ML022890157
| ML022890157 | |
| Person / Time | |
|---|---|
| Site: | Ginna  |
| Issue date: | 10/07/2002 |
| From: | Mecredy R Rochester Gas & Electric Corp |
| To: | Clark R Document Control Desk, Office of Nuclear Reactor Regulation |
| References | |
| Download: ML022890157 (146) | |
Text
R.E. Ginna Nuclear Power Plant Response to RAI Dated August 28, 2002 Enclosure Attachment 1 Inovision Qualification Report 950.366
I _, Qualification Report 950.366 Section 1 Page I of 2 Radiation Measurements, LLC May 15, 2001 Rochester Gas and Electric Corporation 89 East Avenue Rochester, NY 14649-0001
Reference:
Purchase Order 4500008671 This is to certify the Qualification Test Report and Data is true and accurate to the best of of my knowledge. In addition, it is further certified that the qualification requirements the above referenced Purchase Order have been fulfilled. The Qualification Test Report, Data and Appendices are intended to substantiate these statements.
David P. Warner Reliability Engineer Zisimos Quiatis Manager, Quality Assurance
Qualification Report 950.366 Section 1 Page 2 of 2 I
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Qualification Report 950.366 Qualification Report 950.366 Section 2 Page 1 of 2 1.0 Objectives 1.1 This report shall demonstrate that the Model 955A GM Area Monitor System is capable of operation prior to, during and after a Design Basis Event. This object will be accomplished using previously performed qualifications type tests on identical and equivalent equipment specimens.
1.2 This report shall demonstrate that the Model 955A GM Area Monitor System meets the contract specified environmental requirements.
For the 956A-201 , previous qualification type tests will be used. In the case of the 897A-21 0 detector, temperature and humidity requirements exceed levels tested in prior qualification" reports for this device. To meet these requirements, type testing will be performed on two of the three detectors to be supplied under the contract.
1.3 This report shall demonstrate that the Model 955A GM Area Monitor System meets the contract specified Electromagnetic Compliance in accordance with EPRI TR-1 02323-RI. This will be accomplished by type testing actual and equivalent equipment specimens.
1.4 To demonstrate that the combined 955A radiation rate dependency and energy dependency are within +/- 20% of actual dose over the nominal rate range of the detector ( 0.01 - 1000 mR/h ) from 80 keV" to 1.5. Determination of low energy response shall be provided using X-ray techniques while upper energy response shall be determined using Cs-1 37 and Co-60. All X-ray and solid source techniques shall be NIST traceable.
1.5 To demonstrate stability of the detectors, ascending and descending plateaus shall be performed on all detectors to be supplied. In addition, repeated fixed voltage count rate tests shall be performed on all detectors.
Qualification Report 950.366 Section 2 Page 2 of 2 I
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Qualification Report 950.366 Section 3 Page 1 of 8 S1.0 Customer Requirements
.3 1.1 Seismic The following six pages contain the Operating Basis Event and Safe I Shut-Down Event seismic response spectra for elevation 289' of the Ginna Nuclear Power Station Control Building.
1 1.2 AC Power Supply I - -20VAC-+/--10%---
1.3 Envir6nmental 1 1.3.1 Control Room 1040 F maximum, 0 PSIG, 60% RH , negligible background radiation.
1 1.3.2 Intake Duct p-101 F to 1221 F, 0 PSIG, 0- 100% RH "1.4 Electromagnetic Interference I EPRI TR-1 02323-Ri : Guidelines for Electromagnetic Interference Testing in Power Plants i 1.5 Radiation Monitor Range Gamma Radiation from 1.OE-2 mR/h to 1 E3 mR/h over an energy range of 80 keV to 1500 keV
Qualification Report 950.366 -V Section 3 Page 2 of 8
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CINNA NUCLYAR MO1Jk STATION UNIT NO. I ORE BROAD BAND FLOOR RESPONSE SPECTRA CONTROL BUJILDING ELEV. 289'-0" I-RESPO"SE FIGURE OBE-7 B-Y 4.00 I I. FEflRUARY 1. 1980 3.00 U,
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I Qualification Report 950.366 Section 4 Page 1 of 2 S1.0 Standards The following Specification and Purchase Order apply to this report:
Rochester Gas & Electric Corporation Specification PCR 99- 004, I EE-171 Revision I , dated 2125100 Rochester Gas & Electric Corporation Purchase Order 4500008671 , Revision 4, 1/30/01 The preceding Specification and Purchase Order list the following Guidelines and Standards as requirements:
I American National Standards Institute ANSI N45.2.2,1972: "Packing, Shipping, Receiving, Storage and Handling of Items for Nuclear Power Plants" ANSI N42.3,1969: "ANSI/IEEE Standard Test Procedure for Geiger Muller (GM) Counters" Institute of Electrical and Electronic Engineers IEEE 344 - 1975 : "Recommended Practices for Seismic Qualification of Class 1 E Equipment for Nuclear Power Generating Stations" Additionally the following Regulatory Guide applies:
United States Nuclear Regulatory Commission Regulatory Guide 1.100, Revision 1, August 1977: "Seismic Qualification of Electric Equipment for Nuclear Power Plantso I
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Qualification Report 950.366 Section 4 Page 2 of 2 i
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Qualification Report 950.366 Qualification Report 950.366 Section 5 Page 1 of 10 1.0 Identification of Equipment 1.1 Equipment qualified under this report are listed below:
1.1.1 956A-201-Ml Universal Digital Ratemeter- modified 1.1.2 897A-210 Low Range Aluminum Housing GM Detector 1.1.3 948B-1-5 Rack Chassis 1.1.4 S157033A2 Surge Suppressor Assembly Pages 3 through 10 of this section contain the Bills of Material which provide a detailed description of the equipment listed above.
1.2 The following paragraphs detail differences in equipment to be qualified under this report as compared to type tested specimens listed in referenced qualification type tests.
1.2.1 The 956A-201-M1 differs from the 956A-201 specimen qualified under Seismic Test Report 950.353 in that the K1 auxiliary alarm relay is utilized as an additional contact set in the -Ml version. No mass or assembly changes associated with this modification as this relay is also installed in the standard 956A-201 unit as a non functional "spare".
The 956A-201-M1 differs from the 956A-200 specimen qualified under Environmental Test Report 950.360 in that the check source drive voltage is 15 VDC rather than 120 VAC as was used in the model 956A-200. The information in paragraph 1.2.1 also applies in that the K1 relay is not active in the 956A-200 unit. There are no weight or assembly differences between the 956A-201 and 956A 200.
1.2.2 The 897A-210 Detector differs from the 897A-220 specimen qualified under Seismic Test Report 950.353 in that it utilizes a low range rather than mid range GM tube. There is no difference mass or design.
Qualification Report 950.366 Section 5 Page 2 of 10 1
1.2.3 The S157033A2 Surge Suppressor Assembly consists of sub components of the Model 876A-1 High Range Containment Monitor and the 960PD-100-5 Power Distribution Assembly, a sub assembly of the 960WM-203-5 Wall Mount Enclosure. Seismic Qualification of the Model 876A-1 is detailed in Seismic Test Report 950.352. Qualification of the 960WM-203-5 is detailed in Seismic Test Report 950.338.
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PSO1SOR 300 AN300 QPADEVOOON Inovision Radiatio in Measurements, LLC 3/16/01 7.19.03 PAGE 1 Product Struicture Product No: 956A-201-H1 UDR W/AUXILARY HI ALARM OUTPUT Rev: 001 ECN: 4JR8-96 Drawing Number:
Item No. Product Number DrawingNo. Siz Description Quantity ECH Rev Obs Act 1 956A-201 RATEMETER DIGITAL AREA MONITOR 1.000 EA PS 2CR7-97 5N Y 2 956A-201-M1HS MODIFICATION SHEET FOR 956A-20 1.000 EA 1590 1 N Y 3 200-135 200-135 B NAME TAG 1.000 EA 1392 5N Y mm* END OF REPORT x
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PSO15OR 300 AN300 QPADEVOOON Inovision Radiation Measurements, LLC 3/16/01 7.21.46 PAGE Product Structure 1 Product No: 956A-201-5 ASSEMBLY', DIGITAL RATEMETER Rev: 002 ECH: 10CR40-95 Drawing Numbert Item No. Product Number DrawlngNo. Sizi Description Quantity ECH Rev Obs Act 1 956A-100-20 2 942A-100-30 ASSY, FRONT PANEL 1.000 EA PS 11CR10-89 2 N Y ASSY, REAR PANEL 1.000 EA PS 9CR23-93 2 N Y 4 956A-201-55 t ASSEMBLY, POWER SUPPLY 5 956-200-10 1.000 EA PS 3JR4-95 1 N Y 6 ASSEMBLY, MAIN PC 1E 1.000 EA PS 8CR8-99 12 N Y 942-200-60 C I ASSEMBLY, HIGH VOLTAGE BOARD 1.000 EA PS 7 942A-100-24 1379 2 N Y TOP RAIL 2.000 EA 1590 8 942-100-25 RAIL,BOTTOH 1 N Y 9 5-532 2.000 EA 1590 N Y SCREW, MACH, PH, 4-40 X .38, 4.000 EA 1590 5 10 5-706 NUT, HEX, 4-40, NY, BO N Y 11 5-186 1.000 EA 1590 N Y SCREW, MACH, PH, 4-40 X .31, 8.000 EA 1590 12 5-836 WASHER, SPLIT, 4, SS N Y 13 200-135 200-135 8.000 EA 1590 N Y B NAME TAG 1.000 EA 14 5-710 1392 5 N Y WASHER, FLAT, 4, NY, BO 1.000 EA 1590 16 92-9124-A COUPLER, FEMALE N Y 18 50-89 50-89 1.000 EA 1590 3 N ,Y B COAXIAL CABLE 1.000 FT Loc: 5" LONG PS 1709 4 N Y 19 30-91-1 I PIN, COAX 20 30-91-2 1.000 EA 1590 N Y i FERRULE 1.000 EA 1590 21 67-83-1P INSERT,CONNECTORM,24-20 WIRE N Y 22 92-9103-A 5.000 EA 1590 3 N Y 25 MSB-0072-35 CONNECTOR, 4 POSITION, FEMALE 1.000 EA 1590 1 N Y Loc: 5" LONG WIRE, HOOK-UP, 22 AWG, YEL/GRN .001 FT 1590 5 N Y 26 MSB-0069 L WIRE, Loc: 3" LONG HV, LEAD WIRE, 22, 10K V .001 FT 1200 N Y 27 36-96-1 TERMINAL, LUG, SOLDER, FEMALE 28 KSH-6222 1.000 EA 1590 N Y TUBING, 3/16, BLACK .001 FT 1590 29 67-78-2 67-78-TAB C CONNECTOR, FEMALE (2 PIN) 1 N Y 30 942-100-35A 1.000 EA 1585 7 N Y HARNESS,POWER SUPPLY TO PCB 31 942-100-35B HARNESS,MAIH PCB TO RELAY BOAR 1.000 1.000 EA EA PS PS 1590 3CR19-90 1 N Y cn0C (D
32 942A-100-35C i HARNESS, HAIN PCB/ANALOG OUT 2 N Y 33 942-100-35D 1.000 EA PS 9CRS-90 2 N Y HARNESS,DETECTOR POWER SUPPLY 1.000 1.000 EA PS 1590 34 942-100-35E HARNESS 2 N Y 0 35 MSB-0072-31 EA PS 10CR10-94 3 N Y 2:
WIRE, HOOK-UP, 22 AWG, YEL/BLK .001 FT 1590 Loc: 5" LONG 5 N Y I
36 MSB-0072-32 SLONGWIRE, HOOK-UP, 22 AWG, YEL/BRN S0 Loc: 5" LN .001 FT 1590 5 N Y 37 SH-2202 I SLEEVE, SPIRAL-WRAP .06"-.5"OD (cD 38 942-100-28 .001 FT 1590 N Y OPTION BOARD SUPPORT MOUNT 1.000 EA 39 5-953 SCREW,TYPE 25,#4X.44LG,FH,PHIL 9CR34-98 5 N Y 40 5-678 2.000 EA 1590 1 N Y SCREW, MACH, RH, 4-40 X .31 1.000 EA 1590 o.O 41 MSH-6228 TUBING, 1/4, BLACK N Y 42 MSB-0072-2 .001 FT 1590 1 N Y "-LO)
WIRE, HOOK-UP, 22 AWG, BLACK .001 FT 0) 1590 5 N Y m - -m m - - - -m -m m m -mm
PSOISOR 300 AN300 QPADEVOO 0ON Inovision Radiation Measurements, LLC 3/16/01 7.21.4G62 Product Structure Product Hot 956A-201-5 ASSEMBLY, DIGITAL RATEHETER Rev: 002 ECHt IOCR40-95 I Drawing Number:
Item No. Product Number Drawinglo. Siý Description Quantity ECH Rev Obs Act SCREWt MACH, FH, 4-40 X .38, 4.000 EA 1590 N Y 43 5-193
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PSO150R 300 AN300 QPADEVOOON Inovision Radiation Measurements, LLC 3/16/01 7.18.27 PAGE 1 Product Structure Product No: 897A-210 DETECTORAREA MON.,GM,ALUMLOW Rev: 003 ECNs 4CR3-96 Drawing Number:
Item No. Product Number DrawingNo. Siz Description Quantity ECH Rev Obs Act 897A-210-SA DET. MAIN ASSYAL.HOUS.LOW RNG 1.000 EA PS 2CR7-99 3 N Y GEL897A-2XO DETECTOR, DIMENSIONAL OUTLINE .001 EA 1590 2 N Y CAL-GM6 897A GM DET. CALIBRATION PROC. .001 EA 1590 1 Y 92-7005-9A PER PRINT D N Y CLAMP 1.000 EA 1587 8 92-7005-12A PER PRINT D BUSHING 1.000 EA 8 H Y D 1587 92-7005-17A PER DWG CONNECTOR, FEMALE 1.000 EA 1587 8 N Y 8543-6-26 WALL SUPPORT, DETECTOR H N Y 1.000 EA 9CR34-98 2 N MB95-10a8 MAINTENANCE BULLETIN .001 EA 1590 Y 1
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300 AN300 QPADEVOOON Inovislon Radiation Measurements, LLC 3/16/01 7.21.22 PAGE 1 PS1SOR Product Structure Product No: 897A-210-SA DET. MAIN ASSY,AL.HOUS.LOW RNG Rev: 003 ECH: 2CR7-99 Drawing Number:
Item No. Product Number DrawingNo. Siz Description Quantity ECN Rev Obs Act TRAVELER FOR MECHANICAL ASSYS 1.000 EA 1590 2 N Y GT3 1 N Y
.001 EA 1590 TP897A TEST PROCEDURE 12CR1-98 2 N Y HOUSING PROCESSED 1.000 EA PS 1 857-210-18 857-210-18 PS 2CR7-99 2 N Y COVER PLATE PROCESSED (SA1 1.000 EA 2 857-10-25 1.00o EA PS 4CR8-96 2 N Y 3 897A-211-30 CHECK SOURCE MTG. ASSEMBLY 3 N Y PER DWG B ASSEMBLY DETECTOR PC BOARD 1.000 EA PS 1795 4 897A-210-10 PS 1629 6 N Y 5 857-210-20 857-210-20 B TUBE & SHIELD ASSEMBLY LOW 1.000 EA HOUSING INSULATOR PAD 1.000 EA 1590 N Y 6 857;1-18 N Y SCREW,SEEL,PH 6-32 SLOT .50 SS 4.000 EA 1590 7 857-10-22 5 N Y WIRE, HOOK-UP, 22 AWG, BLACK .001 FT 1590 8 HSB-0072-2 1590 3 N Y 9 46-77 O-RING, 3.489ID,.07 THK 1.000 EA 1.000 EA 1392 5 N Y 10 200-135 200-135 B NAME TAG 1.00a EA 1587 8 N Y 11 92-7005-20A PER PRINT D CONNECTOR, 12 PIN, HALE N Y MOUNTING BLOCK 2.000 EA 1590 12 897-110-28 1590 N Y TERM, LUG, SOLDER, LOCK EYELET 1.000 EA 13 36-3 1590 N Y WASHER, SPLIT, 6, SS 14.000 EA 14 5-837 1590 N Y SCREW, MACH, PH, 6-32 X .62, 6.000 EA 15 5-288 4.000 EA 1590 N Y 16 5-280 SCREW, MACH, PH, 6-32 X .50, N Y 4.000 EA 1590 17 5-838 WASHER, FLAT, 6, SS 1590 N Y NUT, HEX, 6-32, SS 4.000 EA 18 5-853 1590 N Y SCREW, SEEL, PH, 4-40 X .31 2.000 EA 19 5-1011 .001 LB 1305 2 N Y 21 MSA-0007 SOLDER, CORE, 60/40, .031 DIA Y
.001 EA 1712 2 N 22 897A-210-13 PER PRINT D SCHEMATIC DIAGRAM, DETECTOR 2 Y 1.000 EA 1590 H 23 857-10-7 GASKET, 2.0 SQ X .031 THK Y CEMENT, CONTACT, FASTBOND 10 .001 EA 1590 24 MSJ-4372 .o01 FT 1727 2 N Y 27 MSH-6221 NONE PH TUBING, 1/8, BLK 1 Y Y SPACER, .12, .14ID/.250D, RND 2.000 EA 1590 28 40-164 .001 FT 1590 5 Y 29 HSB-0072-16 WIRE, HOOK-UP, 22 AWG, WHT/GRN N
.001 FT 1590 5 Y 30 MSB-0072-3 WIRE, HOOK-UP, 22 AWG, RED N
.001 FT 1590 5 N Y 31 MSB-0072-15 WIRE, HOOK-UP, 22 AWG, WHT/RED 1590 5 Y WIRE, HOOK-UP, 22 AWG, GREEN .001 FT N 32 MSB-0072-4 .001 FT 1200 Y 33 KSB-0069 WIRE, HV, LEAD WIRE, 22, 10K V 2 N
.001 EA 1599 N Y 34 200-122 200-122 A "WIPE TEST" LABEL Y
.001 EA 1590 N 35 200-53 LABEL,CAUTION Y (0 8.000 EA 1590 N 36 5-712 WASHER, FLAT, 6, NY, NAT Y 2.000 EA 1590 37 5-852 NUT, HEX, 6-32, SS, SM :3 0 oD
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r Qualification Report 950.3661 Section 5 Page 8 of 10 4'
14:53:5Z !00O TODAY: 5-':7/9~4 VICTOREEN. INC.
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PART: 94as':I DESC: CHAISSIS IASSY, UDR, 2 SAY. 3.5" ECN: S3CR1B-.94 NBR. PART NU112'T DESCRIPTrom QUAINT ITY ECN 0 Qqes-!-5 ASSEM9L',
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I Qualification Report 950.366 Section 5 Page 10 of 10 PAGE ! z VICTOREEN. IN *C.E
!4:35:06 300 lATERIAL TODAY: 11/17/92 COMPONENT SILL OF t REV: A PART: 9468-1-5 DESC: ASSEMBLY. 2 E3AY CHASSIS ECN: !IJR2-92 I ITEM NER. PART NUMBER DESCRIPTION QUANTITY 1.000 EA ECN 11JR2-92 CHASSIS. 2 BAY. AREA MODNITOR 1 9468-1-3 I 2 844-7-7 GUIDE LOC:
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FH. 4-40 X .31. 8.000 EA t!JR2-92 I 4 846-1-33 BRACKET NUT LOC:
2.000 EA I1JR2- 2 ADJUSTABL:E WIEDGE I 5 948-1-6 LOC:
SCREW. MACH. PH. 6-32 X .25. 2.000 EA 11JR2-92 6 5-261 I 7 5-637 LOC:
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6, SS 2.000 EA 11JR2-92 BRACKE 2.000 EA SM 11JR2-92 8 948-1-4 RACK CHASSIS REAR MOUNT LOC:
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3/16/01 7.45.37 PAGE 1 PSO1S0R 300 ANSOD QPADEVOOON Inovision Radiation Measurements, LLC Product Structure Product No: S157033A2 FILTER/SURGE SUPPRESSOR ASS'Y Rev: 001 ECN: 1656 Drawing Numbers S157053A2 Item No. Product Number DrawinoNo. Siz Description Quantity ECH Rev Obs Act 2.000 EA 1590 5 14 Y 1 92-9015-A FILTER POWER LINE Y SURGE SUPPRESSOR 2.000 EA PS 1744 3 N 2 960SS-200 PER BOM BM 1.000 EA PS 1625 Y 3 92-7041-2A 92-7041-2A B 12 POLE BARRIER STRIP WITH S14 Y FUSE BLOCK,2 POSITION 2.000 EA 1590 1 14 4 92-7044-A I N Y 5 $157033A21 S157033A21 D CHASSIS, PROCESSED 1.000 EA 1686
.000 FT 1590 I N Y 6 MSB-0071-1 WIRE, HOOK-UP, 18 AWG, WHITE 1 14 Y WIRE, HOOK-UP, 18 GA, BLACK .000 FT 1590 7 MSB-0071-2 .000 FT 1590 I N Y 8 HSB-0071-3 WIRE, HOOK-UP, 18 GA, RED, TFE 1 14 Y 9 36-86 TERM, LUG, CRIMP, 22-16, #6-8 28.000 EA 1590 10 4.000 EA 1590 I N Y 19-2 FUSE, 2A 250V, 3AG I Y Y 11 57-112 TERMINAL STRIP, 6 POINT 1.000 EA 1590 12 1.000 EA 1740 Y
$157033A-105 PER PRINT C SCHEMATIC, SURGE SUPPRESSOR 1N 114 Y 13 5-277 SCREW, MACH,.FH, 6-32 X .44, 4.000 EA 1590 N 14 SCREW, MACH, PH, 6-32 X 1.00, 4.000 EA 1590 Y 5-304 Y 15 5-261 SCREW, MACH, PH, 6-32 X .25, 8.000 EA 1590 16 16.000 EA 1590 14 Y 5-853 NUT, HEX, 6-32, SS N Y 17 39-48 STANDOFF, H/F, 6-32 X .38, HEX 4.000 EA 1590 15 16.000 EA 1590 Y 5-766 WASHER, INT, 6, SS 1N Y 19 NONE PH FERRITE CUBE 2.000 EA 1686 14-235 wie END OF REPORT J (no
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Quallfication Report 950.366 Qualification Report 950.366 Section 6 Page 1 of 74 1.0 Test Results This section contains the test data required to substantiate that the objectives set forth in Section 2 have been met.
1.1 Seismic Qualification of 955A and S157033A2 Components Appendix I, Qualification Type Test for Digital RMS Components, Report 950.353 details generic testing performed the 956A-201 Ratemeter, 897A-220 Detector and 948B-1 Rack Chassis. Pages 5 through 7 of this section show Ginna Required Response Spectra for SSE conditions plotted -against Tested Response Spectra envelope from Report 950.353.
Appendix II , Seismic Qualification Type Test 950.338 for Containment Atmosphere Monitor ,for the Korea Electric Power Company's Kori 1, Kori 2 and Wolsung 1 Units. Report 950.338 details testing performed on the components of the S1 57033A2 Surge Suppressor Assembly. This report is applicable for all but the Line Filter ( p/n 92-9015-A ) sub-component of the S157033A2 ,
assembly. Pages 8 through 10 of this section show Ginna Required Response Spectra for SSE conditions plotted against the Tested Response Spectra envelope from Report 950.338.
Appendix III , Seismic Qualification Type Test for Analog RMS Components, Report 950.352 detail generic testing performed on the Model 876A-1 HRCM Readout Module. This module contains the Line Filter sub-component (92-9015-A) of the S1 57033A2 assembly. Pages 11 through 13 of this section show Ginna Required Response Spectra for SSE conditions plotted against the Tested Response Spectra envelope from Report 950.352.
1.2 Temperature and Humidity Tests 1.2.1 956A-201-M1 Ratemeter Appendix IV, Environmental Qualification Report for the Victoreen Digital Ratemeter, Report 950.360 details generic testing performed on 956A-200 series ratemeters. This report substantiates a qualified temperature range of -2.86 F to 1250 F at 90% RH ( non condensing ). In addition, Report 950.360 substantiates a qualified AC input power range of 90VAC/5OHz to 127VAC/63Hz for the 956A-200 series ratemeter.
Qualification Report 950.366 Section 6 Page 2 of 74 1.2.2 897A-210 Detector I
The temperature and relative humidity profile that the two specimen detectors were subjected to is shown in Figure 1, page 15 of this section. Both detectors were subjected to three 40-hour cycles of this profile. Detector performance was monitored via the analog I
output of its associated 956 series ratem.eter and logged on a multichannel recorder along with the environmental chamber temperature and humidity. A Cs-137 solid source was placed 3
equidistant between the detectors provided a nominal 2 mR/h rate.
Pages 16 through 28 of this section contain the entire strip chart record on the detector temperature and humidity test. No change in i
count rate (drift) was noted for either of the detectors at any point in the test cycles. These recordings provide substantive evidence that the Model 897A-210 detector meets all contractual environmental U
requirements. I 1.3 Electromagnetic Compliance EMC testing, in accordance with EPRI Guide TR-1 02323-R1, was performed by an independent testing laboratory. The test specimen was an operating channel of 955A Area Monitor consisting of 75 feet of terminated 50-100 composite cable, 897A-21 0 Low Range U
GM Detector, 956A-201 Digital Ratemeter and the prototype S157033A2 Surge Suppressor. The ratemeter and surge suppressor were installed in a model 948B-1 rack chassis. A second I
non-operational ratemeter was installed in rack chassis to complete the equipment complement.
Pages 29 through 52 contain F-Squared Laboratories Report No.
CLE 033100-01 R1 detailing EMC testing and test results. The equipment, as tested, complied with the requirements of MIL-STD
.461 D,- CS 101, IEC 801-2, IEC 801-3, IEC 801-4, IEC 801-5 and IEC 801-6.
Drawing $157033A-104 defines the 50-100 composite cable shield grounding requirements that must be followed to achieve same level of electromagnetic immunity as tested. This configuration requires that the overall shield be grouinded at both the control room and 44 detector location.
I
Qualification Report 950.366 Section 6 Page 3 of 74 1.4 Radiation Rate and Dose Dependency Energy dependency tests were'performed on two of the three 897A-210 detectors to be supplied under the purchase order. Serial numbers 131 and 132 were profiled in both the radial and axial modes using x-ray techniques equivalent to the following energies:
45, 68,100,148 and 180 keV. Solid sources were used for the 662 and 1200 keV. Page 53 through 58 provide the energy response curves as well as the raw data collected for both of the referenced detectors.
Rate dependency for all detectors is provided as part of the standard range calibration procedure CAL-GM1. Pages.59 through 64 contain the factory data sheets as well as raw range data.
1.5 Detector Stability Ascending and descending plateaus for all contractually supplied detectors are provided. A graphical plot of this data is included for each detector's ascending plateau. Additionally, repeated counts were taken for each detector at a fixed high voltage to demonstrate the stability of the selected operating point. Pages 65 through 70 of this section contain the raw plateau data and the graphical representations of this data. Pages 71 through 74 contain the repetitive count tests performed at a fixed high voltage value of 575 VDC. Testing performed utilized the internal operation check source of the detector as the radiation source for both plateau and repetitive count tests.
The GM tube utilized in the 897A-210 detector ( TGM ZP1320 ) has a manufacturer specified maximum slope of 8% over a 100 volt range from 525 to 625 VDC. The determination of % slope is obtained by the formula below:
(OC-C 1) 100 (C2+C1)/2 X (V2 -V 1) X100 Where : V1 and V2 are the plateau end points C0is the count rate at V1 C2 is the count rate at V2
Qualification Report 950.366 Section 6 Page 4 of 74 I
4 The results of testing are summarized in the Table below:
Detector % Slope of % Slope of Standard Deviation Serial Number Ascending Plateau Descending Plateau for Repeated Counts at Fixed I High Voltage I
131 0.89% 0.45% 67.5 I
132 2.16% 1.73% 81.6 100762 0.84% 0% 42.2 U
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- uauiicauon ieporn EbU..bb Section 6 Page 29 of 74 EMC TEST REPORT Zi e For a Digital Rate Meter, Detector and Cable Assembly
Manufacturer; - ---- T-esting-F-acity:---
Inovision Radiation Measurements. LLC F-Squared Laboratories 6045 Cochran Road 16740 Peters Road Cleveland, OH 44139 Middlefield, OH 44062 The Digital Rate Meter, model 956A-201, Detector 897A-210 and Cable Assembly (consisting of 75 feet of 50-100 composite cable terminated at both ends) were tested to the following Standards and were found to be in compliance with the requirements. A line filter assembly, part number S157033A2, was utilized to achieve the required compliance. The testing commenced on 9/26/00 and was completed on 9/29/00.
Standards:
- Military Standard - Requirements for the Control of Electromagnetic Interference Emissions and Susceptibility (MIL-STD-461D and CS 101)
Electromagnetic Compatibility-Part 4: Testing and measurement techniques - Section 2: Electrostatic discharge immunity test, IEC 801-2
- Electromagnetic Compatibility-Part 4: Testing and measurement techniques - Section 3: Radiated, radio-frequency, electromagnetic field immunity test, IEC 801-3 Electromagnetic Compatibility-Part 4: Testing and measurement techniques - Section 4: Electrical Fast Transient/burst immunity test, IEC 801-4 I -- Immunity lectromagnetic Compatibility-Part test. IEC 801-5 4: Testing and measurement techniques - Section 5: Surge I Electromagnetic Compatibility-Part 4: Testing and measurement techniques - Section 6: Conducted Immunity test, IEC 801-6 Evaluation Conducted by: Report Reviewed by:
Tony Masone - *'doert'Pellizze EMC Manager General Manager EMCIC"2 Rc% I Page I of 23
i.uaulcation Heport 95O7.3E Section 6 Page 30 o0 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 INDEX SectionI GENERAL REPORT
SUMMARY
1.0 ADMINISTRATIVE DATA 1.1 Management of Test Sample 1.2 Abbreviations and Acronyms
2.0 DESCRIPTION
OF TEST CONFIGURATIONS 2.1 Performance Criteria 3.0 LIST OF EUT, ACCESSORIES AND TEST EQUIPMENT 3.1 Equipment Under Test 4.0 MODE OF OPERATION 5.0 METHOD OF MONITORING 6.0 IMMUNITY PASS/FAIL CRITERIA 7.0 REQUIRED MODIFICATIONS 8.0 EMC TEST EQUIPMENT 9.0 ELECTROSTATIC DISCHARGE IMMUNITY TEST PROCEDURE 9.1 Electrostatic Discharge Immunity Test 9.2 9.3 10.0 10.1 Electrostatic Discharge Immunity Test Data Sheet Photographs of Electrostatic Discharge Test RADIATED IMMUNITY TEST Radiated Immunity Test Data Sheet a
10.2 Photograph of Radiated Immunity Test Set-Up 11.0 ELECTRICAL FAST TRANSIENT/BURST IMMUNrTY TEST 11.1 EFT Immunity Test Data Sheet 11.2 Photograph of Electrical Fast Transient/Burst Immunity Test Set-Up 12.0 SURGE IMMUNITY TEST PROCEDURE 12.1 Surge Immunity Test 12.2 Surge Immunity Test Data Sheet 12.3 Photograph of Surge Immunity Test Set-Up 13.0 CONDUCTED IMMUNITY TEST PROCEDURE 13.1 Conducted Immunity Test 13.2 Conducted Immunity Test Data Sheet 13.3 Photograph of Conducted Immunity Test Set-Up 14.0 ELECTROMAGNETIC IMMUNITY CONCLUSION Ertr a'l Rot I Page 2 of 23 I
Section 6 Page 31 of 74 Client: Inovision Radiation Measurements. LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 GENERAL REPORT
SUMMARY
This electromagnetic emission and immunity testing report was generated by F-Squared Laboratories. The test report is based on testing performed by F-Squared Laboratories personnel according to the measurement procedures described in the test specifications given below and in the -Test-Procedures-section-of-this-reportT.
SECTION TEST RESULTS 9 Electrostatic Discharge Pass 10 Radiated Immunity Pass 11 Electrical Fast Transient Burst Pass 12 Power Surge Immunity Pass 13 Conducted Immunity Pass E.MCOU2 kc% I Page 3 of 23
'..(UCLmI 1%.CLUVjI I rleJJtu 1,U V.0 Section 6 Page 32 of Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 l U
1.0 ADMINISTRATIVE DATA 1.1 Management of Test Sample I The test sample was inventoried at the F-Squared Facility and returned to Inovision according to the agreement between FTSquared Laboratorids'arid the'clieiit. I 1.2 Abbreviations and Acronyms The following abbreviations and acronyms may be used in this document I
AM BCI Amplitude Modulation Bulk Current Injection I
CDN EFT EMC Coupling/Decoupling Network Electrical Fast Transients Electromagnetic Compatibility i
EN ESD EUT European Norm Electrostatic Discharge Equipment Under Test I
GRP Ground Reference Plane HCP Horizontal Coupling Plane IEC International Electrotechnical Commission KHz KiloHertz LISN MHz Line Impedance Stabilization Network MegaHertz U OATS RF S/N Open Area Test Site Radio Frequency Serial Number I
VCP Vertical Coupling Plane I
I I
I EMC~u2 Rc% I Page 4 of 23 E
i
Section 6 -Page 33 of 74 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 1/4?
Revision Oate: 01/03/01
2.0 DESCRIPTION
OF THE TEST CONFIGURATIONS 2.1 Performance Criteria SPECIFICATION PERFORMANCE CRITERIA IEC 801-2 B IEC 801-3 A IEC 801-5 B IC 801-6 A MIL STD 461D. CS 101 A Performance criteria A: The apparatus shall continue to operate as intended both during and after the test. No degradation of performance or loss of function is allowed below a performance level specified by the manufacturer, when the apparatus is used as intended.
Performance criteria B: The apparatus shall continue to operate as intended aftei the test. No degradation of performance or loss of function is allowed below a performance level specified by the manufacturer, when the apparatus is used as intended.
EN1C'iO.1 Rc I Paz~e 5 off223 Pg
,4uaifcation Heport'950.366 Section 6 Page 34 of 71 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 R I Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 l 3.0 LISTS OF EUT, ACCESSORIES AND TEST EQUIPMENT I
3.1 I
Equipment Under Test (EUT)
Device Manufacturer Model # Serial #
I Digital Rate Meter Inovision Radiation 956A-201 Calab I Measurements, LLC
--GM-,trf-aM: iiitof .loivfsfn R:diati~rf- 89TA-210-.... -131 Detector Measurements, LLC Cable Assembly Inovision Radiation Measurements, LLC 50-100 N/A I
Line Filter/Surge Inovision Radiation Suppressor Assembly Measurements, LLC S 157033A2 Prototype i
Rack Chassis Inovision Radiation 948B-1 N/A Measurements, LLC I
a I
-I EMC* B'e,,..
J I Page 6 of 23 I
Section 6 Page 35 of 74 I1 Client: Inovision Radiition Measurements. LLC "Model: 956A-201 Report No.: CLE 033100-01 RI Date: 12/13/00 Revision Date: 01/03/01 4.0 MODE OF OPERATION The un- was fully operational in phases of the test.
I 5.0 METHOD OF MONITORING I The display of the EUT was visually monitored.
I 6.0 IMMUNITY PASS/FAIL CRITERIA I The unit was monitored and the following criteria was used to define a non-compliance:
- 1. Rate increase above I mPihr and subsequent alarm (Alarm setpoint 1 mR/hr).
- 2. Microprocessor failure/lock-up indicated by fail alarm.
- 3. Loss of setpoints/Alteration of setpoints.
- 4. Failure to respond to Check Source command.
7.0 REQUIRED MODIFICATIONS
! The grounds of the signal line were required to be terminated at both ends of the cable.
I A ferrite bead, Corcom Filter. and a Surge Suppressor were added to the AC Power lines.
This assembly is identified as the prototype S157033A.2 filter assembly.
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I EM'iJ'12 gci I Page 7 of 23
- Qualification Repott 950.36E Section 6 Page 36 of Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/1.3/00 Revision Date: 01103/01 8.0 EMC Test Equipment I
Equipment Type Manufacturer Model Serial Cal. Due Shield Room Shielding Resources 3 meter Number 001 Date Mar. 2001 I
AC Power System LISN California Instruments Fisher Custom Comm 500 IIX-CTS 50/250-25-4 52840 9600 Oct. 2001 I Aug. 2001 Antenna I .. .... EMC-TestSystems - - 3143 Bicolilog 1229 - Nofieqtzired OATS Compliance Labs NA 001 Aug. 2001 PLDCN Fisher Custom Comm 801-M3-16A Antenna 2 EMC Test Systems 3143 Biconilog 97-12 9609-1306 Sept. 2001 July 2001 I
ESD generator Haefely Trench Humidity/Temp G Thermo-Hygro PESD 1600 Radio Shack 100 N/A N/A Dec. 2000 Dec. 2000 I
Surge Generator EFT generator EM Test Haefely Trench VCS 500 PEFT Junior 21527 83818 Dec. 2000 Dee_ 2fl00 II I
83818.*1 Dec 2000 Sxgnal Generator Giga-tronics 6061A 9618911 Jan_ 2001 I
9618911Ian 2001 Field Probe Chase EMC 20 22441229 Ma.20 I
I]
I I
i EMC1t'2 Rc' I Page 8 of 23
Section 6 Page 37 of 7,
- Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 I
"ý' Revision Date: 01/03/01 9.0 ELECTROSTATIC DISCHARGE IMMUNITY TEST PROCEDURE I 9.1 Electrostatic Discharge Immunity Test (ESD)
The ESD generator and discharge gun was used to conduct the tests outlined below. The waveform conforms to IEC 801-2. This generator was used to simulated electrostatic discharges to the EUT. The EUT was placed on a non-conductive material 0.5 mm above a horizontal coupling plane (HCP) conforming to the dimensions of EC 801-2. The horizontal coupling plane
_ _ and .the .vertical -coupling-plane -were-connected to-the -ground reference-place-through -two-470 KOhm resistors. During the test, three different methods were used to determine if the equipment was susceptible to ESD. They consisted of Direct Contact, Air Discharge and Indirect discharge.
The direct contact method was used on all exposed conductive surfaces. Each point was contacted 10 consecutive times in the positive polarity and 10 consecutive times in the negative polarity with an electrostatic discharge from the ESD Gun. The Indirect discharge method was used on-one point of the horizontal coupling plane (HCP) and to one point on the vertical coupling plane (VCP) located 10 cm from the edge of the EUT on all four sides of the EUT. The Air Discharge method was used on all exposed non-conductive materials. These materials were scanned with the tip of the ESD gun. if the gun discharged at any point, 10 consecutive discharges in both positive and negative polarities were then made to that point.
ENIC'M2 Rv I Page 9f of 23
wuaimcatlon Hepon 950.366 Section 6 Page 38 of 1 Client: Inovision Radiation Measurements. LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 9.2 Electrostatic Discharge Immunity Test Data Sheet U
I Test Date: 9/26100 Test Engineer: Tony Masone Standard:
Performance EEC 801-2 B
Air Temperature:
Relative Humidity:
170 C 629o I
Criteria:
I Conductive Surfaces Discharge Point Level Method Pass / Fail I
Vertical Coupling Plane - Right Side Vertical Coupling Plane - Left Side
++/-4kV
+4 kV Contact Contact Pass Pass I
Vertical Coupling Plane - Front Side +/- 4 kV Contact Pass Vertical Coupling Plane - Back Side Horizontal Coupling Plane
+4 kV
+4 kV Contact Contact Pass Pass I
Conductive Surfaces +/- 4 kV Contact Pass I
II I
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EMChT2 Rc% I Page 10 of 23 I
section 6 . Page 33 of 74 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00
. Revision Oate: 01/03/01
2.0 DESCRIPTION
OF THE TEST CONFIGURATIONS 2.1 Performance Criteria SPECIFICATION PERFORMANCE CRITERIA IEC 801-2 B IEC 801-3 A IEC-8S0 15 . ..... B-----__
SIEC 80-5B IEC 801-6 A MIL STD 461D. CS 101 A Performance criteria A: The apparatus shall continueto operate as intended both during and after the test. No degradation of performance or loss of function is allowed below a performance level specified by the manufacturer, when the apparatus is'used as intended.
Performance criteria B: The apparatus shall continue to operate as intended aftei the test. No degradation of performance or loss of function is allowed below a performance level specified by the manufacturer, when the apparatus is used as intended.
ExlCW2 Pc%- I Page 5 of 23
wumanrcauon Heport '950.366 Section 6 Page 34 of 73 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI I Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 1 3.0 LISTS OF EUT, ACCESSORIES AND TEST EQUIPMENT UI 3.1 Equipment Under Test (EUT)
I Device Digital Rate Meter Manufacturer Model # Serial # I Inovision Radiation 956A-201 Calab I Measurements, LLC
-G-M-Area-h~oit~?T ...... 6visi~iR-diato-Ff-.... 89TA-.21F... 131 .....
Detector Measurements, LLC Cable Assembly Inovision Radiation Measurements, LLC 50-100 N/A U
Line Filter/Surge Suppressor Assembly Inovision Radiation Measurements, LLC S157033A2 Prototype U
Rack Chassis Inovision Radiation 948B-1 N/A Measurements, LLC U Ul I
I I
1 U
I E1,C0.,2 Rc. I Page 6 of 23 I
Section 6 Page 35 of 74 Client: Inovision Radiition Measurements. LLC Report No.: CLE 033100-01 RI "Model:956A-201 Date: 12/13/00 Revision Date: 01/03/01 I 4.0 MODE OF OPERATION The un5.' was fully operational in phases of the test.
5.0 METHOD OF MONITORING The display of the EUT was visually monitored.
i . .-- . .. . ... . .. . .. . .. .... "- --.... . .... . ... . . .... . -.. .. . . -. --
6.0 IMMUNITY PASS/FAIL CRITERIA The unit was monitored and the following criteria was used to define a non-compliance:
I 1.Rate increase above 1 mR/hr and subsequent alarm (Alarm setpoint 1 mR/hr).
- 2. Microprocessor failure/lock-up indicated by fail alarm.
- 3. Loss of setpoints/Alteration of setpoints.
- 4. Failure to respond to Check Source command.
7.0 REQUIRED MODIFICATIONS The grounds of the signal line were required to be terminated at both ends of the cable.
S.A ferrite bead, Corcom Filter, and a Surge Suppressor were added to the AC Power lines.
This assembly is identified as the prototype S157033A2 filter assembly.
fECI))2 Rc%*I Page 7 of 23
Qualification Report 950.36f Section 6 Page 36 of Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI I Model: 956A-201 Date: 12/1/00 Revision Date: 01/03/01 8.0 EMC Test Equipment I
Equipment Type Manufacturer Model Serial Cal. Due Shield Room Shielding Resources 3 meter Number 001 Date Mar. 2001 I AC Power System California Instruments 5001IX-CTS 52840 Oct. 2001 LISN Fisher Custom Comm 50/250-25-4 9600 Aug. 2001 I SAntenna I .. -- EMC-TestSystems - ........ 3143Biconilog" ........- 1229 ---
-. iN-fi*6d OATS Compliance Labs NA 001 Aug. 2001 PLDCN Fisher Custom Comm Antenna 2 EMC Test Systems 801-M3-16A 3143 Biconilog 97-12 9609-1306 Sept. 2001 July 2001 I
ESD generator Haefely Trench Humidity/Temp G Thermo-Hygro PESD 1600 Radio Shack 100 N/A NIA Dec. 2000 Dec. 2000 I
Surge Generator EFT generator EM Test Haefely Trench VCS 500 PEFT Junior 21527 83818 Dec. 2000 Dec. 2000 I
Signal Generator Giga-tronics 6061A 9618911 Jan. 2001 Field Probe Chase EMC 20 2244/29 Mar. 2001 I
I I
I I
Il ENIC0Iu2 Rc- I Page 8 of 23 I
Section 6 Page 37 of 7' l Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 i 9.0 ELECTROSTATIC DISCHARGE IMMUNITY TEST PROCEDURE 1 9.1 Electrostatic Discharge Immunity Test (ESD)
'The ESD generator and discharge gun was used to conduct the tests outlined below. The waveform conforms to-IEC 801-2. This generator was used to simulated electrostatic discharges
-to the EUT. The EUT was placed on a non-conductive material 0.5 mm above a horizontal coupling plane (HCP) conforming to the dirinensions of fEC 80 -2. The horizontal coupling plane
- .and .the .v.ertical .coupling-plane -were .connected to -the -ground reference -place-through .two-470 KOhm resistors. During the test, three different methods were used to determine if the equipment was susceptible to ESD. They consisted of Direct Contact, Air Discharge and Indirect discharge.
The direct contact method was used on all exposed conductive surfaces. Each point was contacted 10 consecutive times in the positive polarity and 10 consecutive times in the negative polarity with an electrostatic discharge from the ESD Gun. The Indirect discharge method was used on one point of the horizontal coupling.plane the (HCP) and to one point on the vertical (VCP) located coupling plane method 10 cm from the edge of the EUT. The EUT on all four sides ofmaterials Air Discharge was used on all exposed non-conductive materials. These were scanned with the tip of the ESD gun. if the gun discharged at any point, 10 consecutive discharges in both positive and negative polarities were then made to that point.
EMT(N'21 Re%*I Page 9 of 23
- uarlncatgon Heportf 950.366 Section 6 Page 38 of Client: Inovision Radiation Measurements., LLC Report No.: CLE 033100-01 RI I Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 i 9.2 Electrostatic Discharge Immunity Test Data Sheet
- V I
Test Date: 9/26/00 Test Engineer: Tony Masone Standard: lEC 801-2 Air Temperature: 170C Performance B Relative Humidity: 62%a Criteria:
I Conductive Surfaces I Discharge Point Level Method Pass / Fail Vertical Coupling Plane- Right Side Vertical Coupling Plane - Left Side
+/-4 kV
+4 kV Contact Contact Pass Pass I
Vertical Coupling Plane - Front Side +/- 4 kV Contact Pass Vertical Coupling Plane - Back Side Horizontal Coupling Plane
+/-4 kV
+ 4 kV Contact Contact Pass Pass I
Conductive Surfaces j .+4 kV Contact Pass I
I I
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EMCwI2 Rc% I Page 10 of 23 I
Section 6 Page 39 of 74 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 I;
9.3 Photographs of the Electrostatic Discharge Test Set-Up I v~im- I I
I I.
I p
!1 I Page II of'23 I E\I( thj2 Re.
Section 6 Page 40 of Client: Inovision Radiation Measurements. LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 E
Front View of the EUT during the Electrostatic Discharge Test E'Aý"(1! K,, i Page 12 of 23 I
Section 6 Page 41 of 74 SClient: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 R1 h Model: 956A-201 "Revision Date: 12/13/00 Date: 01/03/01 10.0 Radiated Immunity Test The Eq~ipment Under Test (EUT) was placed in a fully anechoic chamber on a non-conductive turntable. A broadband antenna was placed three meters from the EUT and was used to radiate RF energy in both horizontal and vertical polarities at the EUT.
The RF energy consisted of a signal that was stepped at I% increments through the frequency range of 80 MHz to 1000 MHz at a rate slower than the reaction time of the EUT. Th' signal was 80% AM modulated with a I KHz sine wave and had a minimum calibrated 'ield strength of 3.0 volts/meter at the surface of the EUT. The signal was also pulsed modulated at 200 Hz in the frequency range of 895 MHz to 905 MHz. The EUT was exposed to the RF energy on four different surfaces (Front, Back. Left and Right sides).
I The test set up conformed to figure 2 of IEC 801-3.
E%1011I'2 Rc, I Page 13 of 23
Uualitication Report 950.866 Section 6 Page 42 of '
Client: Inovision Radition Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 n 10.1 Radiated Immunity Test Data Sheet I
ITest Date: I 926/00 Test EIngineer: I Tonv Masone Standard: IEC 801-3 Performance Criteria: A Side of EUT Exposed to Antenna Antenna Polarization Frequency Range Minimum Calibrated RF Pass/Fail I
Field Strength Front Horizontal 80 MHz to 1000 MHz Right Side Back Horizontal Horizontal 80 MHz to 1000 MHz 80 Nff-lz to 1000 MHz 10.0,v/m 10.0 v/M 10.0 v/m Pass Pass I Pass Left Side Horizontal 80 MfHz to 1000 M-Hz Front Right Side Vertical Vertical 80 MHz to 1000 MHz 10.0 v/m 10.0 v/m Pass Pass i
80 Miz to 1000 Hz 10.0 vim Pass Back Left Side Vertical Vertical 80 MHz to 1000 NI/z 80 MHz to 1000 MHz 10.0 v/m I10.0 vin Pass Pass i
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I EMCI02 Rex I Page 14 of 23 "I I
Section 6 Page 43 of 74 Client: Inovision Radiation Measurements, LLC Report No.: CLE 0.33100-01 RI Model: 956A-201 -Date: 12/li/00 Revision Date: 01/03/01 10.2 Photograph of the Radiated Immunity Test Set-Up I-. '---*
I F ýi1. ,""-2eRo Page 15 of 23
Qualification Report'950. fl Section 6 Page 44 of Client: Inovi'ion Radiation Measurements, LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 U 11.0 Electrical Fast Transient/Burst Immunity Test 01 I The Electrical Fast Transient Burst generator was used to conduct the tests outlined below.
The waveform conforms.to IEC 801-4. This generator was used to simulate RF energy coupled onto power and data cables from switches, relays, motors. and any other I
device that could produce a voltage "spike".
During the testing, the product was placed on a non-conductive table conforming to the I
dimensions of IEC 801-4. The set-up conformed to IEC 801-4, figure 7.
The transient energy (as defined in IEC 801-4) was coupled on the cables under test I
at various levels and polarities as defined by the standard. (Refer to the test page for the details of this test). I During the test, all data cables that may have a practical length greater than 3 meters, and all power mains cables were tested as outlined below. I Data Lines The transient energy was coupled through a capacitive coupling clamp from the EFT generator I
to the data lines.
AC Mains The transient energy was coupled through the EFT generator coupling/decoupling network to each conductor of the power mains cable with respect to ground.
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I EL I
I EMNWI2 Rc% I Page 16 of 23 I
I
Section 6 Page 45 of 7 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 11.1 EFT Immunity Test Data Sheet Test Date: 9/26100 Test Engineer: Tony Masone Standard: IEC 801-4 Air Temperature: 20 0 C Performance B Relative Humidity: 52%
Criteria:
- DATALINES
- .Descrintion of-Data-Line [Test-Level- -Polarit y-- T es t -durat ion-T. -Pass/Fail . . .
!Signal Line 3.0 kV + 1 minute Pass Signal Line 3.0 kV I minute Pass EMICt(I" kc% I Page 17 of 23
ku~iiijcm+/-on rieport 950.5, Section 6 Page 46 of 1 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI I Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 [
11.2 Photograph of the Electrical Fast Transient Immunity Test Set-Up aI i
I 6
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I E\iCi3,' Rc i Page 18 of 23 4 I
Section 6 Page 47 of 7, Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 R I Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 I 12.0 SURGE IMMUNITY TEST 12.1 Surge Immunity Test I The test was performed the unit as per IEC 801-5. The surge pulse duration from the combination wave generator was 1.2 x 50 gs voltage into an open circuit as high as 2kV and a 8 x 20 ps current pulse into a short circuit. Each pulse was injected 10 times in each polarity with a minimum of 60 second interval between each pulse. The unit set up was similar to the schematic shown in Figure 8 of EC 801-5.
I AC Mains The AC Mains lines were coupled to the Surge/EFT generators coupling/decoupling network.
Surges were applied to each AC line and protective earth in both common and differential mode injections.
I .12.2 Surge Immunity Test Data Sheet I Test Date: 19/26/00 ITest Engineer: ITony Masone Standard: IEC 801-5 Performance Criteria: B Cable Designation Level Phase Pass/Fail AC Port Testing (kDN) o I Differential Mode Injiection Tests Line I to Line 2 +3.0 0-360 Pass Line I to Line 2 -3.0 0 - 360 Pass Common Mode Injection Tests Line 1 to Earth +3.0 0-360 Pass Line I to Earth -3.0 0-360 Pass Line 2 to Earth +3.0 0-360 Pass Line 2 to Earth -3.0 0-360 Pass E\IC0)o Re, I Page 19 of 23
'...(Uc%1ss1,cLjLui i -= V L '-Q .
Section 6 Page 48'ofj Client: Inovision Radiation Measurements, LLC Report No.: CLE 033.100-01 Ri I Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 12.3 Photograph of Surge Immunity Test Set-Up I
4 I
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E\I~V,2 Re. I Pave 20 of 23 I
Section 6 Page 49 of 74 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/B/00 Revision Date: 01/03/01 II. 13.0 CONDUCTED IMMUNITY TEST PROCUDURE 13.1 Conducted Immunity Test The Equipment Under Test (EUT) was placed in a fully anechoic chamber 10 cm above a GRP.
A coupling/decoupling network was connected to the EUT.'s power cord and was used to couple RF energy onto all lines of the power to th6 EUT. A bulk current injection (BCI) was used to couple RF energy onto all data, control and I/O lines that may exceed 3 meters in length.
The RF energy consisted of a signal.that was stepped at 1% increments through the frequency range of 150 KHz to 80 MHz at a rate slower than the reaction time of the EUT. The signal was 80% AM modulated with a I KHz sine wave and had a minimum calibrated level of 3.0 Volts.
The test set up conformed to figure 2 of IEC 801-6.
13.2 Conducted Immunity Test Data Sheet Test Date: 9/26/00 Test Engineer: Tony Masone Standard: IEC 801-6, MIL-STD 461D, Performance Criteria: A CS 101 Line Tested Frequency Range Minimum Calibrated RF Pass/Fail Level AC Power lines 150 KHz to 80 M[Hz 6.3 Vrms Pass Signal Line 150 KHz to 80 MH 6.3 Vrms Pass Line Tested Frequency Range Minimum Calibrated RF Pass/Fail Level AC Power lines 30 Hz to 50 kHz 136 dButV Pass El10102 Re, ! Page 21 of 23
Section 6 "Paga 50 of Client: Inovision Radiation Measurements, LLC Report No.: CLE 033100-01 R I
-" Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 I 13.3 Photograph of the Conducted Immunity Test Set-Up CI L - -; .4
- -.. - -t t '-
I
--44 C
I EIC'K-'2 Rc, I Page 22 of 23 C
Section 6 Page 51 of 7 Client: Inovision Radiation Measurements, LLC Report No.: CLE 033 100-01 RI Model: 956A-201 Date: 12/13/00 Revision Date: 01/03/01 14.0 ELECTROMAGNETIC IMMUNITY CONCLUSION The Digital Rate Meter, model 956A-201, Detector 897A-210 and Cable Assembly (consisting of 75 feet of 50-100 composite cable terminated at both ends) complied with all of the requirements of the IEC 801-2. IEC-3, IEC 801-4: IEC 801-5. IEC 801-6. and MIL-STD-461D.
CS 101.
EMtC11j2 Rct I Page 23 of 23
Qualification Report 950.366 Section 6 Page 52 of 74 I
I This page intentionally blank I
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897Asn131grph (D
C0j .. Energy Response: 897A-210 Serial Number 131 cvo
~U) 1.2 CD t
.. n 20 1
LE Oc0
. C/
0.8 0
(0 Z I- Seriesi 0.4 0.2 0
45 68 - 100 148 180 662 1200 Energy In keV Pa I
- -- . E - -
- -- - - g- -- --- - - - - - rUm - -
897A-210-131 Date: '9/21/0 0 HVL 0 nC 857 ReadhnC mRA ,RITC mR/hr % Error or) (mRlhr) Time
- Di1st.
06LON (min' H-f60 6 2.ýK852 14.1 5 300 1.750E-0 3 199.64 -92.94%
2.851 14.2 60 1.5 1.750E-0 3 H1 00 5 300 199.57 -92.88%
1-3.5 1.5 41 3 300 1.200E-0 3 45.0624 cD~ 0.9342 100 1.5 -9.02%
41 3 1.200E-033 44.8416 HVi 5-0 17 5.735 1.5 300 -8.57%
0 225 3 3266.1346197 5.721 226 1.5 3500 1.1I 60-E-0 : -15.46%
1150 1.160E-03 265.484945 -14.87%
OC H200 19.8 3.903 195 V15Fn50 3 1.5 300O 200 300 1.356E-03 -7.89%
3.902 195 3 0 a)~ 250--0 300 1i.356E-03 211.64448 -7.86%
-H250 22 5.86 291 3 QCfj 250-O 300 1.259E-04 295.1096 -1.39%
5.877 291 3 250 300 1.259E-0 i295.96572 -1.68%
Energy Relative Resp Dflse 68 0.91 0.85 0.92 180 0.98 662 1 1200 0.99 Through Side
897A-210-131 Date: 9/21100 nC 897 Reading kV "Time R/TC- mPriRhr %'6E rro r Dist.
LO~ (mRPhr) (min) (cm)
"60
- Q ) H60 2.82 29 60 1.5 1.750E-03 197.4 -85.31%/
5 3OO
() I 2.835 29 60 1.5 300 1.750E-03 198.45 _85.39%
Hi1100 0.9301 46.9 loo 3 1.5 30O 1.200OE-03 44.6448 L5.05%
0.9409 47.4 100 3 1.5 300 1.2001E-03 45.1632 n-n 4.95%
5.844 242 150 3 1.5 300 1.160E-03 271.1928017 ý-1l0.76%
5.847 242 150 1.-160E-03 -271.3320177 3 1.5 300 -10.81%
H200 3.856 186 200 3 1.5 1.356E-03 209.14944 300 -11.07%
Cý 7H250 3.852 186 200 3 1.5 1.356E-03 208.93248
-10.98%
6.2.24 263 250 1.259E-03 313.44064 3 1.5 300 -16.09%
E6.221 263 250 300 1.259E-03 313.28956 1.5 -16.05%
0.84 o.891 0.95 0.89
'1.05 0.15Response MnrYRelative I -t .- 4I------
,*5 61]
- I 148 S......
45 0.15 -l 6*2
~166 68 12()0 1.05
,* 100 '0.89 S
_____ 148 180 i
0.89 - - _ _ _ _ _ _ _ _ _ _
180 0.84
"" ____ 662 1 __
1200 0.95 Throug°op m M
- m m m m - m -- -
-- Vi 897Asn132grph
-- -- T (C0 in. Energy Response: 897A-210 Serial Number 132 do)4 tco 1.2 CL 0
1 4- 0
- CD a ch 0.8 4)
U) c 0
CL 0.6 I-Seriesi I 0.4 0.2 0-4 45 68 100 148 180 662 1200 Energy In keV Page 1 I
897A-210-132 Date: 9/21/00 1 HV L nC 857 Readin]d kV mA Time Dist. RITC mR/hr % Error (mR/hr) (min) (cm) 16 H-160 6 4.692 59.1 60 5 1.5 300 1.750E-03 328.44 -82.01%
4.716 59.3 60 5 1.5 300 1.750E-03 330.12 -82.04%
H100 13.5 1.62 90.2 100 3 1.5 300 1.200E-03 77.76 16.00%
~U 1.5903 88.9 100 3 1.5 300 1.200E-03 76.3344 16.46%
H150 17 5.933 287 150 3 1.5 300 1.160E-03 275.3228769 4.24%
E~n 5.96 287 150 3 1.5 300 1.160E-03 276.575821 3.77%
=0 H200 19.8 3.863 220 200 3 1.5 300 1.356E-03 209.52912 5.00%
}ut 3.84 219 200 3 1.5 300 1.356E-03 208.2816 5.15%
,H250 22 6.435 322 250 3 1.5 300 1.259E-03, 324.0666 -0.64%
-____ 6.44 324 250 3 1.5 300 1.259E-03 324.3184 -0.10%
Energy Relative Res )onse 45 0.18 68 1.16 100 1.04 148 1.05 180 1.00 1
__ _ 1200 0.984375 Throi ide M i - - - -I - m - -
7 - - - V 897A-210-132
- mo-"
[Date:* IgWglinni gDllnn 1-1 1 L);*t(*: I U __I I HVL nC 857 Reading kV mA Time Dist. RITC mRPhr % Error co (mR/hr) (mai)
(cm) 1::;z
- I ______
H60 6 1 1.9015 20.5 60 5 1.5 l*q 1N*
-84.60%
r0 1.91 20.5 60 5 1.5 300 1.750E-03 133.7 HM00 13.5 0.7098 32.5 100 3 1.5 300 30 1.200E-03 S0-nA 34.0704 114I -84 67%
0.7095 32.5 100 3 1.5 300 1.200E-03 34.056 -4.61%
-4.57%
"nlUUI II 172 150 300 1.160E-03 184.6468443 0 3 1.5 -6.85%
0co0 3.985 172 150 1.5 300 1.160E-031 184.9252763 -6.99%
H200 19.8 3.733 185 200 3 15R .nn I -arrr:_n- on') A77n 6 n
. t -T J3;;. -0.0a-10 H250 22 3.7354 6.378 6.344 185 259 258 j 1 200 250 250
-3 3
1.5 1.5 300 300 1.356E-03 1.259E-03 202.608096 321.19608
-8.69%
-19.36%
3 1.5 300 1.259E-03 319.48384 -19.24%
Co-60 Energy Relative Res onse 45 0.15 68 0.95 100 0.93 148 0.91 180 0.81 662 1 1200 0.964843751-Through Top
I mm ---- r* Qualification Report 950.366
- I du........ ,Section 6 Rp I, Page 59 of 74 hI acliation measurements 6045 Cochran Cleveland Road OH 44139 Phone: 440 248-9300 FAX: 440-349-2307 TITLE: GM Detector Calibration for Area Monitoring Systems www.inovision.com DOCUMENT: CAL-GM6 REV. A ATTACHMENT A 897A-XIX DETECTOR DATA SHEET Customer Rochester Gas & Electric F'.O. # 4500008671 Project N/A S.0. 0. 157033 W.O. # N/A Detector Model # 897A-210 Serial # 131 Tag # N/A Readout Model # 956A-201. Serial-# 117 Cal Date 10-Jan-01 6.3 Detector Discriminator N/A volts ( 897 ONLY )
6.5 Anti-Jam Duty Cycle Verification Pass (Fass/Fail)
Intensity P'osition Pe No.. Count Time Accumulated Gross Net (mR/h) Of Attenuaters (sec) Counts CoUn ts Count Rate
( cpm) ( cpm )
TRI SOURCE CALIBRATION INFORMATION (20 Ci Cs-137)
ACKGROUND 200 cm & 6 Attn's 3.00E+02 8.30E+01 1.66E+01 N / AF 1.04 200 cm & 6 Attn's 2.,40E+02 1.. 15E+03 2.87E+02 271 3.21 250 cm & 5 Attn's 2.40E+02 3.29E+03 8.23E+02 806 9.56 200 cm & 4 Attn's 2.40E+02 9.85E+03 2.46E+03 2446 250 cm 30.3 & 3 Attn's 1...2QE+02' 1. 50E+04 7.50E+03 7483 91.6 200 cm & 2 Attn's 1. 20E+02 4.38E+04 2.19E+04 21883 303 250 cm & 1 Attn's 1,,20E+02 J..31E+05 6.55E+04 65483 971 200 cm & 0 Attn's 1..20E+02 3.66E+05 1. 83E+05 1.82983 3107 Z300 cm & 2 Attn's 6.OOE+01 Anti Jam 2. 59E+06 N / A 6.1.0 Check Source Response 89.30 mR/h
- Conversion Constant 3.98E-03 Dead Time Correction 1.43E-06 onclUcted By O..A., Review By 2x.
Cal Date 01-Mar-01 Date I 225:1MI--6
Qualification Report 950.366 U' WWi A- S- .qrt*'nn A P~n a rA nf 7A w
Radiation Measurements 6045 Cochran Road*
Cleveland OH 4413904 Phone: 440 248-9300 FAX- 440-349-2307 www.inovision.com I
DETECTOR CURVE FIT PROGRAM - GM AREA MONITORS 94085701 Rev B Model number is 897A-210 Serial number is 131 DATA FROM CALIBRATION RANGE Field CPM Calc field % Deviation mR/hr 1.04 3.21 9.56 30.3 271 806 2446 1.07817 3.20911 9.76178 3.66997
-0.0276075 2.1107 4
7483 30.0818 -0.720002 91.6 21883 89.8434 -1.91764 303 65483 287.377 -5.15603 971 182983 986.203 1.56567 CC1 = 0.00397693 TAU = 1.43242e-006 Root sun) of the squares of the deviation is 7.15236 Backcground CF'M: 17 Date Calibrated: 3/1/01 Calibrated by: Bruce Mahood Customer: Rochester Gas & Electric Sales order number: 157033 Customer tag number: N/A I
Quakfication Report 950.366 Section 6- Page 61 of 74 ANA-h adiation Measurements 6045 Cochran Road Cleveland OH 44139 Phone: 440 248-9300 FAX: 440-349-2307 TITLE: GM Detector Calibration for Area Monitoring Systems www.inovision.com DOCUMENT: CAL-GM6 REV. A ATTACHMENT A 897A-XIX DETECTORN DATA SHEET Customer Rochester Gas & Electric F.O.
0 4500008671 Project N/A S..O. # 157033 W..O. # N/A Detector Model # 897A-210 Serial # 132 Tag # N/A Readout Model # 956A-201 Serial # 117 Cal Date 10-Jan-01 6.3 Detector Discriminator N/A volts ( 897 ONLY )
6.5 Anti-Jam Duty Cycle Verification Pass (Pass/Fail)
Intensity Position & No. Count Time Accumulated Gross Net (mR/hI) Of Attenuaters (sec) Counts Counts Count Rate
( cpm ( cpm )
TRI SOURCE CALIBRATION INFORMATION (20 Ci Cs-137)
P AC IKGROUIDID 200 cm & 6 Attn's 3. OOE+02 9.30E+01 1..86E+01 Ni / A 1 1.04 200 cm & 6 Attn's 2.40E+02 1 .21E+03 3.02E+02 284 3.21 250 cm & 5 Attr's 2.40E+02 3.60E+03 9. OOE+02 881 1 9.56 200 cm & 4 Attn 's 2.40E+02 1.07E+04 2.68E+03 2656 30,.3 250 cm & 3 Attn's 1 .20E+02 1.65E+04 8.25E+03 8231 I 91.6 200 cm & 2 Attn's 1. 20E+02 4.79E+04 2.40E+04 23931 I 303) 971 250 cm & 1 Attn's 200 cm & 0 Attn's
- 1. 20E+02
- 1. 20E+02
- 1. 44E+05 4.01E+05 7.20E+04 2.01E+05 71981 200481 1 3107 300 cm & 2 Attn's 6. OOE+01 Anti Jam 2.60E+06 IlI / A 6.10 Check Source Response 81.40 mR/h SConversion Constant Conducted F.
3 67E- Dead Time Correction Q.A.. Review By Q1.26E-06 Cal Date 0"L-Mar-01 Datc. .
1225. GMI-6
Qualification Report 950.366 "Section 6 Page 62 of 74 Radiation Measurements 6045 Cochran Road Cleveland OH 44139 Phone: 440 248-9300 FAX: 440-349-2307 www.inovision.com DETECTOR CURVE FIT PROGRAM - GM AREA MONITORS 94085701 Rev B I Model number is 897A-210 Serial nuniber is 132 DATA FROM CALIBRATION RANGE Field CPM Calc field % Deviation mR/hr 1.04 284 1.04201 3.21 9.56 881 2656 3.23485 9.77411 0.19305 0.774222 2.23966 I
30.3 8231 30.5046 0.675126 91.6 303 23931 71981 90.4933 290.257
-1.20814 I 971 CCI = 0.00366773 TAU = 1.2564e-006 200481 982.883
-4.20564 1.22378 4
Root sum of the squares of the deviation is 5.17235 Background CFIM: 19 Date Calibrated: 3/1/01 I
Calibrated by: Bruce Mahood CusLtomer: Rochester Gas & Electric Sales order number: 157033 i
Customer tag number: N/A i
I
V Qualification Report 950.366 Section 6 Page 63 of 74 L adiation Measurements 6045 Cochran Road Cleveland OH 44139 Phone: 440 248-9300 FAX- 440-349-2307 TITLE: 0M Do-ector Calibration for Area Monitorinq Systems www.inovision.com DOCUMENT: CAL-GM6 REV. A ATTACHMENT A 897A-XIX DETECTOR DATA SHEET Custome r Rochester Gas & Electric P.O. 4 4500008671 Project N/A S.O. # 157033 W.O. Of N/A
)Dc-tecior Model # 897A-210 Serial # 100762 Taq 4$ N/A Readout Model # 956A-201 Serial #T 117 Cal. Date 10-Jan-01 I 6.3 Detector Discriminator N/A volts ( 897 ONLY )
6.5 Anti-Jam Duty Cycle Verification Fass (F'ass/Fail)
Intensity Position & No. Count Time Accumulated Gross Net (mR/h) Of Attenuaters (sec) Counts Counts Count Rate I ( cpm) ( cprn )
TRI SOURCE CALIBRATION INFORIMIATION (20 Ci Cs-137)
IWACKGROUND 200 cm & 6 Attn's 3. OOE+02 B.-OE+01 1.62E+0:L N / A 1..04 200 cm & 6 Attn's 2.40E+02 1. 15E+03 2. 87E+02 271 250 cm & 5 Attn's 2.40E+02 3. 40E+03 8.50E+02 834 9.56 200 cm & 4 Attn' s 2.. 40E+02 1.01E+04 2.53E+03 2509 30,.3 250 cm & 3 Attn's :L..20E+02, 56E+04
- [..9 7.60E+03 7784 91.6 200 cm & 2 Attn's 1.20E+02 4.54E+04 2.27E+04 22684 303 250 cm & 1. Attn 's 1..20E+02 1.. 36E+05 6.180E+04 67984 "971 200 cm & 0 Attn's 1.. 20E-+'02 3.76E+05 1 .8E3405 187984
- 3107 300 cm & 2 Attn 's 6..OOE+0O An t:i. Jmn) 2.60E+06 14 / A 6.10 Check. Source Response 43.40 mR/h Conversion Constant Dead Time Correction I.
Dy O.A. Review By _
conducted Cc0. Da-:te 02--Mar-01 Da t eM 225::G(1,11-6
Qualification Report 950.366
- r Section 6 Page 64 of 74 I Radiation Measurements 6045 Cochran Roah Cleveland OH 4413904 Phone: 440 248-9300 FAX: 440-349-2307 www.inovislon.com DETECTOR CURVE FIT PROGRAM - GM AREA MONITORS I 94085701 Rev B Model number is 897A-210 i
Serial number is 100762 DATA FROM CALIBRATION RANGE Field CPM Calc field "" Deviation mR/hr 1.04 3.21 271 834 1.04907 3.23103 0.872394 0.655042 I
9.56 2509 9.74278 1.91191 30.3 7784 30.4491 0. 491939 I 91.6 303 971 CCI = 0.00386967 22684 67984 187984 90.6205 290.356 982.757
-1.06931
-4.17282 1.2108 U
TAU = 1.38204e-006 Root sum of the squares of the deviation is Background CFM: 16 5.01093 Date Calibrated: 3/2/01 Calibrated by: Bruce Mahood Customer: Rochester Gas & Electric Sales order number: 157033 Customer tag number: N/A I i
I I
LualiTication Heport 950.366 Section 6 RPage 65 of 74 Plateau Data 897A-210 Serial Number 131 Ascendina Plateau Desending Plateau time H.V. counts CPM time H.V. counts CPM 375 4.13E+04 2.07E+04 10:26 650 4.50E+04 2.25E+04 9:49 400 4.37E+04 2.19E+04 10:29 625 4.50E+04 2.25E+04 9:52 425 4.42E+04 2.21E+04 10:32 600 4.50E+04 2.25E+04 9:55 450 4.44E+04 2.22E+04 10:36 575 4.46E+04 2.23E+04 9:58 475 4.44E+04 2.22E+04 10:45 550 4.51E+04 2.26E+04 10:01 10:05 500 -4.43E+04 2.22E+04 10:48 525 4.47E+04 2.24E+04 525 .4.46E+04 2.23E+04 10:51 500 4.47E+04 2.24E+04 10:07 550 4.46E+04 2.23E+04 10:54 475 4.46E+04 2.23E+04 10:10
-575 4.44E+04 2.22E+04 10:57 450 4.43E+04 2.22E+04 10:13
-600 4.48E+04 2.24E+04 11:01 425 '4.43E+04 2.22E+04 10:16 625 4.50E+04 2.25E+04 11:04 400 4.37E+04 2.19E+04 10:18 650 4.52E+04 2.26E+04 11:07 375 4.15E+04 2.08E+04 10:20 All counts taken with the detector's operational check source activated.
Nominal Check Sou rceponse is 88 mRIh Date.OZ, /
m h
, m N Plateau : 897A-210 sIn 131 (D
Co)
O 0 23000 to W.
CL" O)C 0c 0 22000
- 0. - Ascending Plateau CL -Desending Plateau 0 21500 21000 20500 0 100 200 300 400 500 600 700 High Voltage
Qualification Report 950.366 Section 6 Page 67 of 74 Plateau Data I 897A-210 Serial Number 132 Ascending Plateau Desending Plateau time H.V. counts CPM time H.V. counts CPM 13:14 375 4.28E+04 2.14E+04 13:51 650 4.66E+04 2.33E+04 13:17 400 4.51E+04 2.26E+04 13:54 625 4.65E+04 2.33E+04 13:20 425 4.55E+04 2.28E+04 13:56 600 4.61E-04 2.31 E+04 13:23 450 4.56E+04 2.28E+04 13:59 575 4.61E+04 2.31E+04 13:26 475 4.56E+04 2.28E+04 14:01 550 4.62E+04 2.31E+04
.. 13:30 500 4.56E+04 .2.28E+04 .14:04 -525 -4.58E+04 2.29E+04 13:33 525 4.58E+04 2.29E+04 14:07 500 4.57E+04 2.29E+04 13:35 550 4.60E+04 2.30E+04 14:10 475 4.55E+04 2.28E+04 13:40 575 4.60E+04 2.30E+04 14:12 450 4.56E+04 2.28E+04 13:43 600 4.64E+04 2.32E+04 14:14 -425 4.52E+04 2.26E+04 13:46 625 4.67E+04 2.34E+04 14:17 400 4.50E+04 2.25E+04 13:49 650 4.65E+04 2.33E+04 14:19 375 4.26E+04 2.13E+04 All counts taken with the detector's operational-check source activated.
Nominal Check Source r se is 84 mR/h P-- r0d 1 " Date Pe........... v
am ~ - il-- -m -m - - -i 1- - m ug. -
CD'~
Plateau: 897A-210 sIn 132 C01%
oc~o 0a 24000 m 0)
.o 0)
(C) 23500 0
S(d) 23000 ID a 22500
- Ascending Plateau CL -Desending Plateau 0
C.)
22000 21500 21000 0 100 200 300 400 500 600 700 High Voltage
Qualification Report 950.366 Section 6 . Page 69 of 74 Plateau Data 897A-210 Serial Number 100762
-- AsCenrdirrgPlateau ............ Desending Plateau time H.V. counts CPM time H.V. counts CPM 375 0.OOE+O0 0.00E+00 13:48 650 2.34E+04 1.17E+04 12:56 400 2.14E+04 .1.07E+04 13:50 625 2.34E+04 1.17E+04 12:58 425 2.28E+04 1.14E+04 13:56 600 2.35E+04 1.18E+04 13:02 450 2.32E+04 1.16E+04 13:59 575 2.33E+04 1.17E+04 13:05 13:12 475 2.31E+04 1.16E+04 14:01 550 2.33E+04 1.17E+04 500 2.32E+04 1.16E+04 14:04 525 2.33E+04 1.17E+04 13:16 525 2.35E+04 1.18E+04 14:06 500 2.31E+04 1.16E+04 13:19 13:24 550 2.35E+04 1.18E+04 14:09 475 2.32E+04 1.16E+04 13:37 575 2.35E+04 1.18E+04 14:12 450 2.31E+04 1.16E+04 600 2.35E+04 1.18E+04 14:15 425 2.27E+04 1.14E+04 13:40 13:43 625 2.37E+04 1.19E+04 14:17 400 2.16E+04 1.08E+04 2.37E+04 1.19E+041' 14:20 375 0.OOE+00 0.OOE+00 13:46 650 All counts taken with the detector's operational check source activated.
Nominal Check Source sonse is 45 mRIh Performedby /)'" tv /--- Date .. ,
- uE m - m - - - - - U S - 1 -1 (oD CO, Plateau : 897A-21 0- sin 100762 LO 12000 0r-n 0)
CL
~CU o 11800 3 CD a U) 11600 11400 C: - Ascending Plateau
- Desending Plateau 11200 0
C.
11000 10800 10600 0 100 200 300 400 500 600 700 High Voltage
Qualification Report 950.366 Section 6 Page 71 of 74 Repeated Count Rate Data 897A-210 Serial Number 131 time counts CPM 9:05 4.45E+04 2.23E+04 9:08 4.43E+04 2.22E+04 9:10 4.42E+04 2.21E+04 9:12 4.43E+04 2.22E+04 9:15 4.45E+04 2.23E+04 9:26 4.44E+04 2.22E+04 9:30 4.44E+04 2.22E+04 9:33 4.46E+04 2.23E+04 9:42 4.44E+04 2.22E+04 9:45 4.45E+04 2.23E+04 All data taken at 575 VDC operating voltage All data taken using detector's operational check source Performed byl,/
v--,.L Date
Qualification Report 950.366 Section 6 Page 72 of 74 I"'l Repeated Count Rate Data, 897A-210 Serial Number 132 I
time counts CPM 11:14 11:17 4.66E+04 4.67E+04 2.33E+04 2.34E+04 I
11:20 4.63E+04 2.32E+04 11:23 11:27 4.67E+04 4.66E+04 2.34E+04 2.33E+04 I
11:32 4.66E+04 2.33E+04 11:35 11:38 4.63E+04 4.63E+04 2.32E+04 2.32E+04 I
11:40 4.67E+04 2.34E+04 11:43 4.66E+04 2.33E+04 All data taken at 575 VDC operating voltage I
All data taken using detector's operational check source I I
Performed bv *' l gF*lmJ* v --
Date 2 -.9---0/
I I
I I
I I
Qualification Report 950.366 Section 6 Page 73 of 74 Repeated Count Rate Data 897A-210 Serial Number 100762 time counts CPM 10:12 2.31E+04 1.16E+04 10:14 2.33E+04 1.17E+04 10:18 2.31E+04 1.16E+04 10:38 2.33E+04 1.17E+04 11:09 2.31E+Q4 1.16E+04 11:12 2.31E+04 1.16E+04 11:14 2.32E+04 1.16E+04 11:16 2.31E+04 1.16E+04 11:24 2.31E+04 1.I1E+04 11:27 2.31E+04 1.16E+04 All data taken at 575 VDC operating voltage All data taken using detector's operational check source Performed by Date. 31'g-10,(
Date________
by..
i Performed
Qualification Report 950.366 Section 6 Page 74 of 74 I
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R.E. Ginna Nuclear Power Plant Response to RAI Dated August 28, 2002 Enclosure Attachment 2 DA-EE-2001-009 Electrical Factors Analysis for PCR 99-004 (FMEA for CREATS Actuation Instrumentation)
D0960977 Design Analysis Ginna Station PCR 99-004 Electrical Factors Analysis Rochester Gas & Electric Corporation 89 East Avenue Rochester, New York 14649 DA-EE-2001- 009 Revision 2 Effective Date Prepared By: 1/ a.-~
Design Engineer Date Reviewed By: 4' 0 . @4)(A.
Reviewer Date
Revision Status Sheet Revision Affected Number Sections Description of Revision All Original.
0 1 Throughout Incorporate design changes, such as isolator addition, fuse addition, wire size changes. Additional technical detail added for single failure analysis, separation, and isolation.
2 Throughout Incorporate design changes for PCR Revision 1.
Page 2 of 17 Revision 2 DA-EE-2001-009
1.0 Purpose 1.1 The purpose of this analysis is to demonstrate that electrical factors associated with the construction of PCR 99-004 meet the requirements for electrical design for Ginna Station and Generic Design Criteria Ref. 3.2. The following sections list the factors that will be analyzed in this document. PCR 99-004 Revision 1 changes are incorporated.
1.1.1 All circuits, existing and new, that are impacted by this design will be analyzed to show appropriate cable properties, including sizing, shielding, grounding, and insulation. (See Section 7.1) 1.1.2 Cable separation and isolation between Class 1E and non-Class 1E equipment will be shown to be appropriate for the related equipment. (See Section 7.2) 1.1.3 Conduit sizes will be shown to be adequate to meet the cable fill requirement specifications. (See Section 7.3) 1.1.4 The selection of relays to be used will be shown to have the proper electrical parameters, including coil voltage rating, contact voltage and current ratings, and adequate amount of contacts. (See Section 7.4) 1.1.5 Switches selected for use will be shown to have appropriate contact configuration and ratings for the applications. (See Section 7.5) 1.1.6 The instrumentation will be shown to have appropriate ratings for input and output parameters, including operating voltage, output contact ratings, and signal outputs.
(See Section 7.6) 1.1.7 Overcurrent protection will be analyzed to show proper fusing and coordination with other protective devices. (See Section 7.7) 1.1.8 Panel loading will be evaluated to demonstrate that no load ratings will be exceeded, and any impact on the loading of upstream supplies is addressed. (See Section 7.8) 1.1.9 The design will be reviewed to ensure that there are no adverse effects from electrical noise on the performance of the equipment, including surge suppression requirements for relay coils. (See Section 7.9) 1.1.10 The control logic for the design will be reviewed to ensure that it fails in the safe position for postulated power failures. (See Section 7.10) 1.1.11 The electrical design will be reviewed to demonstrate that no single failure can cause the loss of both trains of isolation logic or prevent the system from isolating. (See Section 7.11)
DA-EE-2001-009 Page 3 of 17 Revision 2
2.0 'Conclusions 2.1 The design and all electrical components specified in the design of the modification for I PCR 99-004 Revision 0 with associated MDCNs, and Revision 1, are adequate and appropriate, consistent with design requirements for the electrical factors described in Section 1.0 of this analysis.
3.0 Design Inputs I 3.1 PCR 99-004 Revision 1 and associated attachments, including circuit schedules issued for construction and Bill of Material.
3.2 Generic Design Criteria, Electricalll&C Plant Changes, EWR 10275, Rev. 0.
4.0 Referenced Documents 4.1 Drawings RG&E Drawings:
Drawing # Sheet SK21946-0546SHI-1 SK21946-0546SH2-1 SK33013-2784-1 SK33013-1618SH1-2 SK33013-2004-1 SK33013-1860-4 4.2 Circuit Schedules R4522 R4523 C5529 C5530 C5545 C5551 C5552 AU0235 AU0235A AU0235B AU0239 AU0239A AU0239B C3505 C2621 4.3 Codes And Standards DA-EE-2001-009 Page 4 of 17 Revision 2
4.3.1 Ginna Station Updated Final Safety Analysis Report (UFSAR).
4.3.2 IEEE 141-1986, "Recommended Practice for Electric Power Distribution for Industrial Plants".
4.3.3 IEEE 384-1981, "Standard Criteria for Independence of Class IE Equipment and Circuits".
4.3.4 IEEE 446-1980, "Recommended Practice for Emergency and Standby Power Systems for Industrial and Commercial Applications".
4.3.5 IEEE 946-1985, "IEEE Recommended Practice for the Design of Safety-Related DC Auxiliary Power Systems for Nuclear Power Generating Stations".
4.4 Equipment Information 4.4.1 Vendor Manual, VTD-A4057-4001, Analytical Technology, Inc. vendor literature, publication SS-B 14RC, (1/97), and O&M manuals Series B-14 Monitor System Rev.
R, and UniSens Rev. G.
4.4.2 Vendor Manual, VTD-12677- 4101 and VTD-VO 115-4101 , Inovision (Victoreen),
Model 956A-201 series Ratemeter and Model 897A series GM Detector.
4.4.3 Cutler-Hammer Quick Selector Catalog 25-000, Type BF and BFD Relays, July 1995.
4.4.4 Square D, Type KA-1, Class 9001 Auxiliary contacts for SE with Type K push-button switches.
4.4.5 Brand-Rex Industrial Wire and Cable, publication PC-8 101.
4.4.6 Buss Fuses, Full-Line Condensed Catalog FLC, January, 1989.
4.4.7 OT2 Switches, Westinghouse Electric Catalog,25-000, March 1977.
4.4.8 WESCO Lamp, information contained in DA-EE-99-047 Attachment 5, DC Load Survey.
4.4.9 Potter & Brumfield, attached data sheet (Attachment 5) from unidentified catalog.
4.4.10 NUS Instruments, Specifications for Analog Isolator Modules, Spec.: Data sheet attached (Attachment 6).
4.5 Correspondence 4.5.1 Letter from James P. Brozek of Bussmann to Joseph E. Pacher, "DC Voltage/AIC Rating of Fuses", dated 12/10/90.
Page 5 of 17 Revision 2 DA-EE-2001-009
dated 4.5.2 Bussmann Correspondence, Steve Shaffer to John Kowal, "AC/DC Fuse Spec",
1/3/91.
4.6 Plant Procedures 4.6.1 GC-76.9, Installation and Inspection of Electrical Equipment, Raceway and Electrical Supports.
4.6.2 GC-76.10, Installation, Testing, and Inspection of Wire and Cable.
4.7 Miscellaneous References 4.7.1 National Electric Code, NFPA 70, 1999.
4.7.2 PCR 98-097, Control Room Radiation Monitor Noise Suppression, Rev. 0.
4.7.3 Design Analysis, DA-EE-98-157, Cable Sizing Criteria, Rev. 0.
Gas 4.7.4 Ginna Procedure PT-17A, Control Room Radiation R-36, R-37, R-38 and Toxic Monitor Operability Test.
4.7.5 Ginna Alarm Response Procedure AR-E-1 1, Control Room HVAC Isolation.
4.7.6 Design Analysis, DA-EE-99-063, PCR 99-001 Electrical Factors Analysis.
4.7.7 Design Analysis, DA-EE-2001-047, Instrument Bus Electrical System Evaluation.
4.7.8 Topical Design Basis - Electrical Independence, Rev. 0, 6/19/97.
4.7.9 Design Analysis, DA-EE-99-047, 125 VDC System Loads and Voltages, Rev. 1.
5.0 Assumptions None 6.0 Computer Codes 6.1 None 7.0 Analysis 7.1 Cable Properties Cable selection and sizing will be per Ref. 4.7.3, "Cable Sizing Criteria Design and Analysis", which specifies the factors and derating amounts to consider in sizing be selecting conductors and routing through trays and conduits. Those factors will Page 6 of 17 Revision 2 DA-EE-2001-009
adhered to throughout section 7.1.
7.1.1 Power and Control Cables The total power consumption requirements of all components in the new 120 vac circuits are tabulated in DA-EE-2001-047 on the appropriate Twinco Panel tables.
portion Attachment 8 breaks out the loading to the portions of the circuits fed by each of the circuits shown on drawings SK21946-0546SH1-1 and SK21946-0546SH2-1.
The maximum possible current to any individual portion of the circuit is 1.93 amps.
The cable specified in the circuit schedules for power and control is #12 copper the conductor. The new power cable is routed in conduit between the RMS rack and Aux Benchboard. In accordance with reference 4.7.3 the tables in the National 310 Electric Code shall be utilized for cables this size. In accordance with NEC Table 16 the rated ampacity for #12 AWG cable in a 104 degree F ambient is 27.3 amps (30 have amps*0.91 temp derating factor). Therefore, the proposed new power cables adequate ampacity for the expected current requirements.
to the To accommodate pin connectors on the back of the ratemeter, the control circuit output contacts of the ratemeter were changed to #16 awg SIS wire. Per NEC 310-16, the rated ampacity in 104 degree F ambient is 16.4 amps (18 amps *0.91 derating).
This has adequate ampacity (above the 2 amp maximum current) for this circuit.
The existing power cables from the Twinco distribution panels to the RMS racks are (Circuit Schedules C2621 and C3505) are #12 and #14 copper respectively. They routed in tray and conduit, so must be derated by a factor of 0.35 per reference 4.7.3.
C2621 (#12 awg @ 30 amps*0.91 temp derating factor
- 0.35 tray derating) results in an ampacity of 9.55 amps.
C3505 (#14 awg @ 25 amps*0.91 temp derating factor
- 0.35 tray derating) results in an ampacity of 7.96 amps.
Per reference 4.7.7, the existing maximum load on either of these circuits is 5.7 amps, which already includes the above loads, except the isolators were upgraded from 0.09 SCAIOO to SCA300, resulting in 0.09 additional amps. The additional load of of the amps results in a new total load of 5.8 amps, which is within the ampacity existing cables.
Grounding will be performed per procedure GC-76.9. The grounding has been reviewed and is consistent with the vendor recommendations.
Vac or All specified cables are rated 600 volts. All power and control circuits are 120 125 VDC. Therefore, all cables have an adequate voltage rating for the specified applications.
7.1.2 Detector/Ratemeter Instrumentation and Power Cables Page 7 of 17 Revision 2 DA-EE-2001-009
The cable used to provide power and signal between the ratemeter and the detector is a special cable supplied by the vendor, specifically for this equipment. It has been sized and tested by the vendor for use in this application. Installation ahd connections will be made per vendor instructions and drawings, to be included in the PCR package outputs.
7.1.3 PPCS Cables All PPCS cables will be wired using #16 twisted shielded pair cable (#16TSP),
including connections between isolators and ratemeters. This is adequate for the 4 - 20 mA currents that are carried by these cables from the instrument to the MUX connections. Internal RMS rack wiring requires the use of #22 awg for the pin connectors to P6, the ratemeter analog output connection. The #22 wire will go from the connector approximately three feet to the terminal deck where it transitions to the
- 16. The #22 wire is appropriate for use for a 4 - 20 ma signal.
Cables to PPCS will have the shields appropriately connected for analog points to ensure no impact on the 4-20 ma signal, consistent with plant computer wiring practices.
7.2 Cable Separation 7.2.1 A review of the design of the electrical systems associated with the proposed design has been performed to demonstrate that compliance with the requirements of IEEE Std 384, "IEEE Standard Criteria for Independence of Class 1E Equipment and Circuits".
A and B train components have been separated into separate compartments in the Auxiliary Benchboard and the RMS racks, so there is physical separation between A and B train redundant components.
7.2.2 Redundant trains of wiring are routed in separate train-specific conduits for the interconnection of all equipment where the cables have to route outside of cabinets.
When cables enter enclosures, such as the Auxiliary Bencbboard or Radiation Monitoring System (RMS) racks, wiring is installed to maintain physical separation between redundant trains of wiring. Where cables are routed through the cabinets to the compartments containing components of the opposite train, the minimum 6" separation is maintained. The "defense-in-depth" design concept that results in the cross-connection of the redundant trains has resulted in a number of cables that are associated with both trains. Separation is maintained up to the points of interconnection between the two logic circuits (relays and terminal blocks). In the RMS racks, the cables have been designated as being associated with the train in which they are logically connected to the isolation initiation relay (if in the R81A circuit, then A train cable). These cables are designated associated to that train and separation from the other train is maintained except at the point of termination at terminal blocks.
7.2.3 In the Auxiliary Benchboard, the cross train logic is encountered where contacts are Page 8 of 17 Revision 2 DA-EE-2001-009
connected in series from R81A to R81B for signals to the individual isolation devices (dampers, fan, MCB annunciator). The connecting cables go directly from an A train device to a B train device, and since they are not train specific at those points, separation cannot be maintained, so the cables are routed together, separate from all other train specific cables. Since the points of connection between the two trains is the relay contacts, isolation can be credited since relay contacts are considered qualified isolators per IEEE 384 section 6.2.2.2).
7.2.4 There is no physical way to separate the wires to these non-train specific points at the contact terminals from the train specific wires to the relay coils. This has been determined to be acceptable per a review of the logic and the Auxiliary Benchboard layout as follows: The wiring in the Auxiliary Benchboard cabinet is for the logic to the isolation relays. A review of that logic wiring demonstrates that any fault in the cabinet that causes failure of a wire will result in an opening of the associated circuit.
Any open circuit will result in the isolation relay to drop out, automatically causing the initiation of the safety function to perform and put the CREATS in isolation. This is true for either a single train failure or a failure that propagates between both trains due to less than optimal separation. There is not a credible failure mode that would result in a condition in which faulted or failed wires in the Auxiliary Benchboard would prevent the safety system from performing its execute function if an actuation signal was present. The only way to prevent the system from performing this function would be for 120 VAC being applied to the logic circuits of both trains within this cabinet, energizing the relays even after the output contacts of the initiating devices (ratemeter or manual pushbutton) have opened. There are only a few wires that are still energized after an initiation signal in a manner that could cause this type of unlikely "hot short" in either logic train, where a wire could be disconnected and contact the relay with 120 VAC. Since the two R81 relays are in separate compartments in the Auxiliary Benchboard, there are no points where such a condition could also cause a second wire of the other train to fail and energize the opposite train's R8 I relay. In addition, failure of any wires in the Auxiliary Benchboard due to inadequate separation between the trains can not propagate back to the ratemeters and cause them to fail in a manner that would prevent the system from performing its safety function.
7.2.5 Wiring for the radiation monitoring cabling, for power to the ratemeters, and for signal wiring between detector and ratemeter, maintains the minimum separation criteria of IEEE 384 between wiring of redundant trains. Outside of enclosures, the cable is inside of conduits that provide the physical separation between trains. There are only A Train or B Train cables in any conduit, and any non-lE circuits are routed with either train in the conduits carrying safety related circuits are train specific associated circuits that are physically separated from or electrically isolated from the opposite train. In the RMS racks, the minimum 6 inches of physical separation is maintained between redundant trains for power and signal wiring.
7.2.6 No new power or control cables are run in cable tray. A Train components are powered from an A Train power supply (IBPDPCBE from INVTCVTA) and B Train components are powered from a B Train power supply (IBPDPCBC from Page 9 of 17 Revision 2 DA-EE-2001-009
hINVTCVTB). Existing cables from IBPDPCBC and IBPDPCBE to RMS racks were not moved, existing separation criteria for these cables remains.
7.2.7 New PPCS circuits will go through an optical isolator to provide isolation from SR to SS systems, but will be installed safety related from the RMS rack to the CREP panels in the Turbine Building. To that point, they will be meet the separation requirements of the Safety Related portion of the design as they will be treated as associated circuits for the train they are associated with. When these circuits reach the CREP panels, they will be terminated on fuses to provide electrical isolation so that the two trains can be run in the same conduit as non-Safety Related cables. The optical isolators are qualified safety related devices, and they are rated to protect the radiation monitors from damage due to fault, short circuit, or open circuit. The non-safety portion of the circuit downstream of the isolation devices to the MUX equipment share a common conduit. This is acceptable because they are beyond the fuses providing electrical isolation, and there is no requirement for redundancy to the PPCS equipment.
7.3 Conduit Fill Conduit fill will meet the specifications in the National Electric Code Ref. 4.7.1, Chapter 9 Tables 1 and 4. Power and instrument cable diameters and areas are from vendor documentation Ref. 4.4.5. 10/C special cable provided by Inovision has 0.675" o.d. per reference 4.4.1.
Conduit Sizing / Fill Determinations Conduit fill limits are listed in NEC Chapter 9 tables 1 and 4. In attachment 4 the calculated cable fill for each conduit being installed is calculated. Cable diameters were taken from Cabletrak database which lists cables used in the plant and specifications taken from purchase orders and vendor documentation.
Attachment 4 shows that all conduits are within the fill limits.
7.4 Relays Two additional AC relays (R81A and R81B) will be installed in the control circuits for this modification. These relays require 120 VAC coils. The contacts from these relays will be installed in 125 VDC circuits and 120 VAC circuits, so their contacts need to be appropriately rated.
A review of the control logic demonstrates that the maximum DC load on the relay contacts will be on contact number 1, which supplies control power to MCC K position IF circuit for the control room air handling unit supply fan. This circuit has a maximum DC load of 0.38 amps, consisting of a motor starter, solenoid, and a lamp (Load values taken from Reference 4.7.9). The AC relay contacts will be subjected to a maximum load of a single BF relay coil, with a 09 Page 10 of 17 Revision 2 DA-EE-2001-0
power requirement of 0.6 amps. Type BF relays have been selected for this application. The coils are rated for 120 VAC +10%/-15% and the contacts on these relays are rated for 1.1 amps at 125 VDC, and 6 amps at 120 VAC (reference 4.4.3, attachment 2). These rating are acceptable for the specified application.
review Existing relay R80B will still have one contact in the 120 VAC circuit. A contacts will of the control logic demonstrates that the maximum load on the relay 120 now be 1 BF relay which has a power requirement of 72 VA (0.6 Amps) at rating VAC. R80B is a Potter & Brumfield Type KRP1 IDY relay, with a contact of 5 Amps at 120 VAC (attachment 5). This rating is acceptable for the specified application.
7.5 Handswitch Ratings for The selected handswitches, , Westinghouse OT2 switches, have contacts rated 6 amps at 120 VAC, and are rated up to 600 volts. As the table in 7.1 demonstrates, the maximum current on any circuit could be 2.07 amps.
Therefore, these switch contacts are adequate for this application. See Reference 4.4.7.
7.6 Instrumentation Ratings The A17 Power Supply modules being used to power the existing Toxic Gas System instrumentation has an input voltage range from 85 to 270 volts, AC or power DC, per Ref. 4.4.1. This system will now be supplied from Instrument Bus not impact via the RMS racks, at 120 VAC, so the change in power source does the Toxic Gas equipment.
The Radiation Monitoring equipment requires 120 VAC power, +/- 10% (108 132 VAC) per Attachment 1. That is within the regulation range of the Instrument to Bus Twinco constant voltage power supplies, which by Tech Spec are required voltage drop have an output voltage of 115.6 to 124.4 VAC. Ref. 4.7.7 contains calculations for the existing circuits. The voltage drop from the Twinco to the RMS racks is much less than I volt, and the small load being added by this modification will not significantly impact that calculation, so power supply voltage will remain appropriate for the connection of the new ratemeters.
Alarm relay contacts in Model 956A-201 ratemeters are rated 5 A at 120 volts AC, per attachment 1. These contacts will be subjected to a maximum possible load of 1 BF relay, which is 0.6 amps (see 7.4 above). Therefore, these contacts are adequately rated for their expected load.
on each The ratemeter analog outputs are rated 4-20 ma. Each of the two outputs isolator ratemeter will drive a single input on the isolators RY-A and RY-B. Each are rated to input channel has an input impedence of 249 ohms. The ratemeters Page 11 of 17 Revision 2 DA-EE-2001-009
drive 500 ohms maximum load. Therefore, the ratemeters are adequately rated for the analog output devices they are connected to. The isolator outputs are rated to drive 1050 ohms on the 4-20 mA signals. The PPCS output point has a 250 ohm resistor at the MUXATP. The isolator is therefore adequately rated to drive the PPCS point. This is consistent with the existing connections to the PPCS in the MUX Auxiliary Terminal Panel.
7.7 Coordination / Isolation and Fuse Sizing Safety related fuses will provide isolation between the safety related equipment (R-45, R-46, R-10A, R-1 1, R-12, R-29, R-30, RK-78) from non-safety/safety significant equipment (toxic gas, isolators RY-A and RY-B, plus radiation monitors R-10B, R-13, R-14 and associated isolators and relays). The fuse sizing was shown to be appropriately designed in reference 4.7.6, and the new power source does not change any of the analyzed characteristics. The 3 amp fuses used for each circuit and circuit section are adequately smaller than the next upstream protective device, the breakers in IBPDPCBC (15 amp) and IBPDPCBE (20 amp) supplying the new system, so there is coordination between these devices. The 3 amp fuses are also adequately sized to carry the loads as shown on Atttachment 8 (maximum load on any fused section is 1.93 amps, which is less than 80% of fuse size).
Attachment 3 shows the coordination of protective devices between the fuses, breaker, and conductors.
Isolation of the Safety Significant PPCS from the Safety Related Radiation Monitors, which are connected at the analog output port, will be provided by optical isolation devices rated to protect the radiation monitors from damage due to fault, short circuit, or open circuit. The power supplying the isolators is supplied by the instrument bus circuits described above, and are electrically isolated by fuses. The new fuses used for isolation of power to the PPCS isolation devices (RY-A and RY-B) are also rated 3 amps and will coordinate with the breakers and conductors as described above.
7.8 Panel Loading Panel IBPDPCBC is supplied by 2.0 Kva Twinco voltage regulator MQ-400C, and panel IBPDPCBE is supplied by 2.0 Kva Twinco voltage regulator MQ-400E.
Design analysis DA-EE-2001-047, reference 4.7.7, has detailed equipment rating and loading information, which already incorporates the loading added in Rev. 0 of the PCR. Rev. 1 of the PCR only adds more load due to RY-A and RY-B having 0.09 amps additional. The loading on Atttachment 8 shows the loads of each individual device, where it is supplied from, and the total loading to each fuse. MQ-400C and MQ-400E have maximum allowable loadings of 16.9 amps each. The existing load is 14.31 amps on MQ-400C, with 2.59 amps of margin.
DA-EE-2001-009 Page 12 of 17 Revision 2
There is 11.89 amps on MQ-400E, resulting in 5.01 amps margin. The addition of the new SCA300 isolator with an additional 0.09 amps of load will not exceed these margins.
DA-EE-2001-047 shows a maximum load of 1.72 amps to RMS-3 on breaker of IBPDPCBC/ 1, and5.70 amps to RMS-l on IBPDPCBE/1. With the addition the new style SCA300 isolators, they remain well below the 15 and 20 amp breaker ratings of those positions.
7.9 Electrical Noise Reduction Instrumentation cabling has been provided by the vendor. Per Electrical Specification EE-171, the system has been tested to meet the EMIJ/RFI testing in accordance with EPRI TR-102323-Rl. The equipment will be shipped with a test report demonstrating the equipment with supplied cabling meets that standard.
PCR package outputs reference the vendor documents which provide instructions for configuration and connection of all cables and shields to maintain the configuration used to meet these standards.
PPCS connections for analog signals will also use shielded cable and connections per normal construction practices utilized for PPCS inputs. These measures should adequately address instrumentation noise issues.
To avoid potential disturbances caused by the actuation of isolation signals, Quencharc surge suppressors will be installed across the coils of relays R81A and R81B in the control circuits to dissipate energy from relay coils when the contacts open. The Quencharcs across the contacts installed previously will be removed as the single Quencharc in each logic string on the relay coil will provide the appropriate surge suppression for each circuit. This is consistent with installation on related circuits in PCR 98-097, Ref. 4.7.2.
7.10 Control Circuit Logic The overall control circuitry has been designed to maintain the fail-safe operability of the original Control Room HVAC Isolation system, including inputs from both the toxic gas monitors and the new radiation monitors. In all modes, failure of a component due to loss of power (which typically causes a component to return to its de-energized state) will result in the controlling contacts to open, resulting in de-energization of the controlled device, ultimately resulting in the CR isolation dampers returning to their de-energized position, which is in the isolation mode. Loss of power to any component, or to the total circuit, will result in a CR HVAC isolation being initiated.
7.11 Single Failure Page 13 of 17 Revision 2 DA-EE-2001-009
Attachment 7 is a block diagram of the control logic for actuation of a control room isolation. The design incorporates both redundancy and cross-train initiation. In summary, there are two redundant trains of isolation logic, each with a manual and automatic isolation device. Any device (A or B manual or A or B automatic) will initiate a CR isolation in BOTH trains. In this way, for any actuation, if any downstream device fails, the opposite train will still receive an actuation signal. The following sections were taken from the document attached to the Tech Spec Amendment RAI, titled "Conformance to IEEE Std 603 for Modifications Associated with License Amendment Request", dated April 26, 2002.
7.11.1 Single Failure Criterion.
The proposed safety system will perform all required safety functions for a design basis event in the presence of (1) any single detectable failure within the safety systems concurrent with all identifiable but non-detectable failures; (2) all failures caused by the single failure; and (3) all failures and spurious system actions which cause or are caused by the design basis event requiring the safety functions. The guidance of Reg. Guide 1.53 and IEEE Std 379 was used to evaluate the system design for single-failure adherence.
7.11.2 The safety function reviewed under the scope of this modification is the initiation of a Control Room isolation signal. The portion of the system enveloped by this review is from the radiation detectors in the air intake duct through the output contacts on the isolation relays in the Auxiliary Benchboard. It includes the power supplies and all inter-connected non-Safety related components. It will not include the isolation dampers and charcoal filter units controlled by the isolation relays - they are beyond the scope of the modification and their design has not been changed by this modification. Final post-modification functional testing does include testing of these devices to ensure that they perform their safety function and were not impacted by the changes.
7.11.3 The protective action that is a result of the proper operation of this system is to provide initiating isolation signals to the isolation devices from the isolation relays upon detection of radiation levels above the setpoints.
7.11.4 There are two redundant safety groups, A train and B train, that are capable independently of performing that function. Each functioning component in each group has a redundant component in the other train. There are two detectors, two ratemeters, two initiation relays, and two manual isolation pushbuttons, with power provided by two separate power supplies. The redundant relays result in two separate output contacts to each of the isolation devices, each contact capable of providing the signal to the isolation device to go to the isolation position.
7.11.5 The design of the system demonstrates that independence between the two safety groups has been established. For initiation of the signals, there are no shared Page 14 of 17 Revision 2 DA-EE-2001-009
components. Each train is powered by a separate power supply, cables run in separate train-dedicated conduits, each relay will operate irrespective of the state of the other relay, manual isolation pushbuttons will provide isolation signals irrespective of the other button or of the status of the automatic isolation signals.
7.11.6 The design of the logic includes cross-train signal connection so that an initiating event on A train (automatic or manual) will initiate an isolation signal to both relays, and likewise for B train. This was incorporated in the design to provide additional redundancy, so that failure of one relay would not prevent a high alarm from the detector of the other train from initiating an isolation. The points of train cross-connection only add redundancy, and there is no resultant single-failure point caused. The points of cross- connections are limited to the wiring of normally open device output contacts into the actuation circuit of the other train.
There is no manner in which the normally open contacts can fail that will disable the opposite train's actuation logic.
7.11.7 Mounting of all redundant components in the same structures (such as both detectors in the duct, both trains of logic in Auxiliary Benchboard, both trains of conduit sharing conduit supports) has been performed in a manner to preclude a single component failure (mounting bolt, etc.) from causing both trains to fail, including design basis seismic events.
7.11.8 The power supplies to the separate trains are independent, separated, and highly reliable, being fed from completely independent UPS systems. There is no common wiring point from the ratemeter location back to the ultimate supply source. Electrical protection in the form of breakers and current limiting transformers have been analyzed in design analysis DA-EE-2001-047 to be appropriately sized to protect all equipment, further reducing the potential for failure on one train of power propagating to devices on the other train. DA-EE 2001-047 also demonstrates the capability of both power supplies to independently supply power adequate for the operation of all equipment required to perform the safety functions. For further protection, all devices powered by the power supplies are configured so that on a loss of power, the output of the devices goes to the isolation initiation state.
7.11.9 System Portions Analysis (section 6.2 of IEEE 379) 7.11.9.1 Both trains of equipment have outputs that supply a signal to the non-lE Plant Process Computer System (PPCS) and non-lE radiation recorders. These signals are analog outputs from each ratemeter to communicate radiation levels to the PPCS and the recorders, and this is a non-safety related function. A failure in either the PPCS or a recorder is prevented from causing a common failure in both ratemeters by insertion of independent qualified 1E optical isolators in the circuits that connect the ratemeters to PPCS and the recorders. The isolators themselves are isolated from the 1E power supply to them by putting 1E fuses in the supply Page 15 of 17 Revision 2 DA-EE-2001-009
circuit.
7.11.9.2 Both trains of isolation actuation logic have signals from the non-IE toxic gas monitoring system (contacts from the toxic gas system processing modules).
These signals and power to the toxic gas power supplies are all isolated from the safety related portion of the design by qualified fuses.
7.11.9.3 A review of the logic demonstrates that there is no single failure point in the circuitry. Refer to Attachment 7 for a block diagram of the system design. The conclusion is that there is no single failure in the system logic that will cause failure in the channels or actuation circuits that would cause loss of the safety functions.
7.11.9.4 Devices in the isolation logic circuits are configured to fail so that any de energized equipment will fail to the position that provides an isolation actuation signal. Power cannot be maintained incorrectly on the actuator system terminals and cause a loss of safety function because multiple normally open contacts in series provide the actuation signal to the isolation relays, and the isolation relays output contacts likewise are normally open in the control circuits of the associated dampers.
7.11.9.5 SK21946-0546SHI-1 and SK21946-0546SH2-1 diagrams of this design, and the series of normally open contacts is apparent. This series of open contacts, coupled with the cross-train connection of the output contacts to each isolation device, provides assurance that even the mechanical failure of contacts to open upon a loss of power in one relay will not prevent the isolation function from occurring due to the opening of the contact in the other train of isolation initiation.
7.11.9.6 The connection of electrical power supplies is completely independent. The malfunction of a power supply in a manner that results in a high voltage would only impact a single train, again due to the cross connection only being via normally open contacts so that no voltage is being supplied from one train to the other.
7.11.10 All other systems or components that are coupled to these safety systems have been integrated so that they cannot fail in a manner to degrade the safety system.
Maintenance bypass switches are designed and installed in the circuit so that a contact block failure will be detected by the indicating lamp associated with each switch. The bypass functions for each train have been connected with separation from the opposing train, and all components qualified and installed safety related.
7.11.11 SRP Appendix 7.1-C Section 6 contains discussion of scope of review beyond IEEE 603 Single Failure Criterion as it pertains specifically to digital I&C equipment. The concerns with digital equipment in that section are centered around the sharing of data, functions, and process equipment inputs such that a design using shared databases and process equipment has the potential to DA-EE-2001-009 Page 16 of 17 Revision 2
design feature is propagate a common-mode failure of redundant equipment. This of this not applicable to the radiation monitors that are being installed as part equipment modification. The redundant monitors do not share any data or process inputs from inputs. The two monitors operate independently, with train-specific functions will the detectors. The output alarm contacts that provide the protective redundant train.
operate independently of the status or signals associated with the of Therefore, the digital nature of these monitors does not lead to the propagation systems a common-mode failure of this type. The second concern of digital I&C achieved by the is that software programming errors can defeat the redundancy for this hardware architectural structure. In the application of digital technology they impact the installation, the software functions are very limited in how
- 1) the system. The digital functions that are part of the safety functions are and 2) the signal calculation of a dose rate based on input signal from the detector, on user-set to the alarm relay to operate to change output contact states, based other than alarm setpoint. These two functions have no other inputs or variables are the dedicated detector signal for that ratemeter. Both of these functions time of completely tested before installation by the manufacturer, at the and at normal installation by post-modification calibration and functional testing, checks, channel operating intervals via Technical Specification required channel and testing operability tests, and scheduled calibrations. All of this monitoring that the software throughout the operating range of the unit provides assurance and functions utilized to initiate the protective functions are properly programmed error that operating for each unit, and that there is not a software programming function in a will occur that will prevent the equipment from performing its safety manner to cause both units to fail at the same time.
8.0 Conclusions as defined 8.1 The design shown in PCR 99-004 Revision 1 construction package described above meets technical operational requirements. The electrical factors to be in section 1 above have been evaluated and have been demonstrated adequate and appropriate for installation and operation.
Page 17 of 17 Revision 2 DA-EE-2001-009
Power ONIOFF Alternate action pushbutton for AC Specifications a[Jniver. Digital Raterneter) power to the unit The Victoreen Model 956A-201 Universal Digital Rate Model 897A meter (UDR),when connected Ioa Victoreen Relay Outputs 2XY Geiger.Muclier (GM) tube detector, comprises a (Fals.fe operation) HIlGHAlam - I set. DPDT rated 5 a five decade A @ 120 Vac (one set 120 Vac monitoring system which operates over for use with optional local and annuncia powered range. Tbe UDR provides display, control, will display alarm) tion functions for the monitoring system. and WARNAlzrm - 2 sets. DPDT rated readings in the range of 10" to UP mR/h. 5 A Q 120 Vac Standard features for the instrument consist of a three digit FAIL AIrm' - 2 sets. DPDT rated 5 display of the radiation value and a multi-colored bargraph A @ 120 VacDC. Contact raung for which covers the entire range of the LTDR. The indicator all relays is 5 A @ 29 VDC condi bargraph will change color in the event of an alarm for tion (green for normal. amber for warning, and red HV Output 300 Vdc - 1800 Vdc @ 0.4 mA panel relay high). Front panel alarm indicators and rear outputs for alarm annunciation are also included. Front Check Source PWR +15 Vdc @ 20 mA panel pushbuttons are provided to apply power, display alarm limit set points, acknowledge alarms, and activate 41o2I)M (2) (500 ohms Max.) and Kalog Outputs the check source. Oto l0Vdc(lk ohm Min.). logarith Analog outputs of 0 - 10 Vdc (1) and 4 - 20 mA (2) are mic. May be scaled for any one provided for recording and computer monitoring. The decade (Min.) to the full range of the outputs may also be used to drive a remote meter or a local unit (Max.)
(i.e. near the detector) indicator.
Alarm Ack Input Optically isolated DC input All electronics required to interface with the VICTOREEN 897A series GM detector arc included within the 956A-201 Digital pulse, up to 2000 feet from Detector Input UDR. The electronics consist of a high voltage power tUDR. 50 ohm input impedance supply, low voltage DC power supply and the hardware/
Accuracy software required for UDR operation. The system also +/-E 1% digit (+/- 1% of the displayed (electronie) includes an overrange indicator to preclude the possibility value), exclusive of the detector en of on-scale readings when the radiation field is beyond the ergy response range of the detector.
Dimensions Main Display Three digits with backlighted radia 3.5 in. x 5.6 in. x 13.5 in. (8.9 cm x (Hi WxD) tion units display and floating deci 14.2 cm x 34.3 cm) mal point. Three digits plus expo nent for data entry/display. Weight Approximately 3.7 lb. (1.67 kg)
Bargraph Display (Dynamic Range) Three segments per decade, 10-2 to 120 Vac +/-10%. 50/60 Hz. 28 watts Power 106 mR/h (24 segments), tri-color, (240 Vac optional) indicating channel status. Operating &
HIGH, WARN. FAIL, RANGE Storage Temp. 32 0 Fto 122 0F(0cCto+ 50 C)
Alarm Indicators Pushbuttons HIGH. High Alarm lunit Relative Humidity 0 to 95% non-condensing WARN, Warn Alarm lunit Compatible Check Source Activates radioactive Check Source Detector 897A Series, GM (Geiger Mueller and associated green LED indica tube) tor. "Momentary Non-Latching Heat Loading Approximately 96 BTU/h pushbutton operation" "AlarmAeL ATarm acknowledgment: causes Accessories &
alarm indicators to go to a steady on A=x. Equipment Please Contact our Systems Sales state after acknowledgment 6000 Cochran Road CleMand, Ohio 44139 - 3395 e Phone 216 - 248-9300 a Fax 216 - 248-9301
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ReadoUL 897A-210, 897A-211 45 microseconds Victorcen Model 856 Analog 897A.220, 897A-221 28 microseconds 897A-230, 5MTA-231 20 microseconds 7 l/8x3 inches (18.1 x 7.6cu1)
Dimensions Measurable Radiation 1 lb. (0.45 kg) 897A-210, 897.-211 lur 2 1 Weight 102 tolO to I0' 0mn*
mR/h ih Housing Material B97A-220, 897A-221 Aluminum, weatherproof 10- to 0I mR/h 897A-210, 897A--2 ,
0 897A.230, 897A-231 Aluminum. weatherproof 897A-230 Stainless Steel, weatherproof Fxcee.s 1000 hours0.0116 days <br />0.278 hours <br />0.00165 weeks <br />3.805e-4 months <br /> at full-scale 897A-211, 897A-.21, Detector Element Life Energy Dependence of Stainless Steel. weatherproof Reading +/-15% from 100 keV to 1.5 897A-231 MeV
+/-: 20% of actual dose for Cs F1Il Gas Detector Accuracy Neon I Argon I Halogen 137 897A-21O, 897A-211 Helium / Neon I Halogen Gamma rays. X-rays 897A-220, 897A-221 Radiation Detected Helium I Neon I Halogen 897A-230, 897A-231 Wall Thickness (bare tube) frzamunaf 32-40 mg&c/= >100 k-ohms 897A-210, 897A-211 Input Impedance 2 50 ohms 897A-220, 897A-221 80-100 mg/cM Output Impedance 2 Positive 897A-230, 897A-231 80-100 mg/cm Output Pulse Polarity Wall mount +5 Vdc square-wave Mounting Output Signal (S0 ohm) 897A-2x0: +15 Vdc (Optional +10 Vdc is Mating Connectors Low Voltage 92-7005-17A, 12 Pin Female jumper selectable) 92-7005-12A. Bushing Power Requirements +15Vdc @ 2OmA 92-7005-9A. Clamp Maximum Cable T97A-2x] (stainless steel): Length 1700 feet 92-7005-15A. 12 Pin Female Electronic Exposure 92-7005-12A, Bushing Life Approximately IDs fads 92-7005-13A. Bushing Adjustable from 0 to +2 Vdc Discriminator Level Required Cable Victoreen PIN 50-100 or (nominal value = 0.5 Vdc) equivalent with two coaxial con Adjustable from 0 to +3Vdc Anti-Jam Level ductors, two twisted pairs, and overall shield. Anti-Jam Oscillator Freq. Approximately 50 kHz External Pressure Limit 30 psig Analog & Digital
-10" to 122] (-23" to W0C) out Storage Temperature Monitor Configuration Divide by 2. square wave put Operating Temperature -10" to 122F (-23" to 50C)
Optional Monitor configuration Raw pulse output Relative Humidity g to 95% non-condensing (jumper selectable) 2,.164-289DiF,*Il'- o.k -B[t-I:1,
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Area Radiation Monitor GM Detector Jul IEEN Model 955A Features The system consists of a Model 897A series Geiger
- Range: 5 decade between 10- and IO0 mR/h Mueller (G-M) Tube Detector with integral preamplifier
. Energy Response: 15% from 100 keV to LS MeV and the Model 956A-201 Universal Digital Ratcmeter
- Life Expectancy: Up to 10 Rads (UDR).
- No external power needed at detector location
- Preamplifier integral with detector Application
- Seismic tested with high reliability
- Readout may be remotely located up to 1700 feet Area monitoring is used for the detection of X-Ray or
- Single cable between readout & detector gamma radiation in a selected area. The morutorshould be
- 8 micro Curie -Cl check source used in any area location where personnel may be exposed to an adverse amount of radiation. Applications include Introduction nuclear reactors, accelerators, hot cells, irradiators and any area where radiation sources are handled. These The Victoreen Model 955A is a single-channel area radia monitors can be used as single channel monitors or grouped tion monitoring system capable of operaung over the together as a multi-channel area monitoring system.
ranges of 1 to mR/h. l0' to 10' mR/h. or 100 to l(s mR/h. depending on the detector selected The system Specifications (Ion Chamber & Preamplifier) monitors gamma radiation over a 5-decade range and provides indication when the radiation level decreases Victoreen 897A-series GM detectors use a thin walled below a fail threshold. exceeds a warn set point, exceeds Geiger-Mueller tube to detect ionizing radiation. Each a high set point, or exceeds an overrange set point. The 897A-scnes detector has a GM tube. a check source, and overrange feature provides twosignificant benefits. First. a preamplifier. The check source is a low-level radioac it prevents the system from displaying an on-scale, but tive source actuated by a + 15VDC meter movement. The inaccurate, reading should the detector become saturated. preamplifier provides the pulse conditioning and cable Second. it lessens the risk of damaging the detector by driving capability necessary to dnrve a Victoreen 956A disabling it during an overrange condition. Relay outputs 201 series digital ratcmeter.
are available to activate alarm annunciators. Analog outputs are available forbtrend display on a stip chart All 897A-series detectors arc functionally identical. They recorder or computer. In addition, the monitoring system differ only in housing material, tube type, and range. The has an integral check source to verify operational integ 897A series detectors operate in the voltage range between ri'y. 500 - 650 Vdc.
GDOO Cochran Road e Clevb1and., Ohio 44139 .3395
- Phone 216 - 24"3DD o Fax 216 - 248-9301 19SSAMS Attachment / -EC 2Oo -Xo Page 3 of 3
INDUSTRIAL CONTROL FixedRELAYS Contacts Cat. Nos. BF and BFD CO3MPLETE RELAYA WHEN ORDERING SPECIFY Tye f onac Numer I SBF 3 Vo.t 96 Basic Relays _j BFDA 10 VoS Basic Reimy t DC
"*catalog number of basic relay. 120 Dc Co6
"*If a coil voltage other than listed is required, select the Pole$ Tt0Fof-NO N*C 2060
-ClIOG
-* Cataog Pc 14 suffix code from the Coil Voltage Table and substitute it for .3 . A)
(Form
. i(Form 0 8)
DFE...84..
Number Number the last letter in the catalog number.
$102.
Example: BF8OV for a 110/60 ac coil. 2 0 BF20F $72.
72.
BFDO2S 11S 102.
2 1 1 11F 4 2 02F 72. 02S 102.
3 F30F 84. BFD30S 114.
DESCRIPTION 3 6 1 21F 84. 215 114.
are compact 2 Type BF and BFD relays suited 1 0 2 12F C1F 140.
84 0US 114.
114.
induStrial control relays ideally for machine tool and similar applica 4 0 BF40F 196. BFD40S 126.
Type BF tions where size is a factor. 7 1 31F 13. 31S 126 Is ac operated, 300 volts maximum. volts.
and the BFD is dc operated. 250 in 4 04F -1962 0 126.
relays are available 0 Fixed contact BFD60S 138.
any combination of NO and NC from -6 5 01 BF60F 51F 108.
ice. 51S 138.
two to twelve poles. The NO and NC 622S 162.
Type BF 4 4 62 22 22F 4.F 132.
108. 42S 138.
contacts are electrically isolated and 6 31 3 3
4 33F 53F 24F 132.
96.
108. 13S 315 24S 1262.
126.
138.
to 2 both can be used without regard polanty. 0 6 6SF 108. 065 138.
-- 8 0 BFB0F 132. 8FD8B,* 152.
162.
BF and BFD relays have captive 7 1 71F 132.
132-71S 652S 162.
clamp terminals fully accessible from 6 2 62F oper the front. a molded coil with low 8 5 3 53F 132. 53S 162.
ating temperature. and silver alloy 40 48 44F 08F 158.
132 44S CBS 138.
162.
contacts suitable for tow voltage cir cuits. Overlap contacts are available. 10 0 2FI8OF 156. 2BFD100 186.
82F 156. 82S 186 All contacts feature the exclusive 78 1 32 73F 156. 7/3S 186.
knife-edge design which provides a 10 6 4 64lF 132. 64S 162 55F 132 55S 162 "self-wiping' action on every closure. Type 8FD 5 5 4 6 46F 156 46S 186 2 8 28F 156. 28S 186.
ULICSA 12 8 04 BF120F 180 84S 10U.
UR, UL File No. E1 9223 7 5 84F 75F 156 75S 186.
CSA certified, File No. LR39402-6, LR28548-1 0, 11 12 6 6F 180. 65 210.
5 7 156. 57S 210.
210.
8 180 4 4SF 180. 43S 210.
OPTIONS Price Code Letter or I Catalog Number Adder NOTE Relays listed above with equal number of NO and NC contact charge.
additional poles ale Description specially priced - 1 NO and 1 NC pole are supplied at no FASTON Push-on Terminals - insert letter " after relay type designation in $1.50 listed catalog number. Example. BFF20F F per pole orBFDF20S ................. ....
Overlapping contacts- NO contact closes before corresponding NC contact opens - supplied as NO/NC set(s) In serf letter A after relay type designation 1B in listed catalog number. Example, A per set 8FA22F or BFDAF22S................
Filler Relay - empty relay case for mounting a timer on a BF mounting strip.
Cat No. BFMS, when other relays cannot 18 be used .O...................... O COIL VOLTAGE TABLE BF Coils BFD Coils Volts Ac Hz - - Suffix Code Volts Dc Suflix Code 12 60 H 6 C 24 60 I 12 D 48 60 J 24 L 60 V 48 M 110 a 208 60 K 95 2401220 6W50 G 130 240 U
T Attachment_
440 60 C CONTINUED NEXT PAGE mrr,.,e r *Pflr J'll/MFJ'M.lflIN'q Pane I- A :vT.N Vf%)Uuuri I %1rU11ruuL1Z ILI n *1 rllUFN4QlC)N9 1 Pane July 1995 L-21 L-21 July1995
INDUSTRIAL CONTROL RELAYS Fixed Contacts Cat. Nos. BFand BFD CONTACT ARRANGEMENTS FOR BF, BFD RELAYS N O. - Normally Open N.C. = Normally Closed 2 Pols 13 Poles I4 Poles "2N 0 . N.O.I 3 N.O.I 2 N.O. I 1 N.O. 0 N.O. 4 N.0- ' 2N.O.I O.I 0N.o.
2N.C.: 3NC-I 4NC-
-1 1 IIN r. NCI ONC. I1 NC. 12N.C. 13NC. 1QN.C.I 1N-C 6 Poles 3 Poles 6 N.O" 5 N.O. 4 N.O. 3N.O. 2Nf0. 8 N.O. 7 N.O. 6 N.O. 5 N.O. 4 N.O. 0 N.O.
o-N.C. INC IN.C 3N.C. 4NC ONC ISNC. 2N.C.{ 3 N-.4N.C.-8 N.C Rear y fll fy11filRear Tl H T ___
F- Front 77 Front 7700 10Poles 12 Poles 6 N.O. 4N T 18 N.O. 71N.O.Z15..O.
12 NN.O. *. .N.£.
4 N.C. 5 N.C. 6 N.C Q0NC 4 NC. 5 N.C. 6 N..C. 7 N.C._8 N.G;.
Rear :771 ON?I HIrw.
IT it. i.
Lill Center iti TT ff44 Front f fill, 11111111°°tt1111111 Attachment Page 3- of ,
July 1IM L-22
Current in.
I
.1.
KS N
10 100 1000 10000
.5 FUSE CURVE APPLIES TO PLOTTING VOLTAGE 0 12 kV BUSS KTK OR KLM TYPE BY, 1'"
DA-EE-2001-009 REV.2 PAGEZOF 2 NO. PCR 99-004 REV.1 ATTACHMENT 3 DATE: 5-2-2002
.1
')
£ 5 1 10 100 1000 lu0 20 FUSE CURVE APPLIES TO PLOTTING VOLTAGE'O 12 kV BY:
BUSS. KTK OR KLM TYPE PAGE 2 OF 2 NO: PCR 99-004 REV. 1 DA-EE-2001-009 REV.2 DATE: 5-2-2002 ATTACHMENT 3
Attachment 4 Codi', enstaIed e.--Fil Soe-- dxt Existing conduits with new cables in bold C5529 I YA" C5529 1-2-12 0.138 0..552" 0.814" C5530 1-2-12 0.138 C5543 1-2-12 0.138 C5544 1-2-12 0.138 C5529.1 1 1/2" C5529 1-2-12 0.138 0.552" 0.814" C5530 1-2-12 0.138 C5543 1-2-12 0.138 C5544 1-2-12 0.138 C5539 1 /" C5539 1-2-12 0.138 0.414" 0.814" C5545 1-2-12 0.138 C5546 1-2-12 0.138 C5539_1 1 1/2" C5539 1-2-12 0.138 0.414" 0.814" C5545 1-2-12 0.138 C5546 1-2-12 0.138 New Conduits and Cables C5551 2" C5551 1-4-12 0.185 0.621" 1.342" AU0235A 1-2TSP-16 0.078 R4522 10/C special 0.358 C5552 2" C5552 1-4-12 0.185 0.621" 1.342" AU0239A 1-2TSP-16 0.078 R4523 10/C special 0.358 R4522 I V2" R4522 10/C special 0.358 0.436" 1.079" AU0235A 1-2TSP-16 0.078 R4522.1 1 1/2" R4522 10/C special 0.358 0.436" 1.079" AUO235A 1-2TSP-16 0.078 R4522-2 1 /A" R4522 10/C special 0.358 0.358 1.079 R4523 1 1/2" R4523 10/C special 0.358 0.436 1.079" AU0239A 1-2TSP-16 0.078 R4523_1 1 '" R4523 10/C special 0.358 0.436 1.079" AU0239A 1-2TSP-16 0.078 R4523_2 1 Y21" R4523 10/C special 0.358 0.358 1.079 AU0235A 1 1/2" A0235A 1-2TSP-16 0.078 0.078 1.079 AU0239 I 1/2" A0239A 1-2TSP-16 0.078 0.078 1.079 DA-EE-2001-009 Rev.KZ 0- Ah Attachment 44 p. 1I of I
Components Putter &BrumfieldO Relays "SiemensElectromechanical KRPA, KRP, KA, KR series 5 to 10 Amp General Purpose Relay 9d File E29244, E22575, E81558 (KR Hermetic) 6 File LR15734 KRPA KRI KA Coil Data @ 25*C Features
".-omlna
" Poer *** M- lmmm Po T -.
- Industry standard octal-type teimination for Quick installation
- Contact arrangements from 1 form A ISPST - NO) to 3 Form C (3PDT) KRP AC 2VA Open Models - 5VA
- Indicator lamp and push-to-test options available on certain models Enclosed Models - 4VA
- The KRPA seris is the autoimated manufactured version of the KRP KRPA DC 12W Open Models - 4W series Enclosed Models - 3W
- Hermetically sealed option available with KR UL recognized for Class I KA AC 2VA -- Open Models - 4VA Din 2 Hazardous locations. Groups A. B. C. 0 Open Models - 4W DC 125mW per movable arm Duty CVcle: Continuous Contact Data @ 25'C Initial Insulation Resistance: KRR KRPA - 1000 Megohms. nfun Arrangements: See Ordering Information Table KA - 100 Megohms, man Materials: Silver or siveh-cadmium oxide. with or without gold Coll Data M 25C flashing Eapected Life: 10 million operations min. mechanical. 100,000 .. l..": . CRastu. (aoe "] . cJVaminalCoulI operations minn rated loads F__T_______
C-uirret~tA)'
KA, KRR, KRPA ULCSA Contact Ratings @ 256C 6 32 188 (Except KR) 12 120 100 DC 24 472 51 COils 48 1.800 e -' 266
- Cod# - Arnaagem~aVlt contact Rating 110 10 000 *-11 5 220 Use 11OV fowvwth 100000 WRsior i .sewres W*
Y&L 1. 2. 3 Poles 5A @ 120VAC 3A @ 240VAC 6 6 335 (Silver) - 111OHP 0 120VAC 168 AC 12 -24 1/6HP C 24OVAC Colls 24 8s 84 20 2.250 175 10A @ 240VAC 240 9.110 575 G&N 1. 2. 3 Poles (Silver-Cad 1/2 HP 0 240VAC Oxide) I1/3HP 0 120VAC KRP KRPA Factory Ratings Operate Data @ 250C Musit-Operate Voltage:
"" deC IArm.ell "Contac"t . Retina'. DQ: 75% or less of nominal voltage AC: 85% or less of noinmal voltage
- 1. 2. 3 Poles SA 0 28VDC. 120VAC. 80% PF Operate Time (Excluding Bourice)-.
Y&L 15 milliseconds typical a nominal voltage G&N 1. 2.3 Poles 10A 0 2OVDC. 120VAC. 80% PF Release Time (Excluding Bounce):
6A 0 250VAC 10 milliseconds typical 0 nominal voltage KA UL Contact Ratings Cotat. Ratings Environmental Data
.r..Cods.,
Temperature Range:
Open Models: AC: -45C to *70*C y KAI 5A 0 120VAC. 3A @ 240VAC. DCQ -45*C to 4851C 1/10 HP @ 120VAC. 1/6 HP O 240VAC Enclosed Models: AC: -45*C to &55"C DQ: -45"C to 470=C G KA2 10A @ 120VAC. 6A @ 240VAC 1/6 HP 0 120VAC. 1W3HP 0 240VAC 2Il.sted b, CSA foaSAO 120VAC 90% Pr Mechanical Data LiUtd WyC.A lamMAO 120VAC 110%K~
Open Models: Solder terminals Enclosed Models: Octal-type plug
Enclosures:
Transparent polycarbonate texcept KR)
Initial Dielectric Strength Hermetically sealed metal case available with KR only Between Open Contact-g 500V rms Weight KA. 17 oz (48 2g) approximately KRPA. KRP: 3 0 z CB5g) approximately Between All Element: 1.500V rms NIPaw S9 KRPA, KRP ICAKR-EOrdering hnfr*lmun INV* on P1g410 k'I'
~ -eE~e2~
-?s
NUS Instruments SPECIFICATIONS FOR ANALOG ISOLATOR MODULES module with one to eight The analog isolator module, model number as hsted below. Is a solid state signal conditioning and isolation basic circuils jor isolation lI utnts use the same Inputs which provides from one to eight outputs electricaly isolated from the inputs.
The SCA and FIA use PC boards unique to their and signal conditioning. All mufti-channel FCA units use the same Isolator PC board. separation between the outputs.
applications. The FIA has separate DC power supplles for each channel and therefore has electrical MODELS AVAILABLE Model Channels Model Channels Model Channels Model Channels Model Channels 4.3.2 ECAS00 84 FCAe00 4,3.2 SCA100 1 FCA300 4.3.2 FCA500 4.3,2 FCAS00 FRA800 4.3.2 FIA500 4.3.2 SCA101 1 FLA350 OCA500 1 OCA600 1 oCAe00 1 1
SCA102 1 OCA300 SCA103 1
'KD' Irr f1tTID"r ANDl POWER RANGE CODES POWER SOURCE TNPTPr IMPEDANCE CODE RANGE CODE RANGE IMPEDANCE CODE RANGE 7.2 xx xx zz 00 Not Loaded 00 Not Loaded 00 Not Loaded 0 to 100 mVdc 32.9 ohms 08 85-132Vac/125Vdc 01 0 to 100 mVdc 100M ohms 01 02 0 to 51 mVdc 17.3 ohms 02 0 to 51 mVdc looM ohms 299 ohms 03 0 to 1 Vdc 100M ohms 03 0 to 1 Vdc 100M ohms 04 0 to 5 Vdc 825 ohms 04 0 to 5 Vdc 825 ohms 05 1 to 5 Vdc 5.2M ohms 05 I to 5 Vdc 400k ohms 06 0 to 10 Vdc Ik ohms 06 o to 10 Vdc 1050 ohms' 249 ohms--2o0l 4 to 20 mAdc 07 4 to 20 mAdc 10 to 50 mAdc 660 ohms*
08 10 to 50 mAdc 100 ohms 08 50 ohms 09 0 to 180 mVdc 59.3 ohms 09 o to 1 mAdc 0 to 20 IAdc 1050 ohms' 11 o to 20 mAdc 249 ohms 11 ohms 12 0 to 50 mAdc 660 ohms' 12 0 to 50 mAdc 100 249 ohms 13 50 to 10 mAdc 100 ohms 13 1 to 5 Vdc IM ohms 14 10 to 44.29 mAdc660 ohms 14 Variable 15 0 to 8 Vdc 428k ohms 16 -10 to I0 Vdc 3.7M ohms Not 17 -2 to 15 Vdc 2.4M ohms 18 5 to 1 Vdc 100M ohms These are not output impedances but the output 19 3.6 to 11.6 Vdol77k ohms drive capabilities of the current output modules.
20 2 to 10 Vdc 427k ohms 1.) Some combinations may require alternate 21 -2 to 2 Vdc 3.5M ohms specification, consult NUS before ordering.
22 -20 to 20 mAdc 249 ohms 2.) Other input and output ranges may be available or 23 N/A can be engineered. Alternate terminal arrangements 24 1 to 2 Vdc 3.2M ohms and multiple output models are also available.
100m ohms 3.) This list is complete as of 05/98.
25 0 to 4 Vdc 26 10 to 32.4 mAdc200 ohms 9WVRONMENTAL' Ambient Temp.: 35 to 122F (2 to 50"C) (Normal Operation - all specifications apply) 35 to 135"F (2 to 57"C) (No damage-Abnormal Operation for 200 hours0.00231 days <br />0.0556 hours <br />3.306878e-4 weeks <br />7.61e-5 months <br />, may operate outside performance specifications)
-40 to 1851F (-40 to 85*C) (Storage)
Relative Humidty: 0 to 95% non-condensing (Operating) 0 to 99% non-condensing (Storage)
Pressure: Atmospheric *10 psig Radiation Umits: 10 Red TID gamma over forty years Isolation: 3000 Vdc and 1000 Vac (RMS) from Input to output.
(Each Input is isolated from every other to these values) 1000 Vdc and 1000 Vac (RMS) from Input to case Attachment -
il ý, - C 1.0o 1 -ooA j N"- Page . o 2-
Fault Withstand. 480 Vac or 140 Vdc at 20 amps on any port. all ports provide isolatlion from any cot on FRA versions. Same specification except output ports Isolated from power port to 132 Vac only on all other versions.
Surge Withstand: No damage when the waveform of IEEE.472-1974 Is applied In common or tIansverse mode to any port.
Electrical Class: Plant protection, qualified to IEEE 323-1974/1983 and IEEE 344-1975/1987.
POWER .SUPPLY Power NORMAL OPERATION PEAK AND INRUSH 1Ch Series 100. 500 3W,7VA 5W, 18 VA (maximum)
S4 Ch Series 300,350.500, 00 8W, 18VA 12W, 50 VA (ma~amulm) 8Ch Series 600 15 W.36 VA 24 W, 75 VA (maximum)
Supply Voltage: 51to132 Vac.47to63HZor 1l1tol70Vdc. Harmonicsof power lrie frequency. tothe 21st harmonic, comprising up to 60% of the total voltage, present on the power supply port, have no effect on the module output Temperature Effects: Less than 0.025% of output full scale change for a 1"C change In temperture.
Time Response: Less than 5 msec from application of a step change at the Input to a change in the output (resistive load) of 63% of the final value. (Filters bypassed or not In the circulL)
Accuracy. eO.10 of output full scale, repeatable to 0.05%.
Linearity. 0.05% of output full scale Freq. Response: DC to 20 Hz (120 Hz for ac inputs) or as specifled (5 kHz maximum)
Senes 100 Version: (Encapsulated, surface mount, single channel model)
Size: 7.5w x 6.0"h x 2.6'd Weight Approximately 6.8 lbs
. Series 300 Version: (Encapsulated, surface mount. multi-channel model)
Size: 7.5w x 8.0'h x 2.6"d Weight: Approximately 9.4 lbs Series 350 Version: (Encapsulated, surface mount. multi-channel independent output model)
Size: 8.5*w x 9.0'h x 2.6"d Weight: Approximately 11.5 lbs Series 500 Version: (Shelf or rack mount, single or multl-charnei model)
Size: 2.78'w x 7.00"h x 13.75"d + 0.75' front clearance Weight Approximately 4.8 Ibs Series 600 Version: (19' rack mount. multi-channel model)
Size: 17.0w x 1.72"h x 1325'd Weight Approximately 9 Ibs Series 800 Version: (Shelf or rack mount. single or multi-channel model)
Size: 3.37w x 9.50"h x 15.25'd + 125' front clearance Weight Approximately 5.3 lbs 800:. Yellow power LED ard 0.080" pin style test jacks 801: Red power LED and banana style test jacks FOR ADDITIONAL INFORMATION CONTACT:
NUS INSTRUMENTS, INC.
440 WEST BROADWAY IDAHO FALLS, ID 83402 PHONE (208) 529-1000 ALL SPECIFICATIONS ARE SUBJECT TO CHANGE WITHOUT PRIOR NOTICE.
bf'-jf&- 20-Loot¶'0 'Lev 2-.
.-ttachment_ G Page 2_- of. 2:
CR RADIATION INTAKE MONITORING INSTRUMENTATION (PROPOSED)
_EXISTING CR INTAKE DUCT SENSOR "B" SENSOR
" B" TRAIN 1E PC PPCS PPCS INDICATION INDICATIOI "A7 MANUAL "B" MANUAL ISOLATION ISOLATION 1/4 1/4 ISOLATION AND V.*_,4 t. :_' e.5 CHARCOAL FILTER DAMPER & FANS 1
TRAIN B (Twinco C)
IBPDPCBC/1 1 (C3505) This circuit also feeds CREPB instrumentation.
Safety Related:
R-30 40 VA R-46 40VA §OyVA 0.67 amps Non Safety (FURMS5):
RK-79 50 VA RY-B 18VA 68yA 0.57.amps IBPDPCBD/05 (C2665) (Twinco D)
R-15 40VA R-16 40VA R-17 40VA R-18 4OVA R-19 4OVA R-20A 40VA 339 NA 2.83:, mps R-20B 40VA K850-R15 17VA K850-R16 17VA K850-R17 17VA K850-R18 17VA K850-R19 17VA K850-R120B 17VA TRAIN A (Twinco E)
IBPDPCBE/01 (C2621) This circuit also feeds CREPA instrumentation.
Safety Related:
R-29 z 0 VA 80 VA 0.67.amps R-45 I0 VA Safety Related: (FURMS4): Non Safety (FURMS3):
R-10A 40VA R-10B 40VA R-11 40VA R-13 40VA "OA,-eC-- zC,0,o-00 oo'LV*. 2..
R-12 40VA R-14 40VA K850-R1OA 17VA K850-R1OB 17VA K850-R1I 17VA K850-R13 17VA K850-R12 17VA K850-R14 17VA ?'
7.14VA Attachment RK-78 50VA RY-10A RY-1I 7.14VA RY-12 7.14VA Pagemp.Ls t RY-10B 7.14VA
.RY-13 7.14VA RY-14 7.14VA RY-A 18VA 231.84 VA 1.93 amps 221.0 VA 1.84 amps S:\teams\nog nes\electrical\swift\pcr 99-004 CR Radiation Monitor\PCR Revision 1\RMS fuse loads.wpd 4/19/02
R.E. Ginna Nuclear Power Plant Response to RAI Dated August 28, 2002 Enclosure Attachment 3 RG&E Procurement Specification EE-171
D0819526-Control Room Radiation Monitor Specification Ginna Station P CR 99-004 Rochicstcr Gas and Elcctric Corporation 89'East Avcnuc Rochcster, NY 14649)
EE-171 Rcvisioii I Fcbruary 25. 2000 FEB Y-8 200 Initial
ý-r3COIMS MANAGBhIEN.I.
Prcparcd by: Datc: 2 26 Y Assigned Engincer AIf Revicwvcd by: Date: -l ii'dc Rcvicwcr Approved by: Datc: ý2/2S /00t.
Maj cr, I K (t Electric
/l'1 page 1 or 7
't ..
1.o 1.0 -Sc0p-e 1.1 This specification dcfincs the performance rcquirements, associated testing and documentation for two duct mounted control room*air intakc radiation monitors.
1.2 The monitors will be used to continuously monitor radiation levels in a 42 inch diamcter control room air intake duct. They will be used to inform the control room when a predetermined limit is cxcccd'cd. They will provide an isolation signal to the control room dampers and a signal to initiate the control room air filtration system. The piant process computer system (PPCS) will receive an analog input from each monitor. A recorder will receive a voltage input from each monitor.
1.3 They arc safety related and shall be supplied in accordance with the requirements of IOCFR50, Appendix B.
1.4 They shall be supplied new (not used or rebuilt).
2.0 Referenced Codes and Standards 2.1 ANSI N45.2.2 (1972). "Packing. Shipping, Receiving, Storage and Handling of Items for Nuclear Power Plants." [ANSI/ASME NQA-2 (1989), "Quality Assurance Requirements for Nuclear Facility Applications:, Incorporates the technical requirements of ANSI N45.2.2] ,
2.2 ANSI/ANS-HPSSC-6.8.l (1981), "Location and Design Criteria for Area Radiation Monitoring Systems for Light Water Nuclear Reactors" 2.3 ANSI N42.3 (1969), "American National Standard and IEEE Standard Test Procedure for Geigcr-Mullcr (G/M) Counters" 2.4 Updated Final Safety Analysis Report (UFSAR) for R. E. Ginna Nuclear Power Plant 2.5 RG&E drawing 33013-0721, Control Building Ventilation Duet New Outside Supply 2.6 RG&E Design Analysis DA-EE-99-063, PCR 99-001 Electrical Factors Analysis I 2.7 EPRI TR-192323-RI, Guidelines for Electromagnetic Interference Testing in Power Plants, 1997 I 2.8 EPRI TR-1 02348, Guideline on Licensing Digital Upgrades, 1993 Page 2 of 7 Revision I EE- 171 Page 2 of 7 Revision I
3.0 Design Requircments 3.1 The powcr requirements for each monitor shall have a minimum allowable voltage range of 120 Vac +/-1 0%. .The maximum allowable operating voltage rangc and system power requircments (Watts and Volt Amps) shall be provided with the monitors.
3.2 Environmental 3.2 I The ratemcter will be installed in RMS2 in the Control Room. Por Table 3.11.1 of reference 2.4, the normal ambient conditions in the Control Room are less than 1040F. 0 psig. 60% humidity, radiation is negligible.
3.2.2 The detectors will be mounted in the Control Room intake air duct which draws outside air and is located in the Turbine Building. Per Section 2.3.2.2 orrefercnce 2.4, the ambicnt conditions in the air duct are 2 1F to 91"F, 0 psig 100% humidity.
To provide additional margin, the detectors should operate over a range of -10"F to 122'F.
I 3.2.3 The monitor shall meet the requirements of EPRI TR-l03232-RI and TR-102348.
The testing shall verify that the monitors remain functional with an 8 dB margin I over the generic emission measurement surveys in the guideline. (Per reference I 2.7.)
3.3 Monitoring Range 3.3.1 In accordance with Section 4.3 and Table 2 of reference 2.2, the required radiation rate range expected during routine monitoring will be 1.OE-2 to 1.0E3+3 mR/hr.
3.4 Indications and Alarms 3.4.1 Each channel shall have a panel mounted ratemeter with audible and visual alarms which will activate at a predetermined exposure rate.
Pagc3of 7 Revision I EE- 171 EE-171 Page 3 of 7 Revision I
3.4.2 All contact output logic shall be fail-safe and shall actuate on a loss of power.
Per Section 7.4 of reference 2.6. the high alarm contact outputs of each monitor will interface with Westinghouse BF relays which have 120 Vac coils and have a power requirements of 12 Voll Amps.
Each monitor shall have one double pole double throw (DPDT) high alarm output.
two DPDT warning outputs, two DPDT fail outputs. The fail outputs will be activated upon the following conditions: no counts, loss of power. a hardwarc failure, or detector anti-jam occurs.
The DPDT relay output contacts shall be rated for 5'amps P! 120,Vac or 5 amps
@ 29 Vdc.
In addition, each monitor shall have one 0- 10 Vdc output and one 4-20 mA output that will drive a 250 ohm resistor.
3.5 Detector 3.5.1 Shall be a selftqcuenched halogen G/M counter.
3.5.2 A plot of each detector plateau (count rate versus voltage) shall be supplied. Thc detector operating temperature limits shall be supplied. The affect of the entire temperature operating range on the detector accuracy shall he provided.
I 3.5.3 The range ofthe detector energy dependence ofrcading shall be 80 kcV to 1.5 McV. Thc documentation shall includc the dctcctor accuracy over this range.
3.5.4 Repeated count-rate measurements of a source at a fixed voltage should be made to determine if the counter has become stabilized. To test fbr hysteresis. the plateau voltage shall be traversed in an ascending and then a descending direction with a total elapsed time of less than one hour.
3.5.5 The photosensitivity shall be tested by measuring the background counting rate first with the counter operating in the dark and then with the counter exposed to a stated illumination. The results shall be included in the test report.
Page4of 7 Revision 1 EE- 171 EE-171 Page 4 of 7/ Revision I
3.6 Power Supply Voltages 3.6.1 The high voltage power supply must be capable of delivering the maximum current demand and must do so without overloading or loss of regulation. The regulation against line and load variations should be one percent or better. The ripvle should be less than 100 millivolts. (Per reference 2.3.)
3.7 Primary Calibration 3.7.1 This calibration shall be performed with a procedure that uses sources or instruments or both that arc traceable to the National Institute of Standards and Technology (NIST).
3.7.2 The calibration shall include the response to Xc-133 , Cs-137 and the ratio of Xe 133 to Cs-137. Cobalt 60 shall be used as the gamma-ray sources in tests ofcount rate versus exposure rate and current versus exposure rate. Strontium 90 can be used for radial sensitivity measurements. The response shall be within .-t20% of the actual exposure rate present at the dctec.tor location.
3.8 Functional Test 3.8.1 The monitor verification of operability shall utilize a check source mechanism that contains a Cs-137 radiological source of sufficient strength for a detector response that is greater than 5 mR/hr.
4.0 Materials 4.1 The detector housings shall be aluminum, weather proof.
4.2 Each detector shall be provided with 1700 feet of shielded cable and connectors.
The cable and connectors shall provide the maximum resistance to electromagnetic interference (EMI).
5.0 Fabrication 5.1 The detectors shall be supplied with hardware suitable for mounting in a 42 inch steel pipe (API 5L, GR. B, 0.375" wall). Referencc 2.5 5.2 The ratemcters shall be supplied with hardware that will allow them to be slid into and out of a 19 inch rack.
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6.0 Optional Equipment 6.1 A G/M adapter for usc in our Inovision (Victorccn) Model 848-8 field calibrator shall be supplicd. This will be used during secondary calibrations.
6.2 Two non-saFety related ratcmctcrý shall bc supplied with a 0-10 volt input for use in a simulator.
'7.0 Quality Verification Requirements 7.1 RG&E will review the test procedures and the documcntation. RG&E will provide a source survei~lancc of the primary calibration and the functional testing of the monitors.
8.0 Documentation 8.1 The documentation shall providc thc accuracy and drift of the ratcmetcrs (including high alami setpoint) and the detectors., It shall include what cffect changes in pressure, temperature and power supply aging over a 30 month period has on the ratemeters. high alarm setpoint and detectors. It shall include any random effects that may bias the monitor's output.
S.2 The ratemeter fimlware documentation shall include revisions. functional descriptions and any supporting test data.
8.3 The documentation shall include system interconnection drawings with details for installing connectors and terminating, inspecting and testing cables. If applicable, include recommended cable separation and/or routing restrictions.
8.4 A report shall document the requirements of this specification and include the results of the primary calibration and the functional tests.
8.5 The ascending and descending detector plateau curves shall be supplied.
8.6 'fhe high voltage power supply specifications shall be supplied.
8.7 The recommended periodic maintenance including but not limited to calibration practices and frequencies shall be supplied.
8.8 A Certificate of Compliance to this specification shall be supplied.
8.9 For each item, four copies of vendor manuals and drawings shall be supplied.
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- S.10 Four copies of vendor rccommendcd spare parts list shall bc supplied.
9.0 Markinzs and Identification 9.1 Each ratcnicter. dcteccor. calibration source and standardgcomctry shall include the manufacturer's namc, a serial number.
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Response to RAI Dated August 28, 2002 R.E. Ginna Nuclear Power Plant Enclosure Attachment 4 Certificate of Conformance (C of C)
Purchase Orders for Inovision Equipment
f p LUw .:- -
Radiation Measurements 6045 Cochran Road Cleveland OH 44139 Phone: 440 248-9300 FAX: 440-349-2307 www.inovision.com www.surveymeters.com Date: May 3, 2001 Rochester Gas and Electric Customer P.O.:4500008671 Ginna Station Inovision S.O.: 157033 Ontario, NY 14519 ITEM PART DESCRIPTION QTY NUMBER NUMBER 00010 S157033A Assy, Air Intake Radiation Monitor Lot Consisting of: S/N Ia 897A-21 0 GM Detector 131, 132 2 lb S157033A1 Mounting Hardware N/A 2 Ic 956A-201-Ml Ratemeter 104643, 104644 2 Id 9481B-1 UDR Mounting HW N/A 2 (1 rack assy) 00040 897A-210 GM Detector 100762 I 956A-201-Ml Ratemeter 104645 1 00050 CERTIFICATE OF CONFORMANCE It is hereby certified that all articles herewith in the quantities as referenced by your purchase order were manufactured in accordance with the requirements of the purchase order and utilizing previously approved Quality Assurance Manual Version 003, dated 10/9/00, and specifications and drawings applicable to that order. These items are qualified for Class 1E Safty Related applications I.A.W. IEEE 344-1975 per Inovision Test Report 950.366 and appendices 950.353, 353, 338, and 360.
Sincerely, Inovision RMD "rQ iatis QA Manager Formerly Victoreen and Keithley Radiation Measurements