 75.732 75.493 26 6.25 75.867 76.963 75 '08 76.318 75.732 75.493 27 6.50 75.845 76.952 75 '97 76.329 75.732 75.493 28 6.7S 75.836 76.952 75.908 76.329 75.741 75.504 29 F 00 75.820 76.970 75.906 76.324 75.728 75.502 30 7.25 75.843 76 '48 75.895 76.304 75.739 75.502 31 7.50 75.845 76.941 75.90S 76.318 75.741 75.4S4 32 7.75 75.836 76.941 75.908 76.329 75. 74.1 75.504 8.00 75.843 76.928 75 '15 76.313 75.750 75.491 34 8.25 75.836 76.941 75.888 76.3lS 75.741 7S.S04
Il..RT VARIABLE TABLE
SUMMARY
AMPLE DELTA TEMP 7 TEMP 8 TEMP 9 TEMP 10 TEMP 1.1, TEMP 12 UM6E R HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 75.625 75 '68 83.536 83. 454 83.696 $ 3.433 2 .25 75 '25 75.379 83.451, 83.35$ $ 3.580 $ 3.337
.50 75.637 75.3SS 83.364 $ 3.272 83.516 83.261 4 ~ 75 75.625 75.379 83.236 83.176 83.40$ 83.J76 5 1.00 75.625 75.388 83.171 83.102 83.335 $ 3.091 6 1 ~ 25 75.634 75.3$ 6 83.073 83.012 S3.268 82.992 7 1.50 75.625 75.36$ 83.0J3 82.92J. 83,163 82.929 8 1.75 75.637 75.3$ 8 82.92$ 82.856 83..112 82.833 9 2.00 75.634 75.386 82.83$ 82 766 83.011 82.766
'67
~
10 2.25 75.637 75.388 82 $ 2 694 $ 2.940 $ 2.694 11 2.50 75.637 75 '79 82 6S2
~
~
$ 2.620 82.866 82.609 12 2.75 75.625 75.3$ $ 82.606 82 544 82.7$ 1 $ 2.535
'37
~
13 3.00 75 75.3SB 82.552 82.470 $ 2.70S 82.470 14 3.25 75.637 75.400 82.490 82.385 $ 2.62J S2.394 15 F 50 75.648 , 75 '88 82.402 82.331 82.556 82.342 16 3.75 4.00 75.637 75.659 75.388 $ 2.329 82 '46 82.493 $ 2.266 17 75.400 82.2$ 6 82.192 82.429 $ 2.204 1$
19 4 '5 4.50 75.646 75.646 75.397 7S.3$ 6 82.20$ $ 2.125 82.362 $ 2.125 82.134 $ 2.071 82.286 82.060 P.O 4.75 75.637 75.400 $ 2.0$ 3 82.01J 82.226 $ 2.011 QJ,'2 F 00 75.64$ 75.388 82.009 Bl . 946 82.1$ 3 Bl.946 5.25 75.646 75.397 SJ .942 SJ .890 82.J]6 $ .1 . 879 5 50 F 75.648 75.411 81.870 81,.818 82 056
~ 81 . 838 5.75 75.659 75.411 BJ.$ 28 SJ .764 81, 991 $ 1.773 25 6.00 75 '59 75.411 81.774 SJ .721 8,1.. 926 BJ.722 26 6.25 75 '37 75.400 $ 1.721 81.645 $ 1.864 $ 1,66$
27 28 6.50 6.75 75.64$
75 '48 75.411 75.411 8'56
$ 1.624 81.603 81.822 81..603
$ 1.549 BJ .779 SJ . 550 29 7.00 75.646 75.397 81 .557 8.1 .493 81.710 $ 1. 494 30 7.25 75.623 75 397 SJ .493 SJ . 450 BJ . 6('~8 BJ .451 31 7.50 75.637 75.411 Sl. 475 81 399 $ 1. 6J,9 32 7
'5
,00 75.64$
75.634 75.4ll 75.397 81 . 399
~
$ 1.356 $ 1.565
$ 1. 4 11
$ 1.357 81.354 81.300 81.51$ 81.301 8.25 75.637 75.411 $ 1.303 81.249 81. 469 81.261
XLRT VARXABLE TABLE $ UMMARY NPLE DELTA TEMP 13 TEMP 14 TENP 15 TEMP 16 TEMP J7 TFMP J 8 JMPE R HOUR$ DEG F . DEG F DEG F DEG F DEG F DEG 1 0 00 F 83.497 83.534 83. 447 83.598 $ 3.590 83.539 2 .25 83.410 83.438 83.3S1 83.502 83.493 83.443 F 50 83.325 83.353 83.277 83.394 83.406 83.367 4 ~ 75 83.240 83.256 83.190 83.329 83.320 63.271 5 1.00 83.166 83.180 83.094 83.233 83. 246 83. J 97 1.25 83.077 83.101 83.027 83.166 $ 3.157 83.108 7 1.50 $ 3.005 83.009 82.924 83.063 83.085 83.025 8 1.75 82.92n 82.944 82.848 83.009 83.000 82.940 9 2.00 82.842 $ 2.846 82 772
~ 82.911 82.92J 82.862 10 2.25 82.770 82 783
~ 82.700 82.848 82.849 82.781 11 2.5Q 82.,694 82.709 82.635 82.7S5 82.773 82.705 12 2.75 82.632 82.633 82 550
~ 82.709 82.699 82.641 13 3.00 82.547 82.S59 62.486 82.613 82.614 82.556 14 3.2S 82.471 82.485 82. 421 82.559 $ 2.549 82.493 15 3.SQ 82.406 82.431 82.347 82.486 82.486 $ 2.428 16 3.75 82.3S4 82.35S S2.282 82.42J. 82 42J
~ 82.363 17 4.00 82.267 82.292 S2.20$ 82.347 82.356 82.290 16 J9 4 '5 4.50 82.200
'46 82 225
~ 82.1SQ 82.289 S2.2$ 8 82.223 82 82 159
~ 82.076 82.226 82.223 $ 2.J69 2n 4.75 $ 2.086 82.099 82.036 82. J 66 82. 174 $ 2.097 5.00 82.032 82.045 81.962 82.089 82. 100 $ 2.044 23 5 '5 5.50 8'54 81.905 81.976 8'95 82.033 82.042 81.977 SJ.915 $ 1.835 SJ.982 81.992 BJ'. 936 2-4 5.75 8.1 .851. 8.1 . 863 8.1 . 781 81. 9.1.9 81.927 BJ.674 25 6.00 81.798 SJ .798 81.727 81.877 SJ .$ 73 BJ,. 820 26 6.25 81.744 $ 1.7S6 Sl.674 81.812 81.811 81.755
'27 6.5n 81. 6$ J, 81.702 .620 BJ .747 BJ .766 $ 1.702 28 6 '5 7.00 81.628 81.570 Bl 648
~
$ 1.592 BJ 81.566 61.705 81.714 S.l.. 648
- 81. 51J BJ.637 81.656 SJ .6Q3 30 7.25 81.538 S1.55$ 81.457 SJ.595 81.602 81.550 31 7.50 SJ .4$ 9 BJ,. 49$ SJ .417 81.546 Sl..564 SJ.498 3~ 7.75 81.436 Sl . 455 81.363 81.501. $ 1.510 81.456 8.00 BJ .400 81.399 81.307 $ 1.456 SJ . 463 81.400 34 S.25 81.339 81.359 61.267 8'0S 8.1.4J.4 81.360
ILRT VARIABLE TABLE
SUMMARY
AMPLE DELTA TEMP 19 TEMP 20 TEMP 21 TEMP 22 TEMP 23 TEMP 24 MEfE R HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 82.S30 82.541 82.820 82.800 8'92 83.538 83.005 82.907 2 ~ 25 82.650 83.442 83.005 82.907
.50 82.530 82.795 S2.634 83.395 82.927 82.871 4
5
.75 1.00 82.48$
$ 2i392 82.777 82.746 82.607 82.585
$ 3.400
$ 3.292 8'66 82.$ 44 82 810F
$ 2.757 6 1.25 $ 2.347 82.692 82.522 83.230 82.844 82.746 7 1.50 82.3.18 82 692
~ 82.596 83.196 82.759 $ 2.703 8 1 75
~ 82.295 82.596 82.531 83.080 82.694 82.660 9 F 00 $ 2.260 82.S53 82.4$ 0 83.038 S2.620 82.629 10 2.25 $ 2.253 82.531 82.513 $ 2.962 $ 2.609 82.575 3,1 2.50 82.233 82.488 82.500 82.$ $ 8 82.544 82.544 3.2 2 'S 82.399 82.457 8'03 82. 83 2 82.502 82.530 13 3.OO 82.3,90 82.414 82.381 82.73$ 82 459 82.479 34 15 3.25 3.50 82.134 82.072 8'27 82.330 82.685 $ 2.428 82.436 82.31S 82.372 82.620 82.374 82.371 36 3.75 $ 2.QJS 82.273 82.372 82.577 82.352 $ 2.360 17 4.00 82.029 $ 2.168 82.330 S2.492 82.299 82.297 18 a.25 81.982 82.222 82.200 8'50 82.236 $ 2.244 39 2Q 4.50
'5 81.928 81.879 82.134 Sled
$ 2.049 Sled 82.168
$ 2.126 8'85 $ 2.225 Sled 82.190 4 $ 2. 33.1 $ 2..160 82.379 21'2 5.00 S1.826 82.049 82.092 82.278 $ 2.129 82. J.14 5.25 83 .770 83 .964 82.050 $ 2.204 $ 2.064 82.071 5 50 F 81. 761 81.942 -"82.007 82.153 82.010 S2 029
~
24'6 5.75 83.709 $ 1.888 83.953 82.10$ 83.96$ $ 3 .975 6.0Q 83.656 81.792 81.$ 79 82.032 83.905 81.964 6.25 Sl.622 81.771 81.846 83.970 81.863 $ 3 .930 27 6.50 81.559 $ 1.738 81.761 $ 1.936 $ 1.$ 18 $ ,1,. $ 58 28 6.75 $ 3.526 706 83.707 83.$ 73 81.764 $ 3 .836 7.00 S1.459 664 $ 1.707 81.820 713 Sl .773 30 7.25 81.436 81.633 81.644 81.777 $ 3.6SO $ 3 .740 31 7.50 81.398 81 588 F 81.579 81. 744 81.637 $ 3 .697 32 7.75 83 .356 81.525 81.514 S1.670 83.595 81.675 8.00
$ .25 81.309 81.491 81.494 81.617 81 '41 83.. 643 81.271 81.483 81.461 $ 3 .594 81.4$ 7 $ 3 .567
ILRT vARIABLE TABLE sUNNARY ANPLE DELTA TEMP 25 TENP 26 TEMP 27 TENP 28 TENP 29 TEMP 30
! UJ18ER HOURS DEG F DEG F DEG F DEG F DEG F DEG F 0.00 82.244 83.009 S0.969 83.132 83.443. 83.801
~ 25 82.224 82.957 80.946 83.058 83.377 83.714
.50 82.197 83.060 80.973 83.013 83.298 83.624
.75 82.224 S2.849 80.915 82.982 83.204 83.555 1.00 82 '70 82.892 80.893 82 '62 83.308 83.458 1.25 82.128 83.042 80.946 82.866 83.023 83.371 7 1.50 82.159 82. 93 2 80.904 82.920 82,949 83.2S6 8 1 ~ 75 82.106 82.838 80.969 82.747 82.873 83.232 9 2.00 82.148 Bled 82.849 80.808 82.770 82.765 83.147 10 2.25 82.128 82.807 80.754 82.779 82.723 83.071 33 2.50 82.074 82.807 80.732 82.674 82.638 02.986 32 2.75 82.085 82.710 80.700 82.640 82 '53 82. 90,1 13 3.00 82.063 82.710 80.647 82.578 82.488 82.847 34 3.25 83 .967 82.614 80 562
~ 82.524 82 414 F 82.773 35 3.50 998 82.569 80.540 82.470 82.349 82.697 I
16 3.75 81.967 82.4s4 80 434 82.448 82.307 82.632 37 4.OO 81.967 82.421 80.423 82.374 82 21.1
~ 82.580 le 4.25 8.1, . 924 82.398 80.347 82.341 82. 146 82.504 19 4.50 83.. 924 82.356 eo.3n5 82.245 82.083 82.439 20 4.75 81..860 82.291 80.2S5 82.224 82.029 Br2. 386 5.00 83 .806 82.228 80.209 82.360 81 '64 82.3 3 22 5.25 8.1.. 744 82.163 80.189 82 '95 81.911 82.269 23 r?4 5.50 5.75 81.797 81.764 82.098 82.044
- 80. 3,13 80.059 82.032 82.010 8'46 81.761 82 '04 82.150 25 6.no 81.656 82.n33 80.028 83.956 81.729 82.088 26 6.25 81.656 S.1.. 959 79.974 81.903 81.676 82.045 27 6.50 83 ~ 614 81.905 79.932 81.853 83 .622 83 .991 28 6.75 81.560 8.1 . 862 79.889 81.797 8.1.. 580 81.927 29 7.00 83.509 81. 809 79.802 83 .764 83 .535 81.884 30 3.1 7 '5 7.50 81.486 e,l .390 81.766 83.723 79.793 79.739 81.701 83.657 81.472 83 .443 81.830 81,,777 32 7.75 S.no 81.368
'48 81.670 81.627 79 '06 79.655 81 '05 81.365
- 81. 322 83.. 734
.693 81 8) 57% 83 8.25 83..3nb 81..573 79.601 81.509 81.. 280 81,. 638
ZLRT VARIABLE TABLE
SUMMARY
AMPLE DELTA TEMP 31 TEMP 32 TEMP TEMP 34 TEMP 35 TEMP 36 UMBER HOURS DEG F DEG F DEG F DEG F DFG F DEG F 1 0.00 81.965 83.1S4 83.410 Bl.474 83.373 DELETED 2 .25 81.889 83.110 83.304 81.389 83.288 DELETED
.50 81.800 83. 03 9 83 224
~ 81.288 83.230 DELFTED
.75 81.708 82.93$ 83.132 81.205 83. 3 38 DFLETED 5 1.00 81.624 82.853 83.047 Bl.1.19 83. 042 DCLFTFD 6 1.25 81.548 82.757 82 951
~ Bl.054 82.977 DELETED 7 1.50 81.452 82.669 82.8$ 6 80..969 82.880 DELETED 8 1.75 81.378 82.618 82.801 80.873 82.S06 DELFTED 9 2.00 81.302 82 510
~ 82.716 80.799 82.710 DELETED 10 2.25 2.50 81.229 82 445
~ 82.640 $ 0.7ll 82.656 DELETED 11 81.144 82.349 82.S75 80.637 82.580 DEI ETED 12 2.75 Bl.079 82.284 82.501 80.583 82.484 DELETED 13 3.00 81.003 82.222 82 428
~ 80 487
~ 82.441 DELETED 14 3.2S 80.941 82. 3 57 82.352 80. 433 82.356 DELETFD 15 3.50 80.865 82.060 82.287 80.348 82.303 DELETED 16 3.75 80.803 82.018 82.213 80 294
~ 82.238 DELETED 17 4.00 80.738 81 .942 82.148 $ 0.229 82.153 DElETFD 18 4.2S 80.684 81.879 82.0$ 5 80.144 87.079 DELETED 19 4.50 80.600 81.803 82.021 80.079 $ 2.036 DFLFTED 20 4.75 5.00 80.546 S0.481 83 .749 81.686 8'56 81.893 80.016 81.949 DFLETED 21'2 79.974 ,81.906 DELETED 5.25 $ 0.428 81.644 Bl .828 79.897 Bl . 841 DELETED 5.50 80.374 81.568 81.775 79.844 81.779 DELETED 24 5.7S 80.321 81.503 81.721 79. 781 $ 1.714 DELETED 25 26 6.00 6.25 80.258 80.205 81.449 81.656 79 '27 81.671 DELETED 81.398 81 .602 79.662 83 .595 DEL E TED 27 6.50 80-151 81.353 81..551 79.619 83 .552 DELETED 28 6.75 80.109 Bl .301 S1.506 79.566 Bl . 499 DELETED 29 7.00 SO.OSS 81.248 81.455 79.512 81.456 30 7 '5 7.50 79.991 79.937 81.183 81.129 Bl. 401 79.458 Bl .394 DELETFD DELETED 33 81.356 79.415 BI..329 DELETED
&2 7.75 79.906 81.098 81.294 79.361 81.297 33 34 8.00 8.25 79.852 79 '99 81.044 80.990 Sly 2S1
$ 3 .19$
79 'l9 79.276 8,1,. 255
$ 1. 20,1 DFLETED DFLETED DELETED
I ILRT VARIABLE TABLE SIJMNARY ANPLE DELTA TEMP 37 TENP 38 TEMP 39 TEMP 40 tJMBER HOURS DEG F DEG F DEG F DEG F 1 0.00 83.364 83.268 83. 453 DELETED 2 .25 83.26S 83.1S3 83.365 DELETED
~ 50 83.190 83.0'94 83.256 DELETED 4 .75 83.087 83.002 S3.173 DELETED 5 1.00 82.999 82.915 83.088 DELETED 6 1.25 82 '14 82.841 83.003 DELETED 7
8 1.50 1.75 82.841 82.753 82.745 82.669 8'27 DELETED 82.e42 DELETED 9 2.00 2.25 82.691 82.606 82 '77 DELETED 10 82.603 82.519 82.703 DELETED 11 2.50 82.530 82.457 82.607 DELETED 12 2.75 82.456 82.372 82 '42 DFLETED 13 3.00 82.391 82.296 82.479 DFLETED 14 3.25 82.326 S2.231 82 '92 DELETED 15 3.SO 82.252 82.157 82 '38 DELFTED 16 17 3.75 4.00 82.187
- 82. l 14 82.104 82 '65 DELETED S2.030 82.200 DELETED 18 4.2S 82.049 81.965 82.146 DELETED 19 4.50 4.75 81 .995 81.900 82 '61 DELETED 20 81.921 81.837 82.007 DELETED
~g v 5.00 81.868 81.784 81.945 DELFTFD 22 23 5.25 5.50 8'03 83 .749 83 .708 81.891 DELETED 81.665 81.837 DELETED 5.75 Sl . 695 81.612 81.772 DELETED 25 6.00 81.631 81 '47 81.719 DELFTED 26 6.35 81.579 81.484 81.665 DELETED A7 6.50 81.525 81 431 81. t'>13 DELETED 28 6.75 81.481. 81.377 81.558 DELETED 29 F 00 81.418 81 .323 81.515 30 31 7 '5 F 50 81.364 83.322 81.292 81.462 DEI.ETED DELETED 81.216 81.408 DELETFD 32 7.75 81.268 81.18S 81.365 DELETED 8.00 Sl . 226 S1.131 81.312 DELETED 34 8.25 8.1 . 172 81.077 81.260 DELETED
ILRT VARIABLE TABLE
SUMMARY
SAMPLE DELTA PRES 1 PRES 2 HUM 1 HUM 2 HUM HUM UMBER HOURS PSIA PSIA RH RH ~o RH RH 1 0.00 55.3580 55.3750 S3.34 56 85 F 56.96 66. 45 2 ~ 25 55 '510 55.3680 53.54 57.03 57.22 66.59
~ 50
.75 SS.3440 55.3380 55.3610 55.35SO 53.78 53.99 57.19 57.37 57 '4 57.55 66.89 67,68 5 1 ~ 00 55.3310 55.3490 54 14 F S7.54 57.74 70.09 6 1.25 S5.3250 S5.3430 54.29 57.70 57.90 72.71 7
8 1.50 1.75 55.3180 55.3120 55.3360 55.3300 54.49 54.70 57 '6 5$ .03 58 '0 5$ .10 73.98 74.07 9 2.00 55.3060 55.3240 54.87 58.22 58.29 74.15 10 2.25 55. 303 0 5S.3180 ll 12 2.50 2.75 55 '940 SS.2890 55.3120 SS F 55.24 08 58.38 58.54 58.47 5$ .60 74.26 74.13 S5.3060 S5.38 SA.70 5$ 76 74.23 13 F 00 55.2830 55.3010 55 56 F 58.84 58.99 74.31 14 3.25 55.2770 55.2950 55.77 59.03 59.02 74.71 15 16 3.50 3.75 55.2720 5S.2660 55 2900 55.2840 55 '7 56.06 59.17 59.26 74. 75
, 59.42 S9. 17 74.81 17 4.00 55.2610 55.2790 56.27 59.61 59.54 75.10 18 19 4.25 4.50 55.2560 55.2510 55.2740 55.2690 56.41 56.59 59 '2 60.01 59.98 60.08 75.04 75.46 20 4.75 55.2460 55.2630 56.71 60.23 60.42 75.26 01-. 5.00 55.2410 55.2590 56.88 60. 4.. 60.5$ 75.51 Pg+ 5.25 55.2360 55.2540 57.07 60. 61 60.82 75e74 A. 3 S.SO 55. 233 0 55.2490 57.2L 60.79 61. 04 75.70 24 25
~
5.75 6.00 55.2270 S5.2220 55.2440 55.2390 57.36 57.53 60.99 61.17 63.30 61.31 75 '2 75.96 6.25 SS.2180 55 '340 57.66 61.36 61.44 76.07 27 6.50 55.2130 55.2300 57.85 61.56 61.43 76.13 28 6.75 55.20'90 5S.2260 57.93 61.73 63 .65 76.20 29 7.00 55.2050 5S.2210 58.08 61.91 62.01 76.17 30 7.25 5S.2010 55.2170 58.24 62.08 61.93 76.26 31 7.50 55 1970 55.2130 58.47 62.26 62.22 76.27 A2 7.75 55.1930 55.2090 58.67 62.43 62.3d 76.24 33 8.00 55.1890 SS.2050 58.85 62.60 62.40 76.32 8.2S SS.l850 55.2010 59. 03, 62.75 62.63 76.34
ILRT VARIABLE TABLE
SUMMARY
ANPLE DELTA HUM 5 HUM 6 HUN 7 HUN 8 HUN IVMSER HOURS RH -o RH RH RH RH 1 0 00F 76.91 73. 84 74. 94 74.62 75.27 2 .25 77.17 74.37 75.04 74.68 75.34
.50
.75 77 '2 78.08 74 '1 74.83 75.20 74 '9 75.44 4 75.18 74.85 75.50 5
6 1.00 1.25 78.35 78.28 74.93 75.05 75 '7 75.38 74.93 7S.56 74.96 75.62 7 1.50 78.37 75.12 75.39 75.04 75.68 8 1.75 78.71 75.20 75.51 7S.13 75.77 9 2.00 78.66 75.18 75.50 75.09 75.75 10 11 2.25 2 '0 78.67 78.8l 75.32 75.39 75.57 75.67 75 '2 75.24 75 88 F
75.91 12 2 '5 78 '8 75.44 75.68 75.33 75.93 13 3.00 78.87 75.47 75.73 75.38 76.04 15 3.25 3.50 78 85 78.79 75.53 75.57 75 '8 75.90 75 45 75.48 76.07 76.13 16 3.75 78 '1 75.58 75.90 75.57 76.20 17 4.00 78.73 75.61 75 '2 75.61 76.27 18 19 4.25 4.50 78 '3 78.79 75.64 75 '8 75 '6 76.03 75.65 76.32 75.64 76.37 20 4.75 78.78 75.74 76.17 75.71 76.42 p]
22 5.00 5.25 78.77 78.86 75.73 75.74
- 76. 16 76.21 75 '3 75 88 F
- 76. 49 76.53 d3 5.50 78 84 75.77 76.20 75.87 76.55 c)4 25 5.75 F 00 78 78.
'2 F
'94
- 75. 81
- 75. 79 76.26 76.36 75 '3 76 '2 75.98 76.66 26 6.25 78.86 75.79 76.40 75.99 76.61 27 6.50 78.99 75.84 76.48 76.10 76.75 28 6.75 78.98 75.84 76.50 76.06 76. 8 1.
29 7 F 00 78.95 75.85 76.48 76.13 76.79 30 7.25 79.00 75.90 76.57 76. 15 76 85 F
31 7.50 79.01 75.87 76.61 76.22 76.90 32 7.75 79.06 75.93 76.65 76.20 76.94 33 8.00 79 '6 75.93 76.68 76.26 76.96 34 8.25 79.12 75.94 76.71 76.29 76 '8
ILRT AIR MASS I 987 S t. Luc i.e Un i t MSXG C
O
~SKX a
0 1 2 3 4 5 6 Ebasco Plant Bervlcss T l me ln Hours
ILRT CDMPLITED LERKRBE RRTES 1887 8 t. Lux i e Un i t 0.5
+ Sllrtpl8 LBQkQQB RQtB Q Fitted Leakage Rate 0.4
+
+aQ
~ 0.3 + Q QOQQ+ Q y+Q
~Q
+Q Q
~ 0.2 +~ Q Q
<g++~~
D +
r QQ QQ
+g~ ++~
~ 0.1 Q
0.00 2 3 4 5 6 Ebosco Plont Bervlcaa Time ln HoUra
W ILRT LEHKHBE RHTES RELHTIVE TO LINITS t QS7 S t LUt: i 8 Lln i t )
C3 D G 0.9 O Fitted Leakage Rate D Upper Confidence Limit 0.8 0.7 2 0.6 DBBtgn LBQkGQB RQCB CLQ3 0.5 D 0.4 S
O-D 8 I I OMQb I 8 LBQkQQB RQ48
~ 0.3 GOGO 000 00 D D
00 0 DD 0.2 00 GG 0000 DDD DDDDDD OOG 0.1 OOOOOGOO 0.0 0 1 2 3 4 5 6 7 8 0 Ebost:o Plant Bsrvicas Time in Houre
I P'
lI
~
ILRT VE IGHTED HVERHBE TEMPERHTLIRE
)987 St. LUcie Unit 82.0 81.8 81.6o 0.
0,
- 81.4 0.
O.
81 .2 0.
0.
81.0 0-0.
0.
00 80.8 0.
L, 0 0.
~ 80.6 O.
0.0 80.4 0~ 0.
0.
80.2 0.
0-C 0.0 80 '0 2 3 -7 Ebosco Plant Services Time in Hours
.k ILRT t:ONTR INHENT ABSOLUTE PRESSURE
) 987 St. LUc: i e Unit 55.40 55.38~
+.
+
+.
+.
+.
, 55.34 '+.
+.
~ 55.32 +.'+.
C +.'+.
+.'+.
, 55.30 +.
+.
55.28 +.
+.
+.
+Qq 55.26 +.
+.
+.
55.24 +4
+Q q +.
+~q
+ Q+
+Q q
200 3 2
Ebasco Plant Services Time tn Houra
H P
lf rr I
'T 4
ILRT MEIBHTED HVERHBE VHPGR PRESSURE
)987 St. Lucie Un) t 0.400 0.395
~ 0.385 0.380 IF'~
Fi +> +~+~+~+e ~
yr
+-+-K-%-y; ~ @.+ .
+
I 0.375< K-K
~ 0.370 L
f 0.365 0.360 0.355 0 7' 1 2 3 4 5 6 Ebosco Plant Services Time in Houra
.1 j
J I
CLRT TEST NODE t
987 St Lucre Uni No 1 Periodic Te t Sequence Star Sequence Ended ted 07 3 1
=
=
OO Hours 3 j'22('87 3 S Hours 6/22/87 ESASCO PLANT SE RV X CES
~ X NC XLRT Test Services
St. Lucie 1 Periodic CONTAINMENT INTEGRATED LEAKAGE RATE TEST SUPPLEMENTAL VERIFICATION TEST LEAKAGE RATE XS MEASURED USING THE ABSOLUTE METHOD AND XS COMPUTED U - ING THE TOTAL TIME METHOD XN STRICT ACCORDANCE WITH TOPTCAL REPORT BN-TOP-1 (REV. 1) .
TEST PERIOD STAR~ED AT 7: 0 HOURS ON Z/22/87 TFST CONDUCTED FOR 4.25 HOURS FREE SPACE VOl UME OF CONTAINMENT XS 2,500000 CU FT CONTAINMFNT WAS PRESSURIZED TO 55. 18 PSXA FITTED TOTAL TIMF XLRT LEAKAGE RATE Lam . 077 ~ PE P. DAY CONTAINMENT DESIGN LEAKAGE RATE La .500 ~ PER DAY SUPE RXMPOSED CLRT LEAKAGE RATE Lo 3] 8 o PER DAY FITTED CI RT TOTAL TIME LEAKAGE RATE Lc .324 ; PER DAY I
Lo + Lam La/4 =< Lc =< Lo + Lam + La/4
.i18 + .077 .125 =< .324 =< .318 0 .077 + .125
.270 =< .324 =< .520
DESCRIPTION OF VARIABI ES AVE TEMP CONTAXNMENT MEAN TEMPERATURE CALCULATED FROM VOLUMETRICALLY WEIGHTED RTD -ENSOR INDXCATION-.
PRESSURE PRIMARY CONTAXNMENT PRESSURE XNDICATION.
VAPOR PRES CONTAINMENT VAPOR PRESSURE CALCULATED FROM VOLUMETRICALLY WEIGHTED HUMIDITY/DEWPOXNT SENSOR INDICATIONS.
LEAK SIM SIMPLE TOTAL TIME MEASURED LEAKAGE RATE.
LEAK FXT LEAKAGE RATE CALCULATED FROM FIRST ORDER REGRFSSXON OF SIMPLE, TOTAL TINE LEAKAGE RATE DATA.
95'. UCL UPPER LIMIT OF THE 95~ CONFIDENCE LEVEL OF FITTED LEAKAGE RATE DATA ~
AIR MASS CONTAINMENT AX R MASS.
NOTE FOR TABULAR DATA
- 1. TABLF VALUES OF ZERO SIGNIFY THE DATA IS NOT APPLICABLE TO THE CALCULATION.
- 2. 'REJECTED* SIGNIFIES THE SAMPLE WAS REJECTED.
- 3. 'DELETFD' IGNIFXES THE -ENSOR WAS DEI ETED.
NOTE FOR THE CURVFS
- 1. NUMBERS CLOSFST TO LEFT MARGIN ALONG ABSCISSA REPRESENT SAMPLE NUMBFRS.
- 2. NUMBERS CLOSEST TO ABSCISSA REPRESENT TIME FROM BEGINNING OF MODE XN HOURS.
'REJECTED'GNXFXFS THE SAMPLE WA REJECTED.
I l
CLRT VARIABLE TABLE SUMNARY SAN TINE AVE TENP PRESSURE VAP PRES LEAK SIN LEAK FIT UCL AIR NASS HOURS DEG F PSTA PSIA -"/ DAY r/DAY ~/DAY LRS 1 0.00 79.903 55.1790 .3734 0.000 o.ono 0.000 685356 2 .25 79.864 55 '730 .3730 .305 0.000 0.000 685334
.50 79.831 55.1680 .3730 .289 0.000 0.000 6853l5
.75 79 '95 55.1630 .3727 .257 .260 .324 685301 5 1.00 79.764 55.1570 .3725 .306 ~ 285 .425 685268
'6 1. 25 79.734 55.1520 .3723 ~ 307 .297 .392 685246 7 1.50 79.702 55.1470 .3721 ~ 300 .300 .371 685227 8 1.75 79.668 55.1420 .3718 .289 .296 .356 6852l2 9 2.00 79.636 55.1360 .3715 .309 .302 . 354 685180 0 2.25 79.611 55.1310 .3717 ~ 325 .312 .361 685147 1 2.50 79.577 55.1260 .3714 314 .315 359 685132 12 2 '5 3.0O 79.554 79.521 55.1210
- 55. 1 J.70
.3714
.3711
~
.327 305
. 321
.319
~
.362
.359 685099 685095 3 '5
~
4 79 '93 55.1110 ,3708 .322 ~ 322 .359 685057 1.5 3. 50 79.466 55.1070 .3706 .312 ~ 32J, .358 685044 6 3.75 79 55.J020 .3706 ~ 32l ~ 323 .358 6850l2 7 4.00 79. 414 55.0970 .3703 .320 ~ 324 .357 68499l
>8, 4. 25 79.386 55.0930 .3701 . 312 .324 .356 684977
'I I
SENSOR VOLUNE FRACTIONS TEt1PERATVRF SENSORS
- 3. TO 5 .A267078 . 0267078 .0267078 ,.0267078 0267079 6 TO 10 ~ 0267078 .0267078 .0267078 .0267853 0267853 33 TO 35 .0267853 .026785'1 . 02678 i3. .0267851 0267851 16 TO 20 .0267851 .0267851 ..0267853 .0240.>70 A240 ~70 23 TO 25 .0240.>70 .0240~~70 .0240~70 .0240a70 0240 >70 26 TO ~0 .024037A .0240370 0740 )70 .0226618 A226618 at TO S5 .02266).8 . 0226618 .022661.8 ~ 022661.8 02266IP.
a6 TO 40 Q.QAQAAQQ .0226b.18 .0484330 .0484110 n. GAQGAAQ tcuVIDIT Y/r~r SENSORS
- 3. 70 5 .A733350 . 073.'>350 .A735;%50 .trnn850 3200850 6 TO 9 ~ 1.200850 . 1,~993 cn .1399330 . 3..~993 . ~A ATE-. VWLuv OF;L"RO ZtvnvnrnES W ATE( FTEn SEN OR.
CLRT VARIABLE TABLE
SUMMARY
AMPLE DELTA TENP 1 TENP 2 TEMP 3 TEMP TEMP 5 TENP 6 MBER HOURS DEG F DEG F DEG F DEG F DEG F DFG F 1 0.00 75.825 76.930 75.908 76.306 75. 741 75.515 2 ~ 25 75.825 76.930 75.888 76.306 75 '41 75.515
.50 75.825 76.941 75.888 76.306 75.741 75.504 4 .75 75.800 76.928 75.895 76.293 75 '28 75.513 5 1.00 75.843 76.917 75.883 76.304 75.728 75.S13 6 1.25 75 '32 76.905 75 '95 76.304 75.739 75.513 7 1.50 75 '14 76.910 75.888 76.295 75.741 75.527 8
9 1 '5 2.00 75.836 75.825
- 76. 910 76.919 75.888 75.897 76.295 76 306 75.752 75.732
- 75. 51.5 75.504
,10 2.25 75.825 76.919 75 '77 76.295 75.732 75.515 11 2.50 75. 812 76.894 75.872 76.293 75.728 75.522 12 2.75 75.825 76.910 75 888 F 76.295 75 '41 75.527 13 F 00 75.820 76.894 75.895 76.304 75.739 75.513 14 3.25 75.812 76.8S5 75 '95 76 '93 75.728 75 513 15 350 75.836 76.899 75.897 76.306 75.741 75.515
,16 3.75 75.836 76.88S 75.897 76.295 75.741 7S.515 17 4.00 75.825 76.910 7S.SBS 76.295 75.741 75.504 18 4.25 75.S36 76.SBS 75.897 76.295 75.741 75.515
CLRT VARIABLE TABLE
SUMMARY
'AtiPLE "JNBER DELTA HOURS TEMP DEG F 7 TENP DEG F 8 TENP DEG F 9 TEMP 1.0 DEG F TEMP DEG F ll TENP 12 DEG F 1 0.00 75.625 75. 411 81.122 81.047 81.277 81.068 2 .25 75.605 75. 400 81 068
~ 81.025 81.. 224 81.026
.50 75.617 75.388 81.037 80 '71 81.181 80.983 4 .75 75.612 75.386 80.970 80 '26 81.145 80.936 5 1.00 75.612 75.409 80.947 80.883 81.092 80.893 6 1.2S 75.623 75.397 80.894 sn.ssn 81.061 80.862 7 1 50 75.617 75 400 80.887 80.812 81.021 80.813 8 1 .75 75 617 75.411 80.833 80.758 80.967 80.779 9 2.00 75.617 75.400 80.780 80 724
~ 80 '36 80.737 10 2.25 75.617 75.388 80.748 80.682 80.893 80.683 11 2.50 75.601 75.386 80.724 80 637 80.858 80.65S 12 13 2 '5 3.00 75.625 75.612 75.400 7S.397 80.663 80.617
~
80.608 80.572 80.820 80.784 80.620 80.584 14 3.25 75.612 75.397 80.608 80.529 80.742 80.542 15 3.50 75 '37 75.400 80.556 80.500 80.702 80 502 F
16 3.75 75 '37 75.411 80.536 80.458 80.670 80.479 17 4.00 75.617 75.400 80.491 80.426 80.628 80.437 1.8 4.25 75.625 75.411 Bn 460 80.393 80.594 80.405
I.
h el" CLRT VARIABLE TABLE SUMNARY AMPLE DELTA TEMP 13 TENP 14 TENP 15 TEMP 16 TEMP 17 TEMP 18 MBER HOURS DEG F DEG F DEG F DKG F DEG F DEG F Sled 1 0.00 81. 158 81.166 81.086 81.212 81.221 81.. 168
~ 25 81.105 81.112 81.032 81.170 81.178 81. 114
.50 81 . 062 81.070 80.990 81.'116 81.1,35 81.0S3 4 ~ 75 81.015 025 80.934 81.071 81 . 088 81.036 5 1.00 80 984
~ 80 980
~ 80.902 S1.029 81.035 80.984 1.25 80.930 80.937 80.858 80.986 8.1 . 003 80.951 7 1.50 80.901 80.908 80.820 80.957 80.963 80.913 8 1.75 80.848 S0.866 80.777 80.'915 80.920 80 870
~
9 2.00 80.816 80.823 80.744 80.861 80.878 80.826 10 2.2S 80.774 80.792 80.701 80.830 80.846 80.794 11 2.50 80.738 80 '45 80.668 80.783 80.799 80.738 12 13 2.75 3.00 80.698
'62 SO. 715 80.671 80.639 80.580 80.7S4 80.718 8'70 80.709 80 80.725 80.674 14 3.25 3.50 S0.620 80.639 80.549 S0.675 80.691 80 '42 15 80.602 80.599 80.509 80.646 80.662, 80.602 16 3.75 80.559 80.567 80.478 80.604 80.620 80.582 17 4.00 80.517 80 534
~ 80.446 80 '72 RO.SSS 80.537 80.49S 80.502 80.413 80.541 R0.557 80.506
J)
CLRT VARIABLE TABLF
SUMMARY
Arn LE DELTA TEMP 19 TEMP 20 TEMP 21 TEMP 22 TEMP 23 TEMP 24
.IMBER HOURS DEG F DEG F DEG F ~
DEG F DEG F DEG F 1 0 00 F 81.099 81.279 Sl.279 8'02 81.326 81. 428 2 .25 81.045 81.225 81 '26 81.337 81.264 81.397
.50 81.014 81.203 81.183 81.317 81.230 83 .354 4 .75 Bl . 000 81.149 81.129 81.252 81.188 81.323 5 1.00 80.967 81.117 81.109 Bl . 221 8.1.. 157 81.269 6 1 25 80.935 81.075 81.076 81.179 81.114 81.258 8'36
~
7 1.50 3.75 80.875 80.844 81.032 S1.022 81 '72 81.215 8 80.994 80.995 8] 107
. 81.043 81.175 9 2.00 80.801 80.972 80.941 81 045 80.980 81.144
'l10 12 2.25 2.50 2 75 80.779 80.743 80.725 80.956 80.905 80.871 80.906 80.894 80.84k
~
81.029 80.975 80.953 80.953 80.922 80.880 Bl.ll9 81..086 Bl.043 13 3.00 80.647 80.829 80.787 80 899
~ 80.846 81.023 14 25 80.636 80.786 80.744 80.879 80 Bl5 80.980 15 3 50 80.609 80.790 80.726 80.830 S0.766 80. 95,1.
16 17 3 '5
~
4.00 80.575 80.544 80.732 80.710 80.702 80 670
~
80 803
~
80.772 80.761 S0.719
- 80. 91 5 80.873 1.8 4.25 80.490 80.678 80.617 80730 80.676 80.850 Ql
CLRT VARIABLE TABLE
SUMMARY
Vg ANPLE DELTA TENP 25 TENP 26 TEMP 27 TEMP 28 TEMP 29 TEMP 30 jMSER HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 81. ]45 81.380 79. 440 81.337 8] .098 8.1, . 434 2 ~ 25 81.122 81.338 79.398 81.283 81.022 8].. 391
.50 81.060 81.295 79.364 81.230 80.980 8] .360 4 .75 81.006 8'50 79.313 61.]99 8'0. 957 81.315 5 1 ~ 00 80.995 8] .208 79 '68 81.156 80. 915 81.253 6 1.25 80.941 81.176 79.225 S]..123 80. 86]. R]..219 7 1 ~ 50 80 9] 0
~ 81.134 79.] 94 8].OBQ 80.83o 81.188 8 1.75 S0.872 81.004 79.134 81.042 ,80.770 , 81.127 9 2.00 80.839 81.042 79.103 80.988 80.738 8.1 . A96
.10 2.25 80.8]4 81.026 79.067 80.973 80.714 Sl 060
'1] 2 '0 2.75 BO.772 80.738 80.972 80.941 79.033 79.002 80 930
~ 80.669 80.626 Sl.n]8 12 80. 91.0 80.973
'13 3.00 80.707 80.907 78.971 80.868 80 595
~ BA.941 14 3.25 80.664 BO.S65 78 '37 SO.825 80.553 80.910
]5 3 '0 3.75 80.6]5 80.60A 80.826 80.802 78.877 78.864 80.785 80.760
- 80. 5] 5 80.850
,16 80.488 80.S34 17 4.on 80.546 80.759 78.841 80.729 BA.445 80.780 18 4.25 80.526 80.726 7S 780
~ 80.696 80.4]4 80.760
I ~
CLRT VARIABLE TABLE
SUMMARY
AMPLE DELTA TEMP 31 TEMP 32 TEMP TEMP TENP 35 TENP 36 NBER HOURS DEG F DEG F DEG F DEG F DEG F DEG F 1 0.00 79.629 80.798 81.005 79.061 S1.008 DELETED 2 ~ 25 79.576 80.755 80.972 79.030 80.975 DELETFD
.50 79.533 80.713 80.918 78.976 80. 91.2 DELETED 4 .75 79.480 80.670 80.876 78.944 80.867 DELFTED 5 1.00 79 '26 80.637 80.833 78.891 80.825 DELFTED 6 1.25 79.404 80.594 80.791 78.857 80 '82 DELETED 7 1 ~
1.75 50 79.362 79.312 80.540 80.491 80.748 78 '03 80.740 DEl ETED 8 80.721 78.765 80 691
~ DELETED 9 2 00 79.270 80.460 80.668 78.723 80.637
'l DFLETED F
10 2.25 79.246 80.433 80.641 78.698 Sn. 612 DEI ETED 2.50 79.201 80.379 80.5'98 78.655 80.579 DFLFTE 12 2.75 79.159 80.348 80.556 78. 610 80.558 DFLETED
'13 3.00 79.127 80.317 80.525 78 '79 80.505 DELETED 14 3.25 79.096 S0.274 80.491 78.548 80.462 DELETED 15 3.50 79.056 80.234 80.453 78.498 80,424 DFLETED 16 3.75 79.020 80.209 80.417 78 '72 80.397 DELETED 17 4.00 78.978 80.167 80.406 78.440 80.355 DFLETED 18 4.25 78.947 80.133 80.353 78.3'98 80.323 DELETFD
I CLRT VARIABLE TABLE
SUMMARY
~
'MPLE DELTA TEMP 37 TEMP 38 TEMP 39 TEMP 40
'AMB ER HOURS DEG F DEG F DEG F DEG F 0.00 80.991 80.896 81.088 DELETED 2 ~ 25 80.926 80.854 81.034 DELETED 3 .50 80.895 80.800 80.992 DELETED
.75 80.861 80.767 80.949 DELETED 5 1.00 80.808 80.716 80.907 DELETED 6 1.25 80.765 80.671 80.864 DELFTED 7 1.50 1.75 80.745 80 619 80 '22 DELETFD 8 80.673 80.579 80.773 DELFTED 9 2.00 80. 642 80.548 80.750 DELETED
,10 2.25 80.615 80. 512 80.715 ll 12 2.50 2.75 80.573 80.542 80.470 80.436 80.661 80.639 DELETED DELETED DELFTFD 13 3.00 80.508 80.394 80.585 DELETED 14 3.25 80.466 80.374 80.565 DELETED 15 3.50 80 416 F 80.324 80.536 DELFTED 16 3.75 80.392 80.298 80 500 F DELETED 17 4.00 80.360 80.266 80.469 DELETED 18 e
4.25 80.316 80.213 80.435 DELETED
I CLRT VARIABLE TABLE
SUMMARY
AMPLE DELTA PRES 1 PRES 2 HUM 1 HUM 2 HUM HUM 4 JMBER HOURS PSIA PSIA RH RH RH RH 1 0.00 55.1630 55.1790 59.70 63. 44 63.30 76.47 2 .25 55.1570 55.1730 59.89 63.60 63.49 76.46
.50 55.1520 55. 1680 60.06 63.76 63.66 76.50 4
5
.75 1.00 55.1460 55.1410
. 55.1630 55.1570 60.21 60.44 63.93 64.09 63.80 63.87 76 '2 76.50 6 1.25 55 '360 55.1520 60.63 64.25 64.04 76.53 7
8 1.50 1.75 55.1310 55.,1250 55 '470 55.1420 60.80 60.97 64 '2 64.57 64.29 64.20 76.49 76 '2 2.00 55.1200 55.1360 61.13 64. 73 64.38 76.54 10 13 2.25 2.50 55.1150 55.1100 55.1310 55.1260 61 '0 61.47 64.90 65.06 64 . 72'4 84 76.55 76.59
.12 13 2 '5 F 00 55.1050 55.1000 55.1210 55.1170 61.60 61.77 65.24 65.42
~
- 64. 9?
65.08 76.61 76.62
'14 3.25 55.0950 55.1110 61.95 65.57 65.25 76.58 15 3.50 55.0910 55.1070 62.08 65.72 65.42 76.62 16 17 3.75 4.00 55.0860 55.0810 55 '020 55.0970 62.31 62.41 65 '9 66.04 65.49 65.72 76.56 76.63 lg 4 '5 55.0760 55 '930 62.59 66.20 65.82 76.63
CLRT VARIABLE TABLE
SUMMARY
AMPLE DELTA HUM 5 HUM 6 HUM 7 HUM 8 HUM 9
~MBER HOURS -o RH RH RH ~ RH ~o RH 1 0.00 79.15 76 05 F 76.83 76 41
~ 77.14 2 .25 79.24 75.98 76.80 76.36 77.16
~ 50 79.29 75.98 76.86 76.48 77.19
.75 79.20 76.01 76.91 76. 48 77.20 5
6 1.00 1 25 79 '8 79.28 75 '8 75.96 76.90
- 76. '97 76.53 76.54 77.14 77.18 7
8
~
1.50 1.75 79.25 79.28 7'6. 05 76.03 76.88 76.94 76.47 76.55 77 '3
'1
'7.19 9 2.00 79.24 76.02 76.96 76 77.24 10 11 2 '5 2.50 79.32 79.32 76.06 76.08 77.02 76.95 76.57 76.54 77.26 77.28 12 13 2.75 3.00 79.36 79.30 76 '9 76.12 77.02
- 77. 03 76.62 76.63 77.36 77.30 14 15 3.25
.50 79 '8 79.28 76 10 F
76.05 77.07 77.01 76.61 76.69 77.28 77.31 16 J7 3.75 4.00 79.35 79.28 76.13 75 '8 77.06 77.03 76.59 76.66 77 '7 77.31 lg 4.25 79.25 76.08 77.06 76.66 77.33
.l
~ ~
g
~ r CLRT AIR NRSS f987 Bt Lucia Uni t.
685KG 685100
~685000 Ebosco Plant Bervlces T/me ln Hnure
CLRT CBMPUTED LERKRGE RRTES 1987 St. Luc i e Un i t 0.5
+ Simple Leakage Rate 0 Fitted Leakage Rate 0.4
+
+
> th o 2 q El I >+
~ 0.2
~ 0.1 Ebasco Plant Services Time in Houre
I a a I ~
I
m 1 'I
~
CLRT LEHKHBE RHTE RELATIVE TO LIMITS 1887 St. Lut:ie Uni t 0.55 Naxfmum Allo~able 0.50 0.45 0 Fitted Leakage Rate 0.40 Q
e 0.35 0 0 0 0 u O.X 0 0 0 0 0 0 0' Nin/mtUm Allowable 0.25.
0.20 Ebasco Plant Services Time fn Houra
7 CLRT VEIBHTEI3 AVERAGE TEMPERATURE F987 Bt. Luefe Unit t 80.0 79.9M 79.8 0 s 79.7 ~o ~o~
I 79.6
-'9.5 O~ 0
) 79.4 e 79.3
~ 79.2 79.1 79.0 2 3 4 Ebosca Plant Services Time in Hour@
CLRT t:GNTRINMENT RBSGLUTE PRESSURE 1987 St Luc i e Un i t 55.18 55.16
~ 55.14
~ 55. 12 55.10 55.08
~ 55.06 55.04 55.00 2 3 hasca Plant Services Time tn Houre
J
~ 'I I
S ~
CLRT WEIGHTED HVERRGE VAPOR PRESSURE
)987 Bt Lucia Llni t 0.387 0.384 o 0.381
, 0.378 .
0.375
~KK-
, 0.372 %~+~%~ g 0.3M 0
> 0.366 0.363 0.3M Ebasca Plant Bet vicaa Tims in Hour+
lt V
'/&7 St. I ucxe Line t. No 3 Per xocIx c: Test Sequence St.art.ecf 1 4 OO Hours 3/2 1 ( 87 SecIu e nce E ncIecI 23
=
= BO Hour 8/21/87 EB ASCO PLANT SE RV X CES X NC XLRT Test. Services
VARJABLE 1 AG', 1 St), ll)ARY FOR lVAil-TEST JNG PFR JAOS
,rAN T TNF )-")VF TEI1P P RF SS>L) RF P PRES L FAK 1. FAK F J T Lkr'L r 1 R n() SS)
)00. HOURS D.".C' P'A P S>ZA
'<<TN'/DAY
~./DAY -'DAY L 8!
0.00 en. <<n3 ) 5. 6r<<90 ..~687 >.") QAQ 0, OAO 0. QGG 6H(>2(<<9 2 .25 8-1 . 208 55.6850 .. >>(<<Sn .021 A,OOG 0. (300 68() 27 1
.50 84. 073 5>.')G . ib(>72 Q.QQQ G.QAO 0. QAQ 6 i"i(.>.'/: 9
.75 8>>, 95/t 6570 >>h('>() ~ 0,19 .019 (<<k',(
5 J,AQ 8>>.,828 55. r>n.)() ..") 6(.>.o , on9 , (,)/l(> 0 (:> 6 60<.c".~ )
6 1.25 8.<<. 708 55.(~>>AQ 36(<<7 Q <) ><< .077 , 100 H->(,>,)Ct C:
7 1.. 50 83. >91 55. 616.'>0 . >>6(>2 ..115 . )09 6~i:62 ~ ) )
8 7 c> 8<< it 7 ~ (<<r) ..1A i5( >('>~) . 140 J.>>."> . 1'!7 (~.)1(' ('9
- 2. A>: .;)69 )5, ~9)0 a)c >r) ( . J n( .1~8 . JC>2 6>"!('.'6 IA 9
i 2 )
Y>.b 8;<<,. 2() I 5",) 57Rr) .1rH .'8 ,202 6<
>) <<)
<q () A<<158 ")"), 6('.c.0 . 3(,<>3 . 17 ) j9 (> t, 1 i) /I 12 2 7<< 8.=.. A56 55. 55)4r) ..:>(>hv . 18n . 20ci 68612/t 1:1 7> r)A R2. 9.)8 55>. 5>n.<<A .,bC~fy(> . L88 :?J6 (.'>"(; JOC
+<<7 n 1 it <<.25 82865 55,5>>70 . i>(.(>7 , >g6 (>P ('>Of 7 '.
15 :<< .,'sA 8."). ) 77 )5, .)2JA .,>670 .2JA 2(>() 8> (> Cl )
~ l( 59 1
('> ~ ) 7~<< F'.2 . (>8)n 55.,5110 , >>6'<<R .;01 2it J 98 68( 0 >n I / ~. 00 B2. ")95 5'), 5A1r) . -',67/ i) . 2A5) e (> i<<07 p <<), n910 % 85it , BJ5 (',8'>97(~
] 4) i) .."'>() r>> c)F)J 0 J(i',"'.r>R J. ~ 2>>2 w>2+.> ('>> 15>970
<<)4> A
/ ),
<<'> 8> .> ") "~ 55. ii 7.:>0 .,<<('>8 .21.) . 1>( i> (<<Fl )'/ 7 7
'()
1 c'. .). GA F( ~ . "(')79 .221 "'P5"~5 >
Ph ( ."2 r)n ~'~./k5SA ..<<6R 1 ~ >44 2(p8 r<<C. 9 ik p
+A ,n .~ ~>, i1 'i(.>C) L</ . P~A 9(>(> (' ">9 ..i 8j
..o(') 9~ ) 7'<< <<r) r>
75 Ocr> 55 4>>70 c cg pr 6, ()A Fk) ryyg ' r>,. /k 29( ). i>(>>2 ;<<7 n ..1 5).') 68&971 2(~ (>
~)r 81.9:,0 a .'10 ..<<(- .2 >r) ..'7(> )C>, (>i-) ~ >i~ ~) a '>
."'7 (- ')A (1 ) k'<<>P, 5'~., 4120 9c',')
('>9-'i .2~) 1 iP)/ + r(4">(>~'
>4 >
() / ) 81.805 5'>>.40 )0 ..>711 .c it()
29 7. r)o Bi, 7n8 5"- ..<<97A i<< /1,) '<< '<< .2,8 ~8( ~ 0>a i/
>>U 7.25 81.679 5 >.>>899 "I
>> I >>4<<> .262 .,<<(. ) (;>F)") /2 /
7 5C) R), (>,=. 5")., <<P. >0 57>>7 . <<'69 ) i<</~ k=) 9"
APPENDIX C LOCAL LEAKAGE RATE TESTING CONDUCTED SINCE THE LAST ILRT c <<
ST< LUCIE PLAMT UHIT HOo 1 TYPE 8 TESTING BETWEEN REFUELS OUTACES SDKE LAST ILRT REMYiS 5/6/N HATCH OPEHED FOR REACTOR COOLAHT PlNP SEAL REPAIR<
5/12/N ie ie HATCH OPEHED FOR REACTOR GNAT PNP SEAL REPAIR<
6/16/86 17<9 17<9 HATCH OPENED FOR STEAH CEHERATOR TSK PLUCGIHG 62/18/N 12% AIRLOCK PERIODIC LEAYi TEST TECHi SPEC> 3o6slo3 K 4ebeli3 68/17/N 3995 6 HOHTH IHTERVALSi PERS$ 5EL AIRLOCVi SEALS HERE 02/13/85 1270 1278 TESTED BY PORTABLE TESTER AT OTKR THAH 6 NNIH IHTHNALSo 68/15/85 ALL TEST HERE MITHIH THE TECH SPEC> 3o6oii3 K 4e6oii3 e2/12/86 56e LIHITSo 68/12/86 25 e3/14/87 7e25 7e25
TYPE 8 TESTIHO BETHEEH REFU3JHC NTACES SIHCE LAST ILRT RENRKS 82/18/84 2995 AIRLOCK PERIOOIC LEAK TEST TECH< SPECi 3i6ili3 K 4i6oii3 68/17/N 886 6 NNTH MHNALS 82/13/85 1838 68/15/85 e2/12/86 25 68/12/86 0 63/66/87 3150 428 LEAYAZ IS HNGM PA%HAY~
HIHINN PATNN LENSCE HAS HOT AFFECTED MNIHG REPAIRSi
REFUELIllG OUTAGE TYPE 8 TESTIHG SIKE LAST ILRT 19N REFUELIHG s
l TYPE s
s s AS FOUHD s AS LEFT s AS FOUHD s AS LEFT l l TEST DATE SCCH l SCN l SCCH l SCCH l RENRK5 HIHs PATHl HIHs PATHl HAXs PATHl NXs PATHl s s s s s s s s NIH STEN BELLs TAP 41 s 01/26/N s 0 0 0 0 1A s TAP 42 l01/26/Nl 0 0 0 s s s s s s NIH STEN BELLl TAP 41 s01/26/N s 68 60 60 68 18 s TAP 42 <01/26/84s 8 0 0 0 s s s s s s t
3 FEElNATER BELL l TAP 41 lei/26/N; 0 0 0 0 1A l TAP 42 l01/26/84s 20 20 20 20 s s s s s FEHNATER BELL l TAP 41 s01/26/Ns 0 0 0 0 18 l TAP 42 l01/26/Ns 0 0 8 0 s s s s s s s s s s s s FUEL TRANS BELLs TAP 41 s01/26/84s 8 0 0 0 s s s s s s OUTAGE aX PEH l GASKET l04/13/Nl 100 108 100 100 s s sIHTElKPACEl s s s s s s s s s s NIHT HATCH 'ASKET s 04/17/N s 0 0 8 0 s s lIHTERSPACEl s s s s s s s s s s FUEL TRANSFER l GASVET s l04/11/Nl 0 0 0 0 s s FLAHGE sIHTERSPACE s s s s s s s s s s s 1 THRU E-10s ELECTRICAL PEHs l HA l01/24/84l 820 820 820 820 s s s s s s TOTAL 8
JCE
I REFUELIHG OUTAGE TYPE C TESTIHG SIHCE UST ILRT TIOH, l TYPE l AS FOUHO l AS LEFT l AS FOUHD l AS LEFT I HU%ER l TEST l DATE SCN l SCN l SCN l SCN l REINKS I
I I
I I
I HIH>> PATHs lGH>> PATHs M>> PATHl HAX>> PATHs I I I
s PRINRY NKEUP V-15-328 f ;02/16/N, 20 20 480 BYPASS I I s HATER %-15-1 I I LEAVJCE I I I I I I I I
'TATIOH AIR V-18-796 l ;el/19/N, 8 100 I I V-18-794 f I I I I I V-18-797 l I I I I I I I V-18-798 l I I I I I I I I I I I I I
l IHSTRlKNT AIR V-18-195 l ,ez/03/N, 680 I 1150 1150 BYPASS I I I I I %-18-1 I I I LEAKAGE
>> I I I I I V-18-193 s I I I I I I I I
>> I I I I I I
18 l COHTAIlIEHT FCV-~ l ,02/22/N, 3500 I 3500 3500 I I I s PURGE EXHAUST FCV-25-5 I I I I I I I I I I I I I I
s COHTAIHHEHT FCV-25-2 l ,02/23/N, 2000 I 2000 2090 I I I s PURGE SUPPLY FCV-25-3 l I I I I I I I I I I I I I I
s HITROGEH SUPPLY l V-6779 >01/zi/84>> 45 I lee I I I I I V-6741 I I I I I I I I I I I I I l RCP COOLIHG HCV-14-1 l '81/20/N' 50 I
I 50 I I I I HCV-14-7 l I I I I I I I I I I I I I I
24 l RCP COOLIHG HCV-14-2 l ,ei/Ze/N', 140 140 I 148 I I I I I HCV-14-6 l I I I I I I I I I I I I I
26 'ETDOHH LIHE V-2515 s 02/08/NI 100 I 650 V-2516
~l
REFUELIHG OUTAGE TYPE C TEI'sSHG SIHCE LAST ILRT 19N REFUELIHG I I TIOH f TYPE l VALVE f TYPE I I AS FOUHO s AS LEFT l AS FOUHO s AS LEFT l HUHBER I SERVICE I HOI l TEST OATE I I I I I I I I I I HIHI PATH) HIHI PATHs HAXI PATHl HAXI PATHs s SIT SAHPLE IF~3-1E s C sei/31/NI e e I
0 BYPASS I
I lF~3-1F s I
I I
I I
I I
I USAGE I I I I I I I I I I I I I I s HOT LEG SAHPLE '-5200 s C Iei/16/Nl 12e 120 l 140 140 BYPASS I I I I I I I V-5203 s I I I I LEAKAGE I I I I I I I I I I I I I I
~~
29A l PRESS SAHPE ', v-5zei; c l 01/16/Nl iM l 100 100 BYPASS I I I I I I l V-5204 I I I I LEAKAGE I I I I I I
- s. I I I I I I I
'29B l PRESS SAHPLE f V-5202 f C sel/13/NI 10M 1000 I I I I I I l V-5265 I I I I I I I I I I I I I I I I I I 31 l RCB VEHT HEAOER f V-6554 l C I 01/13/Nl s 1000 1000 I I I I I I l V-6555 I I I I I I I I I I I I I I I I I I f SIT TEST LIHE lM7M9 I C ,ei/12/84; 2000 I ZM0 I I I I I I f V-3463 I I I I I I I I I I I' I I I I I I l CONT SUHP lL~7-ilAI C hei/12/84' 1000 1008 1000 BYPASS I I I
I fL~7-11Bl I I
I I I LEAKAGE I I I I I I I I I I I I I I ROT PUHP SUCT f V-6301 l C I 01/17/Nl 2000 2200 2200 BYPASS I I I I I I I V-6302 I I I I LEAYJCE I I I I I I I I I I I I I l RCP SLED)WFF l 1-SF+1-1I C F 01/13/84 f 10M 1%0 1000 I I I I I I f V-2505 I I I I I I I I I I I I I I I I I I 46 f FUEL POOL f V-7189 I C ,ei/u/N; iee 100 l 100 iM BYPASS I
I CLEAHUP I V-7266 I LEN<AGE
'II I
REFUELIHG OUTAGE TYPE B TESTIHG SINCE LAST ILRT 1984 REFUELIHG s
EHETRATIOH s VALVE TYPE s AS FOUHD s AS LEFT l AS FOUHD l AS LEFT s HIRER HOs TEST s DATE SCN s
s s
s s
s HIHs PATHs HIHs PATHs Ms PATHs Ms PATHI s s s s FUEL POOL s V-7188 C l 01/11/84l s s CLEAHUP , V-7170 s s s s s s s s H2 SNPLE sFSE-27-1 C :euevsR, 61e 61e s FSE-27-2 s s
s s
s s IFSE-27-3 s s lFSE-27M s s
s s
lFSE-27M s s
s s
s s s s s s
'RBC H2 SAHPLE s V-27-101 C I el/07/84 s 1200 1200 s s IFSE-27-11 s s s s s s s s 51A H2 SAHPLE s
V-27-102 C ,euevsR', 480 s
- FSE-27-10 s s s s s s s s s 51C H2 SAHPLE f FSE-27-5 C ,eue7/84', 100 , 400 s s s FSE-27-6 s s s s l FSE-27-7 s s s s s FSE-27-9 s s s s s s s s RCB ATNS s FCV-26-1 C ,euevsR, s s RAD NNITORS l FCV-26-2 s s s s s s s s RCB ATNS s FCV-26-3 C sei/24/84f 410 418 s s RAD NNITORS s FCV-26< s s s s s s s s RCB ATtIS s FCV-26-5 C hei/24/84s s
RAD NNITORS I FCV-26-6 s s s s s s s s s ILRT TEST s LH$140 C I 01/10/BR I COHHECTIOH s lH$143 s s
s s
s s s s s s ILRT TEST s LH$139 C ,erie/84, 105
'OHHECTIOH s V-M144
REFUELIHG OUTAGE TYPE B TEtKNG SIHCE LAST ILRT 1984 REFI1IHG s
EHETRATIOH s TYPE s
s s AS FOUHD l AS LEFT s AS FOUHD l AS LEFT l INBER TEST l ~
DATE SCN l SCN SCCH SCN s
s s
s lGHs PATHl HIHs PATHs Ms PATHl Ms PATHs s s s s s ILRT KST 'LHN01 ,ez/07/84; 5000 BYPASS l COHHECTIOH s
s s
s LEAYAZ s s s s s s l HYDRXEH PURGE V-25-11 ,ez/23/84, 800 BYPASS s s l HAREI' V-25 12 s s LEAYJCE s s s s s l HYDRXEH PURGE V-25-13 le1/ze/s4, 800 BYPASS l TO FILTER V-25-14 s s
s s LEAKACE s s
- 's s s s s l HYDROGEH PURGE V-25-15 ,01/ze/84, 870 s7e s7e s7e BYPASS s
l FILTER BYPASS V-25-16 s s s LEAYAZ s s s s
s s s 67 l COHTAIHHEHT V-25-20 l 01/16/84l 400 s NMN RELIEF FCV-25-7 s s
s s
s s s s s s s s l COHTAIHHEHT V-25-21 l C s01/19/84s 1100 1100 3700 3700 l NCULN RELIEF FCV-25-8 l OTAL C
YPASS JKE TOTAL TYPE C ; 17480 17480 19845 19845 YPASS LEAYJCE OTAL PLAHT B LIHIT TYPE C 25880 71735 71735 544s786 SCN BYPASS
C REFUELIHG OUTAGE TYPE B TESTIHG SIKE LAST ILRT 1905 REFlKLIHG I I TYPE I I AS FOUND l AS LEFT l AS FOUHD l AS LEFT l TEST DATE SCN l SCN l SCN l SCN REHARK5 I
I I
I HIHi PATHs HING PATHl SCi PAM Mo PATHl I I I
I MH STM BELLl TAP 41 ai0/26/85l 0 0 0 I 0 I
1A l TAP 42 ,ie/Z6/e5, 0 0 I 0 I I 1 I I I I I MH STM SELLs TAP fi ,ie/26/a5, 0 0 0 I
I I
8 1B l TAP 42 li0/26/05< 0 0 0 I 0 I I I I I I I 1 I
FEEDHATER BELL l TAP 41 B , ie/26/B5', 0 0 8 I 0 I
1A l TAP 42 B :ie/26/S5, 0 0 0 I 0 1 I I I I I I I I
4 FEEDHATER BELL l TAP 41 B , ie/26/S5', 0 0 0 I 0 I
iB l TAP 42 B l10/26/85' 0 0 8 I 0 I I I I I I I I I I I I I I I 1
FUEL TRAHS BELLl TAP 41 B l11/02/85l 0 0 8 I 0 I I I I I I I I I
OUTAGE AUX PEH l GASKET B l12/16/85l 0 0 8 I 8 I I I lIHTERSPACEl I I I I I I I I I I I I I HAIHT NTCH l GASKET l B l 12/19/85l 0 0 0 0 I I lIHTERSPACE s I I I I I I I I I I FUEL TRANSFER l GASKET B (12/15/85l 8 0 0 0 I I FLANGE lIHTERSPACEl I I I I I I I I I I 1 THRU E-10l ELECTRICAL PEHo l HA l B :ie/25/05; 0 0 8 0 TOTAL B
iCE
REFlKLIHG OUTAGE TYPE C THAR'S SINCE LAST ILRT 1985 REFUELIHG s s s TIOH l TYPE VALVE TYPE s s AS FOUHO l AS LEFT l AS FOlNO l AS LEFT l s NN8ER s SERVICE HOs TEST s OATE s SCN SCN SCN SCN RENRYiS s
s s
s s
s HIHs PATHl HIHs PATHs NXs PATHl Ms PATHl s
s s s s s s l PRIHARY HAKEUP V-15-328 l l 12/12/85l e 20 20 s HATER N-15-1 s s
s s
s s s s s s s s s STATIOH AIR V-18-796 l 12/15/85 330 800 s
s V-18-794 l s s
s s
s s V-18-797 s s
s s
s s
s V-18-798 l s s
s s
s s s s s s s s s 90 l IHSTRlNEHT AIR V-18-195 l l12/13/85l 300 300 s
s HV-18-1 s s
s s
s fg s V-18-193 l s s
s s
s s s s s s s s 10 s COHTAIRKHT FCV-~ l s 12/17/85l 700 700 s
l PURGE EjtHAUST FCV-25-5 s s s
s s s s s s s s s l COHTAIHHEHT FCV-25-2 s s 12/15/85s 32667e 326670 200 l PURGE QFPLY FCV-25-3 l s s
s s
s s s s s s s s s HITtmGEH SUPPLY s V-6779 s l11/02/85s e e s s s s V-6741 s s s s s s s s s s s RCP C00LIHG HCV-14-1 l , ie/29/85, e e s s s
s HCV-14-7 l s s s s s s s s s s s RCP COOLIHG HCV-14-2 l 10/29/85 e 0 BYPASS s s s
s HCV-14-6 l s s LEAYJCE s s s s s s s s 26 s LETlNHH LIHE V-2515 s11/04/85l 6500 7200 BYPASS V-2516 LEAKAGE s s
. I
~
I l
REFUELIHG OUTAGE TYPE C TESTIHG SIKE LAST ILRT 1985 REFUELIHG I I TIOH l TYPE l VALVE I TYPE I I AS FOUHD f AS LEFT l AS FOND l AS LEFT l IIBER SERVICE I HOI l TEST DATE I
I I
I I
I I
I HIHI PATH5 HIHI PATHl HAXI PATH5 MI PATHI I I I SIT SNPLE I F9'-1E I , ie/29/85, 0 e ',
e I
0 I
I BYPASS I
I lF~3-iF l I
I I
I I
I I
I I
I I
LEAKAGE I I I I I I I
I HOT LEG I
I QNPLE l V-5200 I V-5203 I
I I
'll/01/85 I
I I
I I
e e, I I
I e
I I
I e
I I
I I
I BYPASS LEAKAGE I
I I I I I I I I I I I I I I I I I
l PRESS QNPLE I V-5201 I 112/13/851 3100 425 l 3150 425 I BYPASS I I I I I I I ; v-szea I I I I I LENWCE I I I I I I I I C I I I I I I I I I I
'298 l PRESS SAHPE I V-5202 I 112/02/851 e 0 e I BYPASS I I I I I I I l V-5205 I I I I I LEAKAGE C I I I I I I I I I I I I I I I I I
31 I RCB VEHT HEADER l V-6550 ill/03/85' e e I 0 I BYPASS I I I I I I I V-6555 I I I I I LEAYAZ I I I I I I I I I I I I I I I I I
I SIT TEST LIHE IM7M9 110/27/85I 3e I 30 I 30 I BYPASS I I I I I I I IV-%63 I I I I I LEAKAGE I I I I I I I I I I I I I I I I I
I COHT SSP ILUH)7-ilAl l 10/28/85' 18M 1800 18M I BYPASS I I I
I lL~7-11Bl I I
I I
I I I LEAKAGE I I I I I I I I I I I I I I I I I
l RDT PSF SUCT f V-6301 ,11/ae/85, 5 18 I 18 I BYPASS I I I I I I I I V-6302 I I I I I LEAKAGE I I I I I I I I I I I I I I I RCP BLEEMFF f 1-SF+1-il 'l/05/85 e e BYPASS I I I I I I V-2505 I I I LEAKAGE I I I I I I I I I I I I l FUEL POOL '-7189 , ie/F85', 72 72 72 72 BYPASS I
I CLEAHUP l V-7206 I I LEAYAZ I
I I
REFUELIHG OUTAGE TYPE 8 TBsSHG SIKE LAST ILRT 1985 REFUELIHG s
VALVE TYPE l AS FOUND l AS LEFT l AS FOUHO l AS LEFT l HOs TEST l DATE SCCH SCCH SCN l SCN s s s s s s HIHs PATHl HIHs PATHl HAXs PATHs HAXs PATHl s s l RKL POOL l V-7188 '0/23/85' 7e 7e 7e 7e s
CLEAHN'2 l V-7170 s s s s s s s s SNPLE s FSE-27-1 l 10/30/85s 0 8 s
lFSE-27-2 s s s lFSE-27-3 s s
s s
lFSE-27M s s
s s
lFSE-27M s s
s s
s s s s s s Rsc H2 SAHPLE l V-27-101 l 11/01/85s e 288 s s l FSE-27-11 s s s s s s s s 51A HZ SAHPLE s V-27-102 ;11/02/85, 8 128 s s lFSE-27-10 s s s s s s s s 51C H2 SAMPLE l FSE-27-5 s 11/02/85s e 8 l FSE-27-6 s s s s s
l FSE-27-7 s
s s s
s FSE-27-9 s s s s s s s s s RCB ATNS s FCV-26-1 l 10/30/85l 88 90 90 s
RAD HOHITORS s FCV-26-2 s s s s s s s s s RCB ATNS l FCV-26-3 l 10/30/85l 35 3ze BYPASS s
RAO NNITORS s FCV-26< s s
s LEANGE s s s s s RCB ATNS s FCV-26-5 l 10/31/85l 50 1380 BYPASS l FCV-26-6 s s RAD HOHITORS s s LEAKAGE s s s s s s ILRT TEST l 'LHSiR0 l 10/38/85l e 1868 BYPASS s s COHHECTIOH l lH01R3 s s LEAKAGE s s s s s s ILRT TEST l 'LH$139 lie/3e/s5l 30 38 BYPASS COHHECTIOH l LH$1RR LEAKAGE
/
REFUELIHG OUTAGE TYPE B TESIIHG SIHCE LAST ILRT 1985 REFU3JHG TIOH s s TYPE s s
AS FONS s AS LEFT 'S FOUHO s AS LEFT l HUHBER s TEST s OATE SCN s SCN s SCN s SCN s s s s s s HIH>> PATHs HIHs PATHs HAXs PATHs HAXs PATHs s s l ILRT TEST tH%101 s s 12/13/85' e 60 0 s s s COHHECTIOH s s s s s s s s s s s s HYORXEH PURCE V-25-11 C F10/20/85' 240 2% 2%
s s HAKElP V-25 12 s s s s s s s s s s s HYORXEH PURCE V-25-13 l 10/25/85 f 800 2%9 800 BYPASS s TO FILTER V-25-N s s
s s LEAVEN%
s s s s s s s s s HYORXEH PURGE V-25-15 10/24/85 500 5M 5M BYPASS f FILTER BYPASS V-25-16 s s
s s
s LEAKACE s s s s s s s s s COHTAMEHT V-25-20 s C '10/28/85 350 15M 1500 s
s NCNN RELIEF FCV-25-7 s s
s s s s s s s s s s s COHTAIHHEHT V-25-21 s 10/29/85s 90 75e 75e s NMN RELIEF FCV-25-8 s
, 327810 TOTAL C 17402 4597 6815 ASS LEAKAGE OTAL PLAHT B LIHIT TYPE C s %5212 5937 s 357228 10373 SN~786 SCN BYPASS 12
REF1%1IHG OUTAGE TYPE B TESTIHG SIHCE LAST ILRT 1987 REFIKLIHG TYPE
>> AS FOmm l AS LEFT>> AS Fme l AS LEFT>>
TEST >> OATE lENRKS
>> lGH>> PATHl HIH>> PATHl M>> PATHl HAX>> PATHl NIH STEAH BELLl TAP 41 B >>02/09/87>> 0 0 1A l TAP 42 B l02/09/87>> 0 MH STEAH BELLl TAP 41 B l 02/09/87>> 0 0 iB l TAP 42 B >>02/09/87>> 0 0
>> I >>
FEElNATER BELL l TAP 41 B ,02/09/87; 0 0 1A l TAP 42 B :02/09/87; 0 0 FEHNATER BELL>> TAP 41 8 >>02/09/87l 0 0 18>> >>
TAP 42 B >>02/09/87l 0 0 FUEL TRAHS BELLl TAP 41 8 l02/14/87l 0 0 OUTAGE AN PEH l GASKET B >>02/09/87>> 0 0 lMERSPACEl >> >>
l GASKET B '02/05/87l 0 0 lIHTERSPACEl >> >>
FUEL TRAl'6FER l GASKET B >>02/13/87l 0 0 FLAHGE lIHTHKPACEl >> >>
1 THRU E-10>> ELECTRICAL PEH>> l HA B >>02/06/87l 46>>1 46>>1 46>>1 46>>1 OTAL TYPE B 46>>1 46>>1 46>>1 46>>1 JKE 13
REFUELIHG OUTAGE TYPE C TESTIHG SIHCE LAST IIRT 1987 REFL'ELDC I
TYPE l AS FOUHO l AS LEFT l AS FOUHO l AS LEFT l TEST l OATE SCN SCN SCN l SCN I
I I NIHIL PATHl lGHe PATHs Me PATHs NXo PATHl I I I
PRINRY HAKElF V-15-328 l03/13/87l 0 0 4500 I BYPASS I I I HATER
'-15-1 I I I LEAKAGE I I I I I I I I I
STATIOH AIR V-18-796 l ,02/07/87; 125 125 380 I BYPASS I I I V-18-794 l I 1 I LEAKAGE I I I V-18-797 l I I I I I V-18-798 l 1 I I I I I I I I I I I I
IHSTRUHEHT AIR V-18-195 l l02/20/87l 0 0 0 1 BYPASS I I I N-18-1 I I I LEAKAGE I I I' V-18-193 l I I I I I I I I I I
COHTAIHHEHT FCV-~ l l03/13/87l 600 0 0 I I I I PlSGE EXHAUST FCV-25-5 l I I I I I I I I I I I I
COHTAIHHEHT FCV-25-2 l >03/07/87s 337436 0 )1624067 0 I SEE PROBU3)
I PURGE SUPPLY FCV-25-3 l I I
I I I HRITE lP I I I I I I I I I
HITROGEH SUPPl Y l V-6779 l l02/13/87l 0 0 0 1 BYPASS I I I V-6741 I I I LEAl<AGE I I I I I I I I I
HCV-14-1 l l03/12/87l 0 0 0 I BYPASS I I lG-14-7 l I I I LEAKAGE I 1 I I I I I I I
HCV-14-2 l l03/12/87l 0 0 0 I BYPASS I I I HCV-14-6 l I I I LEAKAGE I I I I I 1 I I I
26 V-2515 l l02/24/87l 0 0 0 I BYPASS I
V-2516 I LEN<AGE 14
REFUELIHG OUTAGE TYPE C TW3C SIHCE LAST ILRT 1987 REFUELIHG NLVE TYPE l s AS FOUHD l AS LEFT l AS FOUHD l AS LEFT l HOs TEST l DATE SCCH s
HIHs PATHl HIHs PATHl Wcs PATHl HAXs PATHs s s s s s s s s s SIT SAHPLE sF~3-1E s02/17/87s e 8 lFQH3-1F s s
s s s s s s s HOT LEG SNPLE l V-5200 l82/14/87s 68 6e s s s V-5203 s s s s s s s s PRESS SAHPLE s V-5281 s03/14/87l 17s9 17s9 s 800 800 BYPASS s s l V-5204 s s LEAKAGE s s s s s s PRESS SAHPLE s V-5282 l02/28/87l e e s s s V-5205 s s s s s s s s 31 RCB VEHT HEADER l V-6554 ~ 02/17/87l e ,8 s s l V-6555 s s s s s s s s SIT TEST LIHE lM7009 s 02/12/87s 400 400 BYPASS s s lV-3463 s s LEAYJCE s s s s s s CONT QNP lLQH)7-11Al C ,ez/ie/87, 700 700 BYPASS lL~7-11Bl s s
s s LEAKACE s s s s s s s s 43 RDT PlNP SUCT l V-6301 lez/ze/87l e e BYPASS s s l V-6302 s s LEAKAGE s s s s s s s s RCP BLEElHFF l 1-SF<i-ll sez/14/87l 8 8 BYPASS s
l V-2505 s
s s LEAKAGE s s s s s s s s RKL POOL l V-7189 l02/12/87s 2600 2008 BYPASS CLEAHUP l V-7206 LEAKAGE s s s s
REFUELIHG OUTAGE TYPE B TFs)TTHG SIKE LAST ILRT 1987 REFUELIHG PEHETRATIOH l VALVE TYPE l l AS FOUHO l AS LEFT l AS FOUHO l AS LEFT l HNSER HOI TEST DATE 'CN SCCH l SCN l SCN I
I I I
s I
HIHI PATHl HIHI PATHl MI PATHs NXI PATHl I I s RKL POOL l V-7188 C s02/10/87s 8 I I s CLEAHUP , V-7170 I I I I I I I I I I s H2 SNPLE lFSE-27-1 C l02/17/87l 17I9 17I9 I I I I sFSE-27-2 I I I I I I lFSE-27-3 I I I I I I IFSE-27M I I I I I I IFSE-27M I I
~ ~t I I I I I I I I I
%C l H2 $ &lE s V-27-101 C l02/17/87l 320 I I I I lFSE-27-11 I I I I I I I I I I s H2 SAHPLE l V-27-102 C l02/18/87l see I I I I lFSE-27-10 I I I I I I I I I I 51C s H2 SAHPLE s FSE-27-5 C l02/17/87s 160 I I I I l FSE-27-6 I I I I I I l FSE-27-7 I I I I I I l FSE-27-9 I I I I I I I I I I l RCB ATNS l FCV-26-1 C ,02/ie87, 65 l 20000 70 I I l RAD NNITORS s FCV-26-2 I I I I I I I I I I l RCB ATNS s FCV-26-3 C l02/14/87l 260 BYPASS I I l RAD NNITORS s FCV-26M I I LEAKAGE I I I I I I I s RCB ATNS s FCV-26-5 C l02/16/87l 350 BYPASS I I l RAD NNITORS s FCV-26-6 I I LEAYJCE I I I I I I I s ILRT TEST s LH$148 C l02/10/87l 0
- COHHECTIOH s lH$143 I I
I I
I I I I I I I I l ILRT TEST l lH$139 C l02/10/87l 38 250
, COHHECTIOH l lHSN4 1
P REFUELIHG OUTAGE TYPE B TESTING SIKE LAST ILRT 1987 REFUELItC I
TYPE l AS FOUHD l AS LEFT l AS FIND l AS LEFT l TEST l DATE SCN SCN SCN l SCN RENRKS I
PATHl SNo PATHl 1
I I NIHIL PATHl HING PATHl HAXEL I I I I l ILRT TEST LH$101 ;02/19/87, 8 8 I I l COHHECTIOH I I I I I I I I l HYDROCEH PUKE V-25-11 l02/19/87l 125 70>> 70 <<
I I l NKEI' V-25 12 I I I
I I I l HYDROCEH PURCE V-25-13 ,02/07/87l 2000 125 << 125 <<
I I l TO FILTER V-25-il I I I I I I I I I'58 l HYOROCEH PURCE V-25-15 :02/07/87', 560 268 << 260 <<
I I l FILTER BYPASS V-25-16 I I I I I I I I 67 l COHTAIHtKHT V-25 Ze l02/12/87l %0 %6 l NMN RELIEF I I FCV-25-7 l I 1 I I I I I 1 I I l COHTAIHHEHT V-25-21 l C ,02/12/87'l 100 0 l NMN RELIEF FCV-25-8 l I
I I
see l 1986884<9 0637<9 I
1 I
I I
TOTAL C 6082<9 3852i9 BYPASS LEAKNZ OTAL PLAHT TYPE B LDGT TYPE C l 2019016 <<l %4<786 AHD BYPASS
- SEE,LOCAL LEAK RATE PROBLElS HRITE UP
LOCAL LEAKAGE RATE PROBLEMS SINCE LAST XLRT MARCH 7~ 1987 THE PURGE MAKE-UP AXR VALVES FCV-25-2 AND FCV-25-3 HERE FOUND BE LEAKXNG 1 '24~067 SCCMi THE LOCAL LEAK RATE TEST XS PERFORMED BY TESTING TWEEN THE 'VALVES XN ORDER TO DETERMXNE THE AMOUNT OF LEAKAGE ON EACH VALVEi E VALVES HERE REPAIRED INDEPENDENTLY+ VALVE FCV-25-3 HAS REPAIRED FIRST AND OTHER LOCAL TEST HAS DONEE DURXNG THIS TEST THE LEAKAGE HAS 337>436 SCCMi LVE FCV-25-3 HAS CHECKED WITH SNOOP AND NO VXSXBLE LEAKAGE HAS OBSERVED ON E VALVE+ THE DATA GATHERED FROM BOTH LOCAL LEAK RATE TESTS HAS USED TO ASSXGN LEAKAGE VALUE TO EACH VALVEi THE RESULTS HEREt FCV-25-2 *S fOUND LEAKAGE WAS 7v436 SCCM AND FCV-25-3 AS FOUND LEAKAGE HAS it286~631 SCCA BOTH VALVES V-25-3 AND FCV-25-2 HERE REPAIRED AND THE AS LEFT LEAKAGE ON BOTH VALVES HAS SCCM AS A RESULT OF THE EXCESS LEAKAGE ON THESE'VALVES THE TYPE B R C AKAGE VALUE OF 8+6 LA WAS EXCEEDED'HXS HAS REPORTED ON LICENSEE EVENT PORT (LER) 335-87-005+
TZR-THE 1987 TYPE A TEST PLANT CHANGE MODIFXCATXON (PCM-98-186) HAS PLEMENTED TO CHANGE THE FXRST ISOLATXON VALVE ON PENETRATION 56~ 57 D .8 FROM FLANGED VALVES TO FIELDED VALVES DURING THE TYPE A TEST
'ESE PENETRATION MERE ISOLATED HITH THE EXXSTING FLANGED THE MINIMUM PATHMAY DURXNG THE TYPE
4 I
A
\