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AtMITSUBISHI HEAVY INDUSTRIES, LTD.
16-5, KONAN 2-CHOME, MINATO-KUTOKYO, JAPAN
April 28, 2010
Document Control DeskU.S. Nuclear Regulatory CommissionWashington, DC 20555-0001
Attention: Mr. Jeffery A. Ciocco
Docket No. 52-021MHI Ref: UAP-HF-10122
Subject: MHI's Response to US-APWR DCD RAI No.562-4427 Rev.2
References: 1) "Request for Additional Information No. 562-4427 Revision 2, SRP Section:02.03.04 - Short Term Atmospheric Dispersion Estimates for Accident Releases,Application Section: Tier 2, Sections 2.0 and 2.3," dated March 23, 2010.
With this letter, Mitsubishi Heavy Industries, Ltd. ("MHI") transmits to the U.S. Nuclear RegulatoryCommission ("NRC") a document entitled "Request for Additional Information No. 562-4427Revision 2."
Enclosed are the responses to nine RAls contained within References 1
Please contact Dr. C. Keith Paulson, Senior Technical Manager, Mitsubishi Nuclear EnergySystems, Inc. if the NRC has questions concerning any aspect of the submittals. His contactinformation is provided below.
Sincerely,
q4< 5 L V Lý LYoshiki Ogata,General Manager-APWR Promoting DepartmentMitsubishi Heavy Industries, LTD.
Enclosure:
1. Responses to Request for Additional Information No. 562-4427 Revision 2
CC: J. A. CioccoC. K. Paulson
Contact InformationC. Keith Paulson, Senior Technical ManagerMitsubishi Nuclear Energy Systems, Inc.300 Oxford Drive, Suite 301Monroeville, PA 15146E-mail: [email protected]: (412) 373-6466
ThOs(
Docket No. 52-021MHI Ref: UAP-HF- 10122
Enclosure 1
UAP-H F- 10122Docket No. 52-021
Response to Request for Additional Information No. 562-4427 Revision 0
April, 2010
RESPONSE TO REQUEST FOR ADDITIONAL INFORMATION
4/28/2010
US-APWR Design Certification
Mitsubishi Heavy Industries
Docket No. 52-021
RAI NO.: NO.562-4427 REVISION 2
SRP Section: 02.03.04 - Short Term Atmospheric Dispersion Estimates forAccident Releases
APPLICATION SECTION: TIER 2, SECTIONS 2.0 AND 2.3
DATE OF RAI ISSUE: 3/24/2010
QUESTION NO. : 02.03.04-6
The list of atmospheric dispersion factor (x/Q) key site parameters shown in DCD Tier 1, Table2.1-1 (sheet 4 of 7) and Tier 2, Table 2.0-1 (Sheet 3 of 8) include ground-level containmentreleases to the Class 1 E electrical room HVAC intake for MCR inleakage. Please explain whythere are no x/Q key site parameter values provided for ground-level containment releases to theother MCR inleakage locations (i.e., reactor building door and auxiliary building intake).
ANSWER:
It is an editorial mistake. The concept of how to determine these MCR inleakage x/Q values issame as the other x/Q values like plant vent release. As written in DCD Tier 1, Table 2.1-1 note 3and Tier 2, Table 2.0-1 note 3, the x/Q values of ground-level containment releases to the Class1 E electrical room HVAC intake for MCR inleakage is the largest value in comparison with theother MCR inleakage locations (i.e., reactor building door and auxiliary building intake).Therefore,the expression "to class 1 E electrical room HVAC intake" described in Table 2.1-1 (sheet 4 of 7)and Tier 2, Table 2.0-1 (Sheet 3 of 8) is not necessary and then these Tables will be changed asshown in Table2.1-1 (sheet 4 of 7) of Appendix 1 and Table 2.0-1 (sheet 3 of 8) of Appendix2.attached at the end of the responses.
The largest x/Q value is considered for dose calculation in DCD. In fact the site specificmeteorological data will be used for calculation of x/Q values in COL, we don't know which x/Qvalue of them is the largest in COL. However, it is acceptable if the x/Q value of DCD bounds thex/Q values of COL in either case.In the US-APWR DCD, the condition for x/Q values calculation for every MCR inleakage locationfor COL applicant are written in DCD Tier 2 Rev 2, Table 2.3-1, 2.3-2, 2.3-3 and 2.3.4-1 through2.3.4-7. There is no need to show the x/Q values of the other MCR inleakage locations andadditional information for calculation of these x/Q values in DCD.
Impact on DCDThe DCD will be changed to incorporate the following:- Change the DCD Tier 1, Table 2.1-1 and Tier2, Table 2.0-1 to correct the expression of
02.03.04-1
ground-level containment releases for MCR inleakage. (See on page 02.03.04-12 and02.03.04-17)
Impact on COLAThere is no impact on the COLA.
Impact on PRAThere is no impact on the PRA.
02.03.04-2
RESPONSE TO REQUEST FOR ADDITIONAL INFORMATION
4/28/2010
US-APWR Design Certification
Mitsubishi Heavy Industries
Docket No. 52-021
RAI NO.: NO.562-4427 REVISION 2
SRP Section: 02.03.04 - Short Term Atmospheric Dispersion Estimates forAccident Releases
APPLICATION SECTION: TIER 2, SECTIONS 2.0 AND 2.3
DATE OF RAI ISSUE: 3/24/2010
QUESTION NO. : 02.03.04-7
DCD Tier 2, Tables 15A-18 through 15A-24 present the atmospheric dispersion (x/Q) values usedto evaluate MCR and TSC dose consequences from a number of different design basis accidentevents. The information presented in Table 15A-18 (sheet 1 of 2) includes the horizontal andvertical distances between the source and receptors for the steam system piping failure analysis.This type of information is not presented in Tables 15A-19 through 15A-24 for the other designbasis accident events. Instead, the information necessary to calculate MCR and TSC x/Q values(include source-receptor distances) is provided in DCD Tier 2, Tables 2.3-1 through 2.3-3 andTables 2.3.4-1 through 2.3.4-7. Consequently, please consider deleting the source/receptorhorizontal and vertical distance information from Table 15A-1 8 (sheet 1 of 2).
ANSWER:
We agree with what you pointed out. The information of the horizontal and vertical distancesbetween source and receptors for the steam system piping failure analysis in DCD Tier 2, Table15A-1 8 (sheet 1 of 2) will be deleted, because the same information is included in DCD Tier 2,Tables 2.3-1 through 2.3-3 and Tables 2.3.4-1 through 2.3.4-7. DCD Tier 2, Table 15A-1 8 (sheet 1of 2) will be changed as shown in Table 15A-1 8 (sheet 1 of 2) of Appendix 2 attached at the end ofthe responses.
Impact on DCDThe DCD will be changed to incorporate the following:- Change the DCD Tier 2, Table 15A-1 8 to delete the information of the horizontal and vertical
distances between source and receptors for the steam system piping failure analysis.(SeeSheet 1 of 2 on page 02.03.04-70)
Impact on COLAThere is no impact on the COLA.
Impact on PRA
There is no impact on the PRA.
02.03.04-3
RESPONSE TO REQUEST FOR ADDITIONAL INFORMATION
4/28/2010
US-APWR Design Certification
Mitsubishi Heavy Industries
Docket No. 52-021
RAI NO.: NO.562-4427 REVISION 2
SRP Section: 02.03.04 - Short Term Atmospheric Dispersion Estimates forAccident Releases
APPLICATION SECTION: TIER 2, SECTIONS 2.0 AND 2.3
DATE OF RAI ISSUE: 3/24/2010
QUESTION NO. : 02.03.04-8
DCD Tier 2, Table 2.3-3, presents receptor height data for use by COL applicants in generatingsite-specific MCR and TSC x/Q values. Different values for the heights to the lower and upperlimits are presented for two sets of receptors: the reactor building door (west) and the auxiliarybuilding/TSC HVAC intake (north and south). Please explain why the heights to the lower limit arehigher than the heights to the upper limit for these two sets of receptors.
ANSWER:
It is an editorial mistake in items of Table 2.3-3 as you pointed out. In DCD Tier 2 Rev 2, Table2.3-3 shows the receptor heights information. The height to the lower limit of every receptor shouldbe lower than the height to the upper limit for every receptor. Therefore Table 2.3-3 will bechanged as shown in Table 2.3-3 attached at the end of the responses.
Impact on DCDThe DCD will be changed to incorporate the following:- Change the DCD Tier 2, Table 2.3-3 to correct the expression of items. (See on page
02.03.04-21)
Impact on COLAThere is no impact on the COLA.
Impact on PRAThere is no impact on the PRA.
02.03.04-4
RESPONSE TO REQUEST FOR ADDITIONAL INFORMATION
4/28/2010
US-APWR Design Certification
Mitsubishi Heavy Industries
Docket No. 52-021
RAI NO.: NO.562-4427 REVISION 2
SRP Section: 02.03.04 - Short Term Atmospheric Dispersion Estimates forAccident Releases
APPLICATION SECTION: TIER 2, SECTIONS 2.0 AND 2.3
DATE OF RAI ISSUE: 312412010
QUESTION NO. : 02.03.04-9
The following set of comments primarily refers to DCD Tier 2, Tables 2.3.4-1 through 2.3.4-7.
a. DCD Tier 2, Section 2.3.4 states that (1) the 0-8 hr MCR and TSC x/Q values were calculatedbased, in part, on the diffusion equations contained in the ARCON96 atmospheric dispersionmodel and (2) the 8-24 hr, 24-96 hr, and 96-720 hr MCR and TSC x/Q values were derivedfrom the 0-8 hr x/Q values by adjusting for long-term meteorological averaging of wind speedand wind direction as described in Section C.4.4 of Regulatory Guide 1.194. The long-termmeteorological averaging was generally accomplished by multiplying the 0-8 hr x/Q values bycombined wind speed and wind direction correction factors of (1) 0.59 to obtain the 8-24 hr x/Qvalues, (2) 0.38 to obtain the 24-96 hr x/Q values, and (3) 0.17 to obtain the 96-720 hr x/Qvalues.
SRP 2.3.4 states that the site parameters postulated for a standard design certification shouldbe representative of a reasonable number of sites that have been or may be considered for aCOL application. In order to confirm that the US-APWR MCR and TSC x/Q values listed as keysite parameters in DCD Tier 1, Table 2.1-1 and DCD Tier 2, Table 2.0-1 are representative of areasonable number of sites that have been or may be considered for a COL application, thestaff generated a set of site-specific MCR and TSC x/Q values using hourly meteorologicaldata provided in support of the four docketed ESP applications (North Anna, Clinton, GrandGulf, and Vogtle). The staff executed the ARCON96 computer code with a subset of thesource/receptor information presented in DCD Tier 2, Tables 2.3.4-1 through 2.3.4-7 assumingthe US-APWR plant north was aligned to true north at each site. The staff found that theUS-APWR 0-8 hour, 8-24 hour, and 1-4 day x/Q values were bounding in all cases, but theUS-APWR 4-30 day x/Q values were not bounding for three out of the four sites. This impliesto the staff that the use of a 96-720 hr combined wind speed and wind direction long-termaveraging correction factor of 0.17 with the ARCON96 diffusion equations does not produceappropriate results.
Consequently, please consider increasing the 96-720 hr MCR and TSC x/Q values listed askey site parameters in DCD Tier 1, Table 2.1-1 and DCD Tier 2, Table 2.0-1 to ensure theybound a reasonable number of sites that have been or may be considered for a COLapplication.
02.03.04-5
b. Consider revising DCD Tier 2, Section 2.3.4 (last sentence on page 2.3-2) to appropriatelyreference DCD Tier 2, Tables 2.3.4-1 through 2.3.4-7.
c. Please review the title of Table 2.3.4-3 (sheet 9 of 11) shown on page 2.3-35 and correct asnecessary.
d. Regarding Table 2.3.4-3 (Sheet 9 of 11 on page 2.3-35), should the lateral and verticaldiffusion coefficients for the ground level containment release point to the north and southTSC HVAC intakes and to the north and south auxiliary building HVAC intakes be listed as7.98 meters and 5.03 meters, respectively, instead of 0 meters?
e. The source to receptor horizontal distances between the west main steam relief valve and thesouth TSC HVAC intake listed in the following tables are inconsistent:
Table 2.3.4-1 (Sheet 11 of 12 on page 2.3-17)Table 2.3.4-2 (Sheet 7 of 8 on page 2.3-25)Table 2.3.4-3 (Sheet 10 of 11 on page 2.3-36)
f. Please consider deleting Footnote 6 to DCD Tier 2, Tables 2.3.4-1 through 2.3.4-7. Theinformation presented in this footnote describes the process used by MHI to derive theUS-APWR MCR and TSC key site parameter x/Q values; this same information is alsopresented in DCD Tier 2, Section 2.3.4. The intent of DCD Tier 2, Tables 2.3.4-1 through2.3.4-7, is to provide the plant configuration data required by COL applicants to calculatesite-specific MCR and TSC x/Q values. To include information in these tables related to themethodology used by MHI to derive the US-APWR x/Q site parameter values can beconfusing to a COL applicant.
ANSWER:
a. We agree with what you pointed out. In accordance with our pre-analysis, we knew that anumber of existing US site plants where 96-720 hr x/Q values are not bounded by the x/Qvalue of the DCD increases in comparison with in case of the other time average x/Q values.As you pointed out, the 96-720hr x/Q value of the DCD should be representative of areasonable number of existing sites. But the 96-720 hr x/Q value gives little influence to thedose calculation result because of the small value.
For COL applicants, it is desirable to raise the 96-720 hr x/Q value of the DCD. Therefore, thevalue of the 96-720 hr x/Q will be changed to 1.5 times of the present 96-720hr x/Q value. The1.5 times x/Q value bounds the site parameter of North Anna, Clinton, Grand Gulf and Vogtlein FSAR as shown in the Figure 02.03.04-9-1. Therefore the 96-720 hr x/Q values of thefollowing DCD Tables should be changed as shown in the corresponding Tables of Appendix 1and 2 attached at the end of the responses.- DCD Tier 1 Rev 2, Table 2.1-1 DCD (sheet 3 of 7) through Table 2.1-1 (sheet 6 of 7)- DCD Tier 2 Rev 2, Table 2.0-1 (sheet 2 of 8) through Table 2.0-1 (sheet 6 of 8)- DCD Tier 2 Rev 2, Table 2.3.4-1 through 2.3.4-7- DCD Tier 2 Rev 2, Table 15A-1 8 through 15A-24.Some changed 96-720 hr x/Q values in the above Tables do not exactly correspond to 1.5times of the present 96-720 hr x/Q values due to the rounding of fractions.
02.03.04-6
96-720hr
E
0
4.OE-03
3.5E-03
3.OE-03
2.5E-03
2.OE-03
1.5E-03
1.OE-03
5.OE-04
O.OE+O0
\
N -
+ Grand Gulf3 (Ref 1)o Clinton (Ref 2)* North Anna 3 (Ref 3, 4)* Vogtle 3/4 (Ref 5, 6)
....... US-APWR DOD X/Q-- US-APWR DCD Revised X/Q
T + E. .....
0 20 40 60 80Straight distance between sources and receptors (m)
100
*) to be calculate from the horizontal distance and the vertical distance
Figure 02.03.04-9-1 96-720 hr x/Q values of US-APWR DCD and other 4 sites(Grand Gulf, Clinton, North Anna and Vogtle)
Reference1) Attachment 6, G3NO-2008-00006, Responses to NRC Requests for Additional Information (RAI),Letter No.2, Docket No. 52-024, Oct. 2008.
2) Clinton Updated Safety Analysis Report (USAR), Revision 11, Jan. 2007.3) North Anna 3 Combined License Application Part 2: Final Safety Analysis Report, Revision 1,Dec. 2008.
4) GE Hitatachi Nuclear Energy ESBWR Design Control Document Tier 2 Chapter 2 SiteCharacteristics, Revision 5, May 2008.
5) Vogtle Electric Generating Plant, Unit 3 & 4 COL Application Part 2 Final Safety Analysis Report(FSAR) Revision 2.
6) Westinghous AP1000 Design Control Document Tier 2 Chapter 15, Revision 17, Sep. 2008.
02.03.04-7
b. It is an editorial mistake. The table reference at the last sentence on page 2.3-2 in DCD Tier 2Rev 2 will be changed from "Table 2.3-1 to 2.3-4" to "Tables 2.3.4-1 through 2.3.4-7" asfollows."The necessary data to calculate x/Q values of MCR and TSC by using ARCON96 are shownin Table 2.3.4-1 through 2.3.4-7.".
c. It is an editorial mistake. The title of Table 2.3.4-3 (sheet 9 of 11) in DCD Tier 2 Rev 2 includesunnecessary words at the end of it. The title of Table 2.3.4-3 (sheet 9 of 11) in DCD Tier 2 Rev2 will be changed to "Table 2.3.4-3 Combination of Sources and Receptors for Rod EjectionAccident Analysis (Sheet 9 of 11)"
In addition, the notation of inleak receptors, "TSC HVAC intake", in Table 2.3.4-6 (Sheet 3 of 3)is incorrect. That notation should be changed to "Auxiliary building HVAC intake" as shown inTable 2.3.4-6 (Sheet 3 of 3) of Appendix 2 attached at the end of the responses, because thenotation of the inleak receptor at the other accidents is "Auxiliary building HVAC intake".However, the location of TSC HVAC intake is the same as the location of Auxiliary buildingHVAC intake.Moreover, the notation of the source location 3 in the same Table 2.3.4-6 (Sheet 3 of 3) is notalso incorrect. Because we take the shortest distance between the source and receptor, thesource and receptor locations should be chosen to the location of the same direction as eachother.Table 2.3.4-3 (Sheet 9 of 11) and Table 2.3.4-6 (Sheet 3 of 3) will be changed as shown in thecorresponding Tables of Appendix 2 attached at the end of the responses.
d. It is an editorial mistake. The lateral and vertical diffusion coefficients for the ground levelcontainment release point to the north and south TSC HVAC intakes and to the north andsouth auxiliary building HVAC intakes should be 7.98 meters and 5.03 meters as same asTable 2.3.4-6 (Sheet 3 of 3), respectively. There is no impact on the x/Q because the correctvalues as the lateral and vertical diffusion coefficients were already used to calculate the x/QThe Table 2.3.4-3 (Sheet 9 of 11) in DCD Tier 2 Rev 2 will be changed as shown in Table2.3.4-3 (Sheet 9 of 11) attached at the end of the responses.
e. It is an editorial mistake. The source to receptor horizontal distance between the west steamrelief valve and the south TSC HVAC intake in Table 2.3.4-1 (Sheet 11 of 12) should be 62meters as shown in Table 2.3.4-2 (Sheet 7 of 8) and Table 2.3.4-3 (Sheet 10 of 11). There isno impact on the x/Q because the correct value as the source to receptor horizontal distancewas already used to calculate the x/Q.
In addition, there is another editorial mistake. In Table 2.3.4-1 (Sheet 2 of 12), the verticaldistance "-2.7" of the receptor of Reactor building door should be changed to be "-3", becauseother vertical distances are rounded off to describe.
Therefore, Table 2.3.4-1 (Sheet 11 of 12) and Table 2.3.4-1 (Sheet 2 of 12) in DCD Tier 2Rev.2 will be changed as shown in the corresondings Tables of Appendix 2 attached at the endof the response.
02.03.04-8
f. We agree with what you pointed out. Both the footnote 6 of Tables 2.3.4-1 through 2.3.4-7 andthe section 2.3.4 in DCD Tier 2 Rev 2 are the explanation of the process to derive theUS-APWR MCR and TSC X/Q values. Therefore the footnotes 6 Table 2.3.4-1 through 2.3.4-7in DCD Tier 2 Rev 2 will be changed as follows.
"(6) - These x/Q values are for US-APWR DCD Chapterl5.The xQ valu"'e of MCR can't be directly calculated by ARCON96 itself becwase there is; no
Site specific meteorological data in the stage of the DCD. Therefore, the diffusionQ equationsdesri•bed in ARGON96 (e.g. Reision , to NUREG 6331) are used fr calc-ulating the x#Qvaluess of MCAR, together wiVth the me-teorological conRdition bAMe on G 1.194 (e.g., Fstabilit' with Ywin spesof 1.0 m) and multiplicr. According to the setting method of thes-e#Q values, the closear the d-ist-Re the more c•GnReative it be••;.es. It is Rnt used theARC•"•96l d irectly in DrD.
- For each sources, the x/Q values for inleakage and intake are set as those of the path withthe shortest straight distances, respectively."
Impact on DCDAccording to the answers for the above questions a to f, the DCD will be changed to incorporatethe following:- Change the 96-720 hr x/Q values of MCR for the following tables:
- DCD Tier 1 Rev 2, Table 2.1-1 DCD (sheet 3 of 7) through Table 2.1-1 (sheet 6 of 7)(See on pages 02.03.04-11 through 02.03.04-14)
- DCD Tier 2 Rev 2, Table 2.0-1 (sheet 2 of 8) through Table 2.0-1 (sheet 6 of 8)(See on pages 02.03.04-16 through 02.03.04-20)
- DCD Tier 2 Rev 2, Table 2.3.4-1 through 2.3.4-7(See on pages 02.03.04-23 through 02.03.04-68)
- DCD Tier 2 Rev 2, Table 15A-1 8 through 15A-24.(See on pages 02.03.04-70 through 02.03.04-76)
- Change the expression "Table 2.3-1 to 2.3-4" in the last sentence of DCD Tier 2, section 2.3.4to the correct expression "Table 2.3.4-1 through 2.3.4-7".
- Change the DCD Tier 2, Table 2.3.4-3 (Sheet 9 of 11) and Table 2.3.4-6 (Sheet 3 of 3).(See on pages 2.03.04-51 and 02.03.04-65)
- Change the DCD Tier 2, Table 2.3.4-1 (sheet 11 of 12) to correct the source to receptorhorizontal distance between the west steam relief valve and the south TSC HVAC intake.
(See on page 02.03.04-32)- Change the footnotes 6 of Table 2.3.4-1 in DCD Tier 2 to delete the unnecessary information.
(See on page 02.03.04-69)- Dose calculation will be changed in DCD Chapter 15 to confirm a satisfaction of the criteria,
due to the change of 97-720 hr x/Q values.
Impact on COLAFor the question a, there is some impact for the COL applicant who has the site specific 96-720hrx/Q values between the present x/Q values of DCD Rev 2 and the changed x/Q values in additionto the site specific x/Q values of other time intervals less than the present x/Q values of DCD Rev2.They do not need to assess the dose calculation any more. Otherwise, there is no impact onCOLA.For other questions except a, there is no impact.
Impact on PRAThere is no impact on the PRA.
02.03.04-9
Appendix 1
The following Table shows how US-APWR DCD Tier 1 will be changedin responses to the subject RAI.
02.03.04-10
Table 2.1-1 Key Site Parameters(Sheet 3 of 7)
Atmospheric dispersion factors (X/Q values) for main control room (MCR) heating, ventilation, and airconditioning (HVAC) intake for specified release points(2):
Plant vent (5)0-8 hrs8-24 hrs
1-4 days
4-30 days
1.1 x 103 s/rm3
6 .6 x 104 s/m3
4.2x10- s/rm3
4-,44 2.8x 10-4 s/m3
Ground-level containment releases(4)
0-8 hrs 2.2x103 s/rm3
8-24 hrs 1.3x 103 s/rm3
1-4 days 8.3x10 s/rm3
4-30 days 34_404 5.5x10- s/m3
Main steam relief valve and safety valve releases(6)
0-8 hrs 5.3x10-3 s/m3
8-24 hrs 3.1 x 103 s/rm3
1-4 days 2.0x 103 s/r3
4-30 days 8-.7x-40 1.3x 103 s/rm3
Steam line break releases (B)
0-8 hrs 1.9x10-2 s/m3
8-24 hrs 1.1 x10-2 s/m3
1-4 days 7.1 x 103 s/r3
4-30 days -x4--0" 4.7x10-3 s/m3
Fuel handling area releases (7)
0-8 hrs 1.1 x 103 s/rm3
8-24 hrs 6.4x 10"4 s/m3
1-4 days 4.1 x0 s/rm3
4-30 days -1,x 4 0 "4 2.7x 10-4 s/m3
02.03.04-11
Table 2.1-1 Key Site Parameters
(Sheet 4 of 7)
Atmospheric dispersion factors (X/Q values) for MCR inleak for specified release points(3):
Plant vent (9)
0-8 hrs 1.3x10-3 s/m3
8-24 hrs 7.8x 10-4 s/m3
1-4 days 4.9x10-4 s/m 3
4-30 days 272I-4-4 3 .3 x 10-4 s/m
3
Plant vent (10)
0-8 hrs 1.4x10-3 s/m3
8-24 hrs 8.0x 10-4 s/m3
1-4 days 5.1 x 104 s/rm3
4-30 days 2 -2 -1.-4 3.3x 104 s/rm3
Ground-level containment releases to GClass IEoloctrical room HVAC intake (4)
0-8 hrs 2.4x 10-3 s/m 3
8-24 hrs 1.4x10-3 s/m 3
1-4 days 9.1x104 s/m 3
4-30 days 4 4-0- 6 .0x0 10-4 s/m3
Main steam relief valve and safety valve releases (6)
0-8 hrs 5.3x10-3 s/m3
8-24 hrs 3.1 x10-3 s/m3
1-4 days 2.0x10-3 s/m3
4-30 days &C-40' 1.3x 10.3 s/m3
Steam line break releases (8)
0-8 hrs 1.9x102 s/m3
8-24 hrs 1.1 x 10-2 s/m3
1-4 days 7.1 x 10-3 s/m3
4-30 days 34x4g" 4.7x 10-3 s/m3
Fuel handling area releases (7)
0-8 hrs 1.1 x 103 s/rm3
8-24 hrs 6 .7 x10-4 s/m3
1-4 days 4.3x10.4 s/m3
4-30 days 4-1.x--- 2.8x 10- s/m3
02.03.04-12
Table 2.1-1 Key Site Parameters(Sheet 5 of 7)
Atmospheric dispersion factors (x/Q values) for Technical Support Center (TSC) HVAC intake for specifie(release points(2):
Plant vent (5)
0-8 hrs 1.4x 10-3 s/m3
8-24 hrs 8 .Ox10-4 s/m3
1-4 days 5.1 x 104 s/m3
4-30 days 2-,2--4O 3.3x 104 s/m3
Ground-level containment releases(4)
0-8 hrs 1.9x10-3 s/m3
8-24 hrs 1.1 x 10-3 s/m3
1-4 days 7.2x104 s/rm3
4-30 days 3-2.40.4 4 .8 x 104 s/m3
Main steam relief valve and safety valve releases(6)
0-8 hrs 1.7x10-3 s/m3
8-24 hrs 9.9x104 s/rm3
1-4 days 6.3x 104 s/rm3
4-30 days 2.4-1-04 4.2x 104 s/rm3
Steam line break releases (8)
0-8 hrs 1:4x10-3 s/m3
8-24 hrs 8 .4x104 s/m3
1-4 days 53x104 s/m3
4-30 days 2 4- 4Q 3.5x 104 s/m3
Fuel handling area releases (7)
0-8 hrs 6 .7 x10-4 s/m3
8-24 hrs 3.9x 104 s/m3
1-4 days 2.5x10. s/rm3
4-30 days 4-A-x-•4 1.7x 101 s/m3
02.03.04-13
Table 2.1-1 Key Site Parameters(Sheet 6 of 7)
Atmospheric dispersion factors (x/Q values) for TSC inleakage for specified release points(3):
Plant vent (5)
0-8 hrs 1.4x103 s/rm3
8-24 hrs 8.0x10-4 s/m3
1-4 days 5.1 x 10-4 s/m3
4-30 days .22---40 3.3x10- s/r3
Ground-level containment releases (4)
0-8 hrs 1.9x 10-3 s/m3
8-24 hrs 1.1 x 10- s/rm3
1-4 days 7.2x 10-4 s/m3
4-30 days 3-2-WQ- 4 .8 x 10-4 s/m3
Main steam relief valve and safety valve releases (6)
0-8 hrs 1.7x103 s/rm3
8-24 hrs 9.9x10-4 s/m3
1-4 days 6.3x10- s/rm3
4-30 days 2L4.&4G 4.2x 10. s/m3
Steam line break releases (8)
0-8 hrs 1.4x103 s/rm3
8-24 hrs 8 .4 x 10-4 s/m3
1-4 days 5.3x10.4 s/m3
4-30 days 243-404 3.5x 10-4 s/m3
Fuel handling area releases (7)
0-8 hrs 6 .7 x10-4 s/m3
8-24 hrs 3 .9 x 10-4 s/m3
1-4 days 2.5x 10-4 s/m3
4-30 days 1-4,4O4 1.7x 104 s/m3
02.03.04-14
Appendix 2
The following Tables show how US-APWR DCD Tier 2 will be changed
in responses to the subject RAI.
02.03.04-15
Table 2.0-1 Key Site Parameters
(Sheet 2 of 8)
Atmospheric dispersion factors (x/Q values) for offsite locations:
Low-population zone (LPZ) boundary
0-8 hrs 2.1 x 104 s/m 3
8-24 hrs 1.3x10-4 s/m3
1-4 days 6.9x10' s/m3
4-30 days 2.8x 10-5 s/m 3
Food production area
annual average 5.Ox10-5 s/m3
Deposition factor (D/Q value) for onsite and offsite locations:
EAB Tannual average 4.0 x 10-8 s/m
2
Atmospheric dispersion factors (x/Q values) for main control room (MCR) heating, ventilation, and airconditioning (HVAC) intake for specified release points(2):
Plant vent (5)0-8 hrs 1.1x10-3 s/m
3
8-24 hrs 6 .6 x 104 s/m3
1-4 days 4.2x 10-4 s/m3
4-30 days -%x40-4 2.8x104 s/m 3
Ground-level containment releases(4)
0-8 hrs 2.2x 10-3 s/m3
8-24 hrs 1.3x10-3 s/m3
1-4 days 8.3x 10-4 s/m3
4-30 days 3-x404 5.5x10-4 s/m3
Main steam relief valve and safety valve releases(r)
0-8 hrs 5.3x 10-3 s/m3
8-24 hrs 3.1 x 10-3 s/m3
1-4 days 2.0x10-3 s/m3
4-30 days 8-x-0T- 1.3x 10- s/m3
Steam line break releases(B)
0-8 hrs 1.9x 10-2 s/m3
8-24 hrs 1.1 x 10-2 s/m3
1-4 days 7.1 x 10-3 s/m3
4-30 days 3--x-10-3 4.7x10-3s/m3
02.03.04-16
Table 2.0-1 Key Site Parameters(Sheet 3 of 8)
Fuel handling area releases (7)
0-8 hrs 1.1 x 103 s/rm3
8-24 hrs 6.4x 104 s/m3
1-4 days 4.1 x 10-4 s/m3
4-30 days 4-,8494 2.7x10• s/m3
Atmospheric dispersion factors (x/Q values) for MCR inleak for specified release points(3):
Plant vent(9 )
0-8 hrs 1.3x 103 s/rm3
8-24 hrs 7.8x10-4 s/m3
1-4 days 4.9x 104 s/rm3
4-30 days 2-2--4 3.3x10-4 s/m3
Plant vent(1°)
0-8 hrs 1.4x103 s/rm3
8-24 hrs 8.0x 104 s/m3
1-4 days 5.1 x 104 s/rm3
4-30 days 24x40" 3 .3 x1O0 s/rm3
Ground-level containment releases-• ,-lies4 IWloctric•l roorn HVAC .nt~k• (4)
0-8 hrs 2.4x10- s/r3
8-24 hrs 1.4x 103 s/rm3
1-4 days 9.1 x 10- s/rm3
4-30 days 4,Ox4-4 6.0x10-4 s/m3
02.03.04-17
Table 2.0-1 Key Site Parameters(Sheet 4 of 8)
Main steam relief valve and safety valve releases (6)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
5.3x 10-3 s/m3
3.1x10-3 s/m3
2.0x10"3 s/m3
&-70-4- 1.3x10' s/m3
Steam line break releases (8)
0-8 hrs 1.9x10-2 s/m3
8-24 hrs 1.1 x 10-2 s/m3
1-4 days 7.1 x 10-3 s/m3
4-30 days 3 -,44Qý 4.7x10" s/rm3
Fuel handling area releases (7)
0-8 hrs 1.1 Xl s/rn3
8-24 hrs 6 .7 x 10.4 s/m3
1-4 days 4.3x 104 s/rm3
4-30 days 4-.Qx4Q 2.8x104 s/m3
Atmospheric dispersion factors (x/Q values) for Technical Support Center (TSC) HVA C intake for specifierrelease points(2):
Plant vent (5)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
1.4x 10-3 s/m3
8 .Oxi104 s/m
3
5 .1x10-4 s/m3
221-4O~ 3.3x0-4 s/rm3
02.03.04-18
Table 2.0-1 Key Site Parameters(Sheet 5 of 8)
Ground-level containment releases(4)
0-8 hrs 1.9x 10-3 s/m3
8-24 hrs 1.1 x 1 0-3 s/m3
1-4 days 7.2x 10-4 s/m3
4-30 days 34-1-04 4.8x10-4 s/m3
Main steam'relief valve and safety valve releases(6)
0-8 hrs 1.7x10-3 s/m3
8-24 hrs 9.9x 10-4 s/m3
1-4 days 6.3x104 s/m3
4-30 days 2.4--4- 4.2x10-4 s/m3
Steam line break releases (8)
0-8 hrs 1.4xI0- s/r3
8-24 hrs 8.4x 10-4 s/m3
1-4 days 5 .3 x 104 s/m3
4-30 days 2440-4 3.5x10-4 s/m3
Fuel handling area releases (7)
0-8 hrs 6.7x 10-4 s/M3
8-24 hrs 3 .9 x 10-4 s/m3
1-4 days 2.5x 104 s/m3
4-30 days 4--4-,-0 1.7x 10 s/m3
02.03.04-19
Table 2.0-1 Key Site Parameters(Sheet 6 of 8)
Atmospheric dispersion factors (x/Q values) for TSC inleak for specified release points(3):
Plant vent (5)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
1.4x 10-3 s/m3
8.Ox10-4 s/m3
5.1 x 10-4 s/m3
2-2,404 3.3x10-4 s/m3
Ground-level containment releases (4)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
1.9x 10-3 s/m3
1.1 x 10-3 s/m3
7.2x 104 s/m3
34491--4 4 .8x10-4 s/m3
Main steam relief valve and safety valve releases (6)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
1.7x 103 s/rm3
9. 9 x10-4 s/m3
6.3x 10-4 s/m3
248,,-49 4.2x10- s/rm3
4
Steam line break releases (8)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
1.4x10-3 s/m3
8.4x10-4 s/m3
5.3x 10-4 s/m3
24-4W 3.5x 10-4 s/m3
4
Fuel handling area releases (7)
0-8 hrs
8-24 hrs
1-4 days
4-30 days
6.7x 10-4 s/m3
3.9x10-4 s/m3
2.5x 10-4 s/m3
-4xO 1. 7 x10 s/m3
02.03.04-20
Table 2.3-3 Receptor HeightsThe height to the The height to the
Receptors lewe upper uppe lower
Main Control Room HVAC Intake(East and west are same altitude Level )(2) 13.9 13.9Reactor Building Door (West) 10.0 7.4
Class 1 E electrical room HVAC intake(South-east and South-west are same 13.9 13.9altitude Level) (2)
Class 1 E electrical room HVAC intake(North-east and North-west are same 13.9 13.9altitude Level) (2)
Auxiliary Building HVAC intake andTechnical Support Center HVAC intake 25.4 23.3(North and South) (3)
NOTE(1) The distances are from the ground level (El. = 2'-7")(2) The height to the upper and lower limit are same because the opening area is only locatedon the under side of receptors.(3) A/B and TSC HVAC intakes are treated as the same receptors, because their louvers areintegrated.
02.03.04-21
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet I of 12)
Accidents Steam system piin failureMCR
Main steam line break releasesLocations 5 of the 5 of the East 5 ofthe West
Sources East WestReleaseI
heights (m) (2) 12.8 26.3 12.8 26.3
Intake InleakMCR MCR Class 1E Class 1E Class 1E Class 1E ReactorLocations (1) HVAC HVAC electrical electrical electrical electrical
room HVAC room HVAC room HVAC room HVAC buildingReceptors --- intake ------- intake intake .. . I -intake (7)_ --------- intake -----....- _intake- (8) ----..... door ----
a of the a of the d of the d of the d of the d of theEast West North-East South-East North-West South-West
Receptorheights (m)(2) 13.9 13.9 13.9 13.9 13.9 13.9 10.0
Horizontal distance Source toReceptor (m)(3) 17 25 20 17 26 25 33
Vertical distance (m)(3) 0 -12 0 0 -12 -12 -16Straight distance (m) (3) 17 28 20 17 29 28 37
Direction Receptor to Source(degree) (4) 252 95 237 252 107 95 132
Lateral diffusion coefficient (m) 0 0 0 0 0 0 0
0
0C.,
0
N,P.)
Vertical diffusion coefficient(m)
0-8 hr
X/Q 8-24 hr
(s/m3) (6) 24-96 hr
96-720 hr
0 0 0 0 0 0 0
1.1x10-z1.1 X10-27.1 X10-3
a4.x-V' 4.7x 0-3
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 2 of 12)
Accidents Steam system piping failureMCR
Main steam line break releasesLocations~ ~ ~ _ (- - 5 -of -t-h e --..... 5 -o-f -t-I- e- --- . .. .. .. .. .. . .. .. .. .. .. .. .. . .. .. .. .. .. .. .. . .. .. .. .. .. .. .Locaion ( 5ot 5aft 5 of the West 5 of the EastSou rces West East
Releaseheights (m) (2) 26.3 12.8 26.3 12.8
Intake Inleak
MCR MCR Class 1E Class 1E Class 1E Class 1E ReactorLocations HVAC HVAC electrical electrical electrical electrical Reactor
room HVAC room HVAC room HVAC room HVACReceptors ---- intake ---..... int-take --------- intake ----- - inta-ke. (7) ---.....- inta-ke ---------- intake (8) --------- door ....
a of the a of the d of the d of the d of the d of theEast West North-East South-East North-West South-West b
Receptorheights (m)(2 ) 13.9 13.9 13.9 13.9 13.9 13.9 10.0
Horizontal distance Sourceto Receptor (m)(3) 40 49 41 40 50 49 55
Vertical distance (M) (3) -12 0 -12 -12 0 0 2_.3Straight distance (M) (3) 42 49 43 42 50 49 55Direction Receptor to
Source (degree) (4) 267 96 259 267 103 96 118
Lateral diffusion coefficient 0 0 0 0 0 0 0(m)
Vertical diffusion coefficient 00 0 0 0 0 00(m)0-8 hr 1.9x10-Z 1.9x10"
2
X/Q 8-24 hr 1.1x10-Z 1.1x10-2
(s/m 3) (6) 24-96 hr 7.1x10- 7.1x10-3
96-720 hr 3 -4 3-4 x4 G- 4.7x1034.7x1 0-3
7 1-
0
CN)01:rb)0o
Table 2.3.4-1 Combination of Sources and Recentors for Steam System Pininn Failure Analvsis I(heet 3 nf 121
0
0(A
Accidents Steam system piping failure
MCRMain steam relief valve and safety valve releases
Locations (1) 6 of the East 7 of the East 6 of the West 7 of the West
Sources (Main steam (Main steam (Main steam (Main steam
relief valve) ___saf!ety valv_ ...e) ___ relief valve) s ft..... _atfey _valve) ....
heights (m) (2) 40.7 38.8 40.7 38.8
Intake
MCR HVAC MCR HVAC MCR HVACLocations (1) intake intake intake MCR HVAC intake
R e c e p to rs -------------------- ---------------------- ------------------.- ---------------.. .. . ..a of the East a of the East a of the West a of the West
-------Receptorheights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 29 24 29 24
Vertical distance (M) (3) -27 -25 -27 -25Straight distance (m) (3) 39 35 39 35
Direction Receptor to Source(degree) (4) 303 283 57 77
Lateral diffusion coefficient(i)0 0 0 0(m)Vertical diffusion coefficient 0 0 0 0
0-8 hr 5.3x10-3x/Q 8-24 hr 3.1x10-
(s/m3) (6) 24-96 hr 2.0x10 -396-720 hr • 1.3x10-4
• v, ,mI
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 4 of 12)Steam system piping failure
AccidentsMCR
0PJ05.)
C)'
Main steam relief valve and safety valve releasesL n6- of the W est- 7 of the-W est 6 . . of t-o he East 7------ 7
of the -East ----
Sources Locations (Main steam (Main steam (Main steam (Main steam
-----e iý I ---- --relief valve) . __safetty valve) ....... reljiefvalve) ....... safetyva-lve) ....
heights (M) (2) 40.7 38.8 40.7 38.8
Intake
MCR HVAC MCR HVAC MCR HVACLocations (1) intake intake intake MCR HVAC intake
R e c e p to rs ------------------------------------------------------------.- ---------------. .. . .. .a of the East a of the East a of the West a of the West
Receptor 13.9
heights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 43 41 43 41
Vertical distance (m) (3) -27 -25 -27 -25Straight distance (M) (3) 51 48 51 48
Direction Receptor to Source(degree) (4) 291 278 69 82
Lateral diffusion coefficient 0 0 0 0(m) 0_0
Vertical diffusion coefficient 0 0 0 0(m)00o0-8 hr 5.3x10-'
x/Q 8-24 hr 3.1 x10-4
(s/m3) (6) 24-96 hr 2.0x10 4-96-720 hr 8--7x---W-4 x0-
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 5 of 12)
Accidents Steam system piping failureMCR
Main steam relief valve and safety valve releasesLocations (1) 6 of the East " 7 of the EastSources ..... (Main steam relief valve. (__ainsta ~aetva~lv)
Sources--------------- -----------relief- valve _Ma-in steam- safety valve)Release heights4073.
(M) (2) 40.7 38.8
In leakClassl1E Classl1E Classl1E Classl1E
electrical electrical electrical electricalLocations (1) room HVAC room HVAC room HVAC room HVAC
Receptors intake intake(7) intake intake(7)
d of the d of the d of the d of theNorth-East South-East North-East South-EastReceptor
heights (m)(2) 13.9 13.9 13.9 13.9
Horizontal distance Source toReceptor (m)(3) 27 29 24 24
Vertical distance (M) (3) -27 -27 -25 -25Straight distance (M) (3) 38 39 35 35
Direction Receptor to Source(degree) (4) 299 303 277 283
Lateral diffusion coefficient (m) 0 0 0 0Vertical diffusion coefficient (m) 0 0 0 0
0-8 hr 5.3x10"'
x/Q 8-24 hr 3.1x10T(s/m 3) (1) 24-96 hr 2.0x10l
96-720 hr 4-.x-1-04 1.3x10-
00•
C-)
0:
0)
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 6 of 12)
Accidents Steam system piping failureMCR
Main steam relief valve and safety valve releasesLocations (1) 6 of the West 7 of the West
Sources------------------ s re v (Main steam- safety _valve)Release heights
(M) (2) 40.7 38.8Inleak
-Class Class Class Class1E 1E Reactor 1E 1E Reactor
electrica electrica building electrica electrica buildingLocations (1) I room I room door om I room door
Receptors HVAC HVAC HVAC HVACintake intake(8) intake intake(8)
d of the d of the d of the d of theNorth-W South-W b North-W South-W b
est est est estReceptorRept(mo 2 13.9 13.9 10.0 13.9 13.9 10.0heights M(2
Horizontal distance Source toReceptor (m(3) 27 29 24 24 24 24
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (M) (3) 38 39 39 35 35 38
Direction Receptor to Source(degree) (4) 61 57 88 83 77 101
Lateral diffusion coefficient (m) 0 0 0 0 0 0Vertical diffusion coefficient (m) 0 0 0 0 0 0
0-8 hr 5.3x10-j
x/Q 8-24 hr 3.1 x 10-3(s/m3) (6) 24-96 hr 2.Ox 10-3
96-720 hr &-x444 1.3x10-
0
0C)N)
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 7 of 12)Steam system pipinq failureAccidents
MCRMain steam relief valve and safety valve releases
Locations 61 O. 6 hofhe West- [.................. 7 of ihe -WestSources - ase .(Main steam relief valve) ...... (Ma insteamsafety-valve)
heights (m) 2 ) 40.7 38.8Inleak
Cl-- dass- --E -Cass- 1E .... Class -E Clas-s E
electrical electrical electrical electricalLocations (1) room HVAC room HVAC room HVAC room HVAC
Receptors intake intake_(7) intake intake (7)
d of the d of the d of the d of theNorth-East South-East North-East South-East
Receptorheights (m)( 2 ) 13.9 13.9 13.9 13.9
Horizontal distance Source toReceptor (m)(3) 42 43 41 41
Vertical distance (M) (3) -27 -27 -25 -25Straight distance (M) (3) 50 51 47 48
Direction Receptor to Source(degree) (4) 288 291 274 278
Lateral diffusion coefficient (m) 0 0 0 0Vertical diffusion coefficient (m) 0 0 0 0
0-8 hr 5.3x10-'
x/Q 8-24 hr 3.1 x10-3(s/m 3) (6) 24-96 hr 2.0x 10"
96-720 hr 8-7x-1-0 4 1.3x10"3
0C')
C.)
00r'
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 8 of 12)Steam system pipincq failureAccidents
MCR
0
C~)
CD(D
Main steam relief valve and safety valve releasesLocations (1) - -6. -of-the East [------------ - 7 of the East
Sources ------------------ (Main steam relief valve) (Mainsteam safety valve)Release
heights (m)( 2 ) 40.7 38.8
Inleak-Class Class Class Class
1E 1E Reactor 1E 1E Reactorelectrica electrica b electrica electrica
Locations (1) I room I room door I room I room doorHVAC HVAC HVAC HVACReceptors intake intake(8) intake intake(8)
d of the d6of the d of the d of theNorth-W South-W b North-W South-W b
est est est estReceptor
heights (m)(2 ) 13.9 13.9 10.0 13.9 13.9 10.0Horizontal distance Source to
Receptor (m)(3) 42 43 41 41 41 41
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (M) (3) 50 51 51 47 48 50
Direction Receptor to Source(degree) (4) 72 69 89 86 82 96
Lateral diffusion coefficient (m) 0 0 0 0 0 0Vertical diffusion coefficient (m) 0 0 0 0 0 0
0-8 hr 5.3x10-'x/Q 8-24 hr 3.1x10"•
(s/m3) (6) 24-96 hr 2.0x104
96-720 hr &-_7x4-4 1.3xl0 3
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 9 of 12)Accidents Steam system piping failure
TSC
Locations (1) -------------------- -M ain- steam li ne break- releases ------------------------S o u r c e s . . . . . . . . _5 _ o f t h e W e s t . .. . .. .. . .. . . .. . .. . .. . .. . . .. . .. . .Release heights
(M) (2) 26.3
Intake InleakTSC HVAC TSC HVAC Auxiliary AuxiliaryLocations intake intake building HVAC building HVAC
Receptors intake - intakec of the North c of the South c of the North c of the South
R ece pto r heig hts - ---- --- --- --- --- -- --- --- --- ---- -- --- -- --- -
(m) (R ) 25.4 25.4 25.4 25.4
Horizontal distance toIntke(i) 3 ) 80 70 80 70Intake ()3
Vertical distance (M) (3) -1 -1 -1 -1Straight distance (M) (3) 80 70 80 70
Direction Receptor to Source(degree) (4) 129 117 129 117
Lateral diffusion 0 0 0 0coefficient (m)
Vertical diffusion 0 0 0 0coefficient (m)
0-8 hr 1.4x10"3 1.4x10-
x/Q 8-24 hr 8.4x10-4 8.4x 104(s/m 3) (6) 24-96 hr 5.3x10-4 5.3x104
96-720 hr 2LX-1-0- 3.5x10 2-X-04 3.5x104
0
0
0C~)0
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 10 of 12)
Accidents Steam system piping failureTSC
Locations (1) -------------------- -Main _ steam m l _ine_ br beak k releases ------------------------S o u r c e s .. . . .. . .. . . .. .. . . .. ... . .. . .. . .. . .. .. . . . . .. . .. . .. . .. . .. . .5 o f t h e _E a s t -----------------------------------Release heights
(m) (2) 12.8
Intake InleakTSC HVAC TSC HVAC Auxiliary Auxiliary
Locations (1) intake intake building HVAC building HVACintaker int- -intake intake
R e ce p to rs.. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
c of the North c of the South c of the North c of the SouthReceptor heights
(M) (2) 23.3 23.3 23.3 23.3
Horizontal distance toIntake (m)(3) 101 93 101 93
Vertical distance (M) (3) 10 10 10 10Straight distance (M) (3) 102 94 102 94
Direction Receptor to Source 122 112 122 112(degree) (4)
Lateral diffusion 0 0 0 0coefficient (m)
Vertical diffusion 0 0 0 0coefficient (m) i
0-8 hr 1.4x10-3 1.4x104
x/Q 8-24 hr 8.4x10-4 8.4x104-
(s/m 3) (6) 24-96 hr 5.3x 10-4 5.3x 10 4
96-720 hr 2-.X140 3-5x10 24X 3.5x-10-
00o(/
0
.1:)
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 11 of 12)
Accidents Steam system piping failureTSC
------------------------------- M- ain M _steam -relief valve_ and safety _vaylve _ -releases -----------------------------------1)7 of the West 1 7 of the WestLocations 6 of the West ( ste st 6 of the West ( ste st
Sources (Main steam relief valve) (Main e (Main steam relief valve) safety-------------------------------------- ie valve).......................... valve.ReleaseI
heights (M) (2) 40.7 38.8 40.7 38.8
Intake InleakAuxiliary Auxiliary Auxiliary Auxiliary
TSC HVAC TSC HVAC TSC HVAC TSC HVAC building building building buildingLocations (1) intake intake intake intake HVAC HVAC HVAC HVAC
R e ce pto rs .................................................................... inta ke ........ inta ke ........ inta ke ---------- intak e ....c of the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North SouthReceptor
heights (i) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 67 63 62 70 63 67 63 62 70 63
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 69 64 71 65 69 64 71 65Direction Receptor toSource (degree) (4) 113 97 117 102 113 97 117 102
Lateral diffusion coefficient 0 0 0 0 0 0 0 0(m)
Vertical diffusion coefficientm)0 0 0 0 •0 0 0
0-8 hr 1.7xT0"- 1.7x10u
X/Q 8-24 hr 9.9X10"4 9.9X10-4
(s/m 3) (6) 24-96 hr 6.3x10-4 6.3x10-4
96-720 hr 2,8x-0-4 4.2x10-4 24x--4 4.2x10"4
0
-I,3
CA)N)
Table 2.3.4-1 Combination of Sources and Receptors for Steam System Piping Failure Analysis (Sheet 12 of 12)
Accidents Steam system piping failureTSC
Main steam relief valve and safety valve releases
Locations (1) 6 of the East 6 of the EastLctos6othEat(Main steam safety 6 fte at(Main steam safetySources (Main steam relief valve) valve) s (Main steam relief valve) valve)a
Release -heights (i) (2) 40.7 38.8 40.7 38.8
Intake InleakAuxiliary Auxiliary Auxiliary Auxiliary
TSC HVAC TSC HVAC TSC HVAC TSC HVAC building building building buildingLocations (1) intake intake intake intake HVAC HVAC HVAC HVAC
Receptors .................................................................... intake ........ intake ........ intake ---------- intake ....c of the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North South
heights n 12) 25.4- 25.4 25.4 25.4 25.4 25.4 25.4 25.4Horizontal distance Source
to Receptor (m)(3) 83 79 85 80 83 79 85 80
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 84 80 86 81 84 80 86 81Direction Receptor to
Source (degree) 4 ) 109 96 112 100 109 96 112 100Lateral diffusion coefficient 0 0 0 0 0 0 0 0
(m)Vertical diffusion coefficient 0 0 0 0 0 0 0 0
0-8 hr 1.7x10-i 1.7x10-x/Q 8-24 hr 9.9x10-4 9.9x1 0-4
(s/m3) (6) 24-96 hr 6.3x10-4 6.3x 10-4
96-720 hr 24x4-0-4 4.2x104 24•-8-04 4.2x10-4
0
C~)
0CA)
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 1 of 8)
Accidents RCP rotor seizure accidentMCR
0
0
C.)
Main steam relief valve and safety valve releasesLocations (1) 6 of the East 7 of the East 6 of the West 7 of the WestSources (Main steam (Main steam (Main steam (Main steam
Release relief valve) __safety valve) relief valve) safet valve)
heights (m) (2) 40.7 38.8 40.7 38.8
Intake
MCR HVAC MCR HVAC MCR HVAC MCR HVACLocations (1) intake intake intake intake
Receptors ................................................................................a of the East a of the East a of the West a of the West
Receptorheights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 29 24 29 24
Vertical distance (M) (3) -27 -25 -27 -25Straight distance (M) (3) 39 35 39 35Direction Receptor to 77
Source (degree) (4) 303 283 57Lateral diffusion coefficient 0 0 0
(m)
Vertical diffusion coefficient 0 0 0 0(m)
0-8 hr 5.3x10-x/Q 8-24 hr 3.1 x10-3
(s/m3) (6) 24-96 hr 2.0x10 4-96-720 hr 8-.7-x4-0-4- 1.3 x10-3
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 2 of 8)
Accidents RCP rotor seizure accidentMCR
Main steam relief valve and safety valve releases
Locations (1) 6 of the West 7 of the West 6 of the East 7 of the EastSources (Main steam (Main steam (Main steam (Main steamSources relief valve) safety valve) relief valve) safety valve)
Releaseheights (M) (2) 40.7 38.8 40.7 38.8
Intake................................................................................-
MCR HVAC MCR HVAC MCR HVAC MCR HVACLocations (1) intake intake intake intake
R e c e p to rs --------------------.- ---------------------------------------.- -----------. . . .. . .a of the East a of the East a of the West a of the West
Receptorheights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 43 41 43 41
Vertical distance (M) (3) -27 -25 -27 -25Straight distance (M) (3) 51 48 51 48Direction Receptor toSource (degree) (4) 291 278 69 82
Lateral diffusion coefficient 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0 0
0-8 hr 5.3x103 -
x/Q 8-24 hr 3.1 x10-3(s/m3) (6) 24-96 hr 2.0x10"•
96-720 hr 8&7ý-1-0• 1.3x10"•
0
CA)
0C)
a,
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 3 of 8)
Accidents RCP rotor seizure accidentMCR
Main steam relief valve and safety valve releasesLocations (1------ - --- 6 of the East - 7 of the East
Sources -------------------- (Main steam relief valve,) (Main steam safety valve)Release
heights (m) (2) 40.7 38.8
InleakClass 1E Class 1E Class 1E Class lE
electrical electrical electrical electricalLocations (1) room HVAC room HVAC room HVAC room HVAC
Receptors intake intake(7) intake intake(T)
d of the d of the d of the d of theNorth-East South-East North-East South-East
Receptorheights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 27 29 24 24
Vertical distance (M)(3) -27 -27 -25 -25Straight distance (M) (3) 38 39 35 35Direction Receptor toSource (degree) (4) 299 303 277 283
Lateral diffusion coefficient 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0 0(m)
0-8 hr 5.3x 10-3
x/Q 8-24 hr 3.1 xl 0-(s/m3) (6) 24-96 hr 2.0x10-
96-720 hr 9.ý-4 1.3x10-4
0
C00)
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 4 of 8)
Accidents RCP rotor seizure accidentMCR
Main steam relief valve and safety valve releasesLocations (1) 6. 6o-f- e- Wes-t . . 1.. 7 of the West
Sources (Main steam relief valve) _ -. --.-- _M_ (Main steam safet valve)Release 4
heights (M) (2) 40.7 38.8InleakClass 1 E Class 1 E Class 1 E Class 1 E
electrical electrical Reactor electrical electrical Reactor
Locations room room building room room buildingHVAC HVAC door HVAC HVAC doorReceptors intake intake(8) intake intake(B)
d of the d of the d of the d of theNorth-West South-West North-West South-West
Receptor 10.0
heights (m) 13.9 13.9 10.0 13.9 13.9(2)Horizontal distance
Source to Receptor (m)(3) 27 29 24 24 24 24
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (M) (3) 38 39 39 35 35 38Direction Receptor, to
Source (degree) (4) 61 57 88 83 77 101
Lateral diffusion coefficient 0 0 0 0 0 0(m)
Vertical diffusion 0 0 0 0 0 0coefficient (m)
0-8 hr 5.3_x10"_x/Q 8-24 hr 3.1 x10-:'
(s/m 3) (6) 24-96 hr 2.0x10__
96-720 hr --7- -4 1.3x10-.
0C)
Co0b
-o
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 5 of 8)
Accidents RCP rotor seizure accidentMCR
Main steam relief valve and safety valve releasesLocations (1------------6 of the West 7 of the West
Sources .------------ -(Main- steamrel ief alve) .... (_Main stea_m safety_ valve) .Release
heights (M) (2) 40.7 38.8I nleak
.......................................................................
Class 1E Class 1 E Class 1 E
electrical electrical electrical Class 1 E
Locations (1) room HVAC room HVAC room electrical roomReceptors intake intake(7) HVAC HVAC intake(
7'.intake
d of the d of the d of the d of theNorth-East South-East North-East South-East
Receptorheights (m)(2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 42 43 41 41
Vertical distance (M) (3) -27 -27 -25 -25Straight distance (m) (3) 50 51 47 48Direction Receptor to 288 291 274 278Source (degree) (4)
Lateral diffusion coefficient(i)0 0 0 0(m)Vertical diffusion coefficient 0 0 0 0
(m)
0-8 hr 5.3x 10-'X/Q 8-24 hr 3.1 x 10-3
(s/m3) (6) 24-96 hr 2.0x10-
96-720 hr &W-x4O-4 1.3x10-f
0
C~)OD0:=
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 6 of 8)
Accidents RCP rotor seizure accidentMCR
Main steam relief valve and safety valve releasesLocations (1 6 of the East 1 7 of the East
Sources (Main steam relief vve). (Main steam safety valve)
Releaseheights (M) (2) 40.7 38.8
InleakClass 1E Class 1E Class 1E Class 1Eelectrical electrical Reactor electrical electrical Reactor
Locations (1) room room building room room buildingHVAC HVAC door HVAC HVAC doorReceptors intake intake(8) intake intake(8)
d of the d of the d of the d of theNorth-West South-West North-West South-West
Receptorheights (m)(2) 13.9 13.9 10.0 13.9 13.9 10.0
Horizontal distanceSource to Receptor (m)(3) 42 43 41 41 41 41
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (m) (3) 50 51 51 47 48 50Direction Receptor to 96Source (degree) (4) 72 69 89 86 82
Lateral diffusion coefficient(i)0 0 0 0 0 0(m)Vertical diffusion 0 0 0 0 0 0
coefficient (m)0-8 hr 5.3x10-3
x/Q 8-24 hr 3.1 xl 0-(s/m 3) (6) 24-96 hr 2.0x10"
_ _ 96-720 hr &--7-x4O4 1.3x104-
0
0C.)
C.)CD
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analysis (Sheet 7 of 8)
Accidents RCP rotor seizure accidentTSC
Main steam relief valve an-d safety valve___ releas ----...............................()7 of the West 7 of the WestLocations (1) 6 of the West (Main ste st 6 of the West ( ste st
Sources (Main steam relief valve) (Main sveam safety (Main steam relief valve) (Main steam safetye-a--e---- --- ----------------- ---- --- a )-----------------------------------valv e) ......Release
heights (M) (2) 40.7 38.8 40.7 38.8Intake Inleak
TSC TSC TSC TSC Auxiliary Auxiliary Auxiliary AuxiliaryLocations HVAC HVAC HVAC HVAC building building building buildingLoaton (1) HVAC HVAC HVAC HVAC
Receptors intake intake intake intake intake intake intake intakecof the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North South
Reet(m) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4___________ heights (m)~2
Horizontal distance Sourceto Receptor (m)(3) 67 62 70 63 67 62 70 63
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 69 64 71 65 69 64 71 65Direction Receptor to 113 97 117 102 113 97 117 102
Source (degree) (4)Lateral diffusion coefficient 0 0 0 0 0 0 0 0
(m)Vertical diffusion coefficient 0 00 0 0 0 0 0 0
0-8 hr 1.7x10-3 1 .7x0-x/Q 8-24 hr 9.9x10-4 9.9x104
(s/m3) (6) 24-96 hr 6.3x10-4 6.3x1 0-4
96-720 hr 2,8x4--4 4.2x10-4 24x-04 4.2x10-4
0
(3)0.
03
Table 2.3.4-2 Combination of Sources and Receptors for RCP Rotor Seizure Analvsis (Sheet 8 of 8)
Accidents RCP rotor seizure accidentTSC
------------------------------- _Main steam rel-iefyvalve an_d_safetty valve releases
Locations (1) 6 of the East 7 of the East 6 of the East 7 of the EastSources (Main steam relief (Main steam safety (Main steam relief valve) (Main steam safetyvalve) [....................... valve) (M ain------ steam------ relief ... valv )
Release -heights (m) (2) 40.7 38.8 40.7 38.8
Intake InleakTSC TSC TSC TSC Auxiliary Auxiliary Auxiliary Auxiliary
Locations (1) HVAC HVAC HVAC HVAC buildingHVAC buildingHVAC buildingHVAC buildingHVAC
intake intake intake intake inak inak inak inakReceptors --------------------------------------------- .......... ---------- nt~ake .........-intake --------- inta~ke_ --------- inta~ke -....
c of the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North South
Receptor 25.4 25.4 25.4heights (M) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance SourcetReetr(M)(3) 83 79 85 80 83 79 85 80to Receptor () 3
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 84 80 86 81 84 80 86 81Direction Receptor to 109 96 112 100 109 96 112 100
Source (degree) (4)
Lateral diffusion coefficient 0 0 0 0 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0000 0 00000-8 hr 1.7x10-3
1.7x10-3
x/Q 8-24 hr 9.9x104 9.9X10-4
(s/m3) (6) 24-96 hr 6.3x10-4 6.3x10-
96-720 hr 2;x8-04O 4.2x10-4 24x40-4 4.2x10-4
0
0
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis (Sheet I of 11)
Accidents Rod Ejection AccidentMCR
Locations (1) Plant ventSources Rlae9
heights (M) (2) 69.9
Intake InleakClass 1E Class 1E Class 1E Class 1E
MCR MCR electrical electrical electrical electrical Auxiliary Auxiliary Reactor
Locations (1) HVAC HVAC room room room room bidn buln buildingintake intake HVAC HVAC HVAC HVAC HVAC HVAC doorReceptors intake intake(7) intake intake(8) intake intake
a of the a of the d of the d of the d of the d of the c of the c of the bEast West North-East South-East North-West South-West North South
Receptor 1. 392. 54 1.heights (m)(2) 13.9 13.9 13.9 13.9 13.9 13.9 25.4 25.4 10.0
Horizontal distanceSource to Receptor (m)(3 ) 68 53 66 68 51 53 55 61 37
Vertical distance (M) (3) -56 -56 -56 -56 -56 -56 -45 -45 -60Straight distance (M) (3) 88 77 87 88 76 77 71 76 70Direction Receptor toSource (degree) (4) 318 19 316 318 20 19 81 64 28
Lateral diffusion coefficient(i)0 0 0 0 0 0 0 0 0(m)Vertical diffusion 0 0 0 0 0 0
coefficient (m) 0_00-8 hr 1.1X10-3 1.4x1-0-
(6) 8-24 hr 6.6x10-4 8.0X 10 "4
(s/m3) (1) 24-96 hr 4.2x10-4 5.1 x 104-I•9x40-4 2,2_x_1.0" 3.3x10-4.
96-720 hr 2.8x104
0
0c0)0I:
Table 2.3.4-3 Combination of Sources and ReceDtors for Rod Ejection Accident Analvsis (Sheet 2 of 111
0
C,)
Accidents Rod Ejection AccidentMCR
Ground level containment release point ('Locations (1) 2of-thl•l- h1e 1 • of-the--o-f-e --- 1 -of- the- 2 ofe 13 ofthe 43 ofthe 4-
Sources East] West J East I East West] West J NorthJ South]Release
heights (M) (2) 49.5
Intake InleakClass 1 E Class 1 E Class 1 E Class 1 E
MCR MCR electrical electrical electrical electrical Auxiliary Auxiliary ReactorLocations (1) HVAC HVAC room room room room building buildingReceptors intake intake HVAC HVAC HVAC HVAC HVAC HVAC doorReceptors intake intake(7) intake intake(8) intake intake
aof the a of the d of the d of the d of the d of the c of the c of theEast West North-East South-East North-West South-West North South b
Receptorheights (m)(2) 13.9 13.9 13.9 13.9 13.9 13.9 25.4 25.4 10.0
Horizontal distanceSource to Receptor (m)(3) 29 29 27 29 27 29 46 48 16
Vertical distance (M) (3) -35 -35 -35 -35 -35 -35 -24 -24 -39Straight distance (M) (3) 46 46 44 46 44 46 52 54 43Direction Receptor to
Source (degree) (4) 322 38 320 322 40 38 91 76 53Lateral diffusion coefficient 7.98 7.98 7.98 7.98 7.98 7.98 7.98 7.98 7.98(m)
Vertical diffusion 5.03 5.03 5.03 5.03 5.03 5.03 5.03 5.03 5.03coefficient (m)
0-8 hr 2.2x10-3 2.0 10"
XIQ 8-24 hr 1.3x10 4- 1.4x10"3(s/m3) (6) 24-96 hr 8.3x10-
4 9.1 X10-43_&-0-4 4.0x40- 6.0x1 0-4
96-720 hr 5.5 X 10-4
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis (Sheet 3 of 11)
Accidents Rod Ejection AccidentMCR
Main steam relief valvealve releases
Locations (1) 6 of the East 7 of the East 6 of the West 7 of the WestSources (Main steam relief valve) (Main steam safety valve) (Main steam relief (Main steam safety valve)
--- -se------------------------------------------------------------ ----------- valve).......................Release Iheights (i) (2) 40.7 38.8 40.7 38.8
Intake---------------------------------------------------------------..--------------------------------------------------------------
Locations (1) MCR HVAC intake MCR HVAC intake MCR HVAC intake MCR HVAC intake
Receptorsa of the East a of the East a of the West a of the West
Receptor
heights (m (2) 13.9 13.9 13.9 13.9
Horizontal distance Source 29 24to Receptor (m)(3)
Vertical distance (M) (3) -27 -25 -27 -25Straight distance (M) (3) 39 35 39 35Direction Receptor to
Source (degree) (4) 303 283 57 77Lateral diffusion coefficient 0 0 0 0
(m)Vertical diffusion 0 0 0 0
coefficient (m) 10-8 hr 5.3x106-
x/Q 8-24 hr 3.1x10°(s/m3) (6) 24-96 hr 2.Oxl0-'
96-720 hr &-7-x4DO- 1.3x10-f
0C%)
N0
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis (Sheet 4 of 11)
Accidents Rod Ejection AccidentMCR
Main steam relief valve and safety valve releases
Locations (1) 6 of the West 7 of the West 6 of the East 7 of the East(Main steam relief oftains 6otheast reieSources valve) (Main steam safety valve) (Main steam relief (Main steam safety valve)
ReleaseIheights (m) (2) 40.7 38.8 40.7 38.8
Intake
Locations (1) MCR HVAC intake MCR HVAC intake MCR HVAC intake MCR HVAC intake
Receptors ..............................................................................................................................a of the East a of the East a of the West a of the West
Receptorheights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 43 41 43 41
Vertical distance (M) (3) -27 -25 -27 -25Straight distance (M) (3) 51 48 51 48Direction Receptor to
Source (degree) (4) 291 278 69 82Lateral diffusion coefficient 0 0 0 0(m)Vertical diffusion coefficient 0 0 0W 00
0-8 hr 5.3x10T-
x/Q 8-24 hr 3.1 x10-3
(s/m3) (61 24-96 hr 2.0x 1.3x0L -96-720 hr 8q 4-47-- • 1 3 1 -
0C)0
C0(:3
Tahle 2.4.3 Combination of Sources and Receptors for Rod Election Accident Analvsis IShAet 5 of 111
Accidents Rod Ejection AccidentMCR
Main steam relief valve and safety valve releasesLocations (1) ' ... 6 of the East 7 of the East
Sources s------------------.. (Ma-insteamrelief valve)_ __(Main_ steam_ safet valve)Release40.7heights (M) (2)4073.
InleakClass 1E Class 1E Class 1Eelectrical electrical electrical Class 1 E
electricalLocations room room room room HVACReceptors HVAC HVAC HVAC roam(H 7 )Receptors intake intake(7) intake intake
d of the d of the d of the d of theNorth-East South-East North-East South-East
Receptor 13.9heights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 27 29 24 24
Vertical distance (M) (3) -27 -27 -25 -25Straight distance (M) (3) 38 39 35 35Direction Receptor to
Source (degree) (4) 299 303 277 283
Lateral diffusion coefficient(i)0 0 0 0(m)Vertical diffusion coefficient 0 0 0 0
(m)0-8 hr 5.3,1 0
X/Q 8-24 hr 3.1 x 10V(s/m3) (6) 24-96 hr 2.0x10-
96-720 hr 87.x1-04 1.3x10"•
0
C)
C)
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis (Sheet 6 of 11)
AccidentsRod Ejection Accident
MCR
OC)
C0.
-O
Locations -------------- Main- steaamrelief valve and safet valve releases(1) 6 of the West 7 of the West
Sources ------....-- ------ (Main steam relief valve) .............. (Main_ steam- safety valve) ......Release
heights 40.7 38.8(m) (2)
InleakClass 1E Class 1E Class 1E Class 1Eelectrical electrical Reactor electrical electrical Reactor
Locations room room building room room building(1) HVAC HVAC door HVAC HVAC door
Receptors intake intake(_8 ) intake intake_).
d of the d of the b d of the d of theNorth-West South-West North-West South-West b
R eceptorheights 13.9 13.9 10.0 13.9 13.9 10.0
(M) (2)
Horizontal distanceSource to Receptor 27 29 24 24 24 24
(m)(3)
Vertical distance (m)(3) -27 -27 -30 -25 -25 -29
Straight distance (m)(3) 38 39 39 35 35 38
Direction Receptor toSource (degree) 4 61 57 88 83 77 101
Lateral diffusion 0 0 0 0 0 0coefficient (m)
Vertical diffusion 0 0 0 0 0 0coefficient (m)
0-8 hr 5.3x10-'x/Q 8-24 hr 3.1xl-;'
(s/m3) (6) 24-96 hr 2.0x10-96-720 hr 8-7x-0-4 1.3x10-
Tahbl e 2 1.4- .Cnmhinntinn nf .flrro€ 2nd PaRa ntnMr fnr Pnel Piar-inn Arrianf *Anmlma; IQh nf 7 ^f 441-fIMVIV hiVe1 1
Accidents Rod Ejection AccidentMCR
Main steam relief valve and safety valve releasesLocations (1) 6 of the West - 7 of the West
Sources (Main steam relief valve (Main steam safety valve)
heights (m) (2) 40.7 38.8
InleakClass 1E Class 1E Class 1E Class 1Eelectrical electrical electrical electrical
Locations (1) room HVAC room HVAC room HVAC room HVACReceptors intake intake(7) intake intake(7)
d of the d of the d of the d of theNorth-East South-East North-East South-East.......................................................................................
Receptorheights (m)(2 ) 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 42 43 41 41
Vertical distance (M) (3) -27 -27 -25 -25Straight distance (M) (3) 50 51 47 48Direction Receptor to
Source (degree) (4) 288 291 274 278
Lateral diffusion coefficient 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0
0-8 hr 5.3x10-3x/Q 8-24 hr 3.1 x10-3
(s/m3) (6) 24-96 hr 2.0x10-96-720 hr &7-x4-4 1.3x10-
lll;li;IL I Vl l l
0!I)0C)04h
Table 2.3.4-3 Combination of Sources and ReceDtors for Rod Election Accident Analysis (Sheet 8 of 111Accidents Rod Ejection Accident
MCRMain steam relief valve ad s a releases
Locations (1) 6 of the East 7 of the EastSources --- ----------------- (Main steam_ re/lief valve) . (Main _stea_m_ safety_ valve) .........Release407I38
heights (M) (2) 40.7 38.8Inleak
b -Class 1 E Class 1 E Rat Class 1 E Class 1 E Reactorelectrical electrical electrical electrical
Locations (1) room HVAC room HVAC building room HVAC room HVAC building
Receptors intake intake(8 . door intake intake_(8) door
d of the d of the d of the d of theNorth-West South-West North-West South-West
Receptorheights (M)(2) 13.9 13.9 10.0 13.9 13.9 10.0
Horizontal distance Sourceto Receptor (M)(3) 42 43 41 41 41 41
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (m) (3) 50 51 51 47 48 50Direction Receptor toSource (degree) (4) 72 69 89 86 82 96
Lateral diffusion coefficient 0 0 0 0 0 0(mn)
Vertical diffusion coefficient 0 0 0 0 0 0
0-8 hr 5.3x10{x/Q 8-24 hr 3.1x 10`-
(s/m3) (i ) 24-96 hr 2.Oxl0"_96-720 hr 8--x-!-4 1.3x10"3
C)
C)
CID
0C')
C~)PC)0
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis-in-the (Sheet 9 of 11)
Accidents Rod Ejection AccidentTSC
Ground level Ground levelPlant vent containment Plant vent containment
Locations (1) release roint (5) release point (5)Sources 3 of the 3 of the 9 3of the 3of the
Release
heights (M) (2) 69.9 49.5 69.9 49.5
Intake inleak
TSC TSC Auxiliary Auxiliary Auxiliary Auxiliary) HVAC HVAC TSC HVAC TSC HVAC Building Building Building Building
Locations intake intake intake intake HVAC HVAC HVAC HVACReceptors In- --e .... ,n-_a- - - --l ---- .. ntake ---- - Intake ---- I ----- ,ntake ----------.I.ntake -----
c of the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North South
R e c e p t orei -t o r . ...-- - . . .. . .. . .. . . .. . .. . . .. . .. . ... .. . .. . .. .. . .. . .. . .. . . .. . .. . .. . ... .. . . .. . .. . .. . ... .. . .. . .. .. . . .. .. . . .. . . .. . .. .. . . .. . .. . .. . . .. . .. . .. .heights (m) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 55 61 46 48 55 61 46 48
Vertical distance (m) (3) -45 -45 -24 -24 -45 -45 -24 -24Straight distance (M) (3) 71 76 52 54 71 76 52 54Direction Receptor to
Source (degree) (4) 81 64 91 76 81 64 91 76Lateral diffusion coefficient 0 0 0-7.98 0-7.98 0 0 0-7.98 0-7.98(m)Vertical diffusion coefficient 0 0 0-5.03 0-5.03 0 0 0-5.03 0-5.03(m)1
0-8 hr 1.4x10-i 1.9X10-3 1.4xi1-3 1.9x10-3
X/Q 8-24 hr 8.0x 10- 1.1 xl10- 8.0x 104 1.1xl0"(s/m3) (6) 24-96 hr 5.1X10-4 7.2x10 5.1x104 7.2x10-4
2x_0 2xl0-4 3.27x40496-720 hr 3.3x10 4 4 .8 x104 3.3x10 4 4.8x104
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis (Sheet 10 of 11)
Accidents Rod Ejection AccidentTSC
Main steam relief valve and safety valve releasesLocations (1)
Sources 6 of the West 7 of the West 6 of the West 7 of the WestRelease heights-(Maineam relief valve)_ _(Main _steam_sa_fety valve_). (Main steam relief valve) .(Main steam -safety valve)_Release heights 40.7 3. 073.
(M) (2) 38.8 40.7 38.8
Intake InleakAuxiliary Auxiliary Auxiliary Auxiliary
TSC HVAC TSC HVAC TSC HVAC TSC HVAC Building Building Building BuildingLocations (1) intake intake intake intake HVAC HVAC HVAC HVAC
Receptors Intake Intake Intake Intakec of the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North South
Receptorheights (M) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 67 62 70 63 67 62 70 63
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 69 64 71 65 69 64 71 65
Direction Receptor to Source 97 117 102 113 97 117 102(degree) (4) 113
Lateral diffusion coefficient 0 0 0 0 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0 0 0 0 0 00-8 hr 1.7x10-i 1.7xl0-i
x/Q 8-24 hr 9.9x10-4 9.9X10"4(s/m3 ) (6) 24-96 hr 6.3x10-4 6.3x10"4
96-720 hr 27104-4 4.2x10 4 2-404§ 4.2X104
0
0aoA
0
Table 2.3.4-3 Combination of Sources and Receptors for Rod Ejection Accident Analysis (Sheet 11 of 11)
Accidents Rod Ejection AccidentTSC
Main steam relief valve and safety valve releasesLocations (1)
Sources 6 of the East 7 of the East 6 of the East 7 of the East.. elee .. _steam relief valve) (Main_steam _safety valve) (Main steam relief valve) (Main steam.sa.f.ety valve)Release - ----------------
-- K i-se m s f
heights (M) (2) 40.7 38.8 40.7 38.8
Intake I nleakAuxiliary Auxiliary Auxiliary Auxiliary
TSC HVAC TSC HVAC TSC HVAC TSC HVAC Building Building Building BuildingLocations (1) intake intake intake intake HVAC HVAC HVAC HVACReceptors Intake Intake Intake Intake
cof the c-ofthe c-of-the cof-the c-of-the cof-the cof-the cof-theNorth South North South North South North South
Receptorheights (M) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 83 79 85 80 83 79 85 80
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 84 80 86 81 84 80 86 81Direction Receptor to 96 112 100 109 96 112 100Source (degree) (4) 109
Lateral diffusion coefficient 0 0 0 0 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0(m)
0-8 hr 1.7x10-3 1.7x 10x/Q 8-24 hr 9.9X10-4 9.9x10 4
(s/m3) (6) 24-96 hr 6.3x10-4 6.3x1 0-4
96-720_hr 2-",-4 4.2x10-4 2.4-91-4 4.2x10-4
0r'300.
(F
Table 2.3.4-4 Combination of Sources and Receptorsfor Failure of Small Lines Carrying Primary Coolant Outside Containment analyses (Sheet I of 2)
Accidents Failure of Small Lines Carrying Primary Coolant Outside ContainmentMCR
Locations (1) Plant ventS o u rc e s . . . . . . . . . . . . . . . . . . . . . . . . . . . -. . . . . . . . . . . . . . . . . . . . . . . . . .. . .. . .. . .. .. . . . .. . .1 . .. . .. . . .. . .. . .. .. . .. . .. . .. . .. . . .. . .. . .. . . . . .. . .. .. . .. . . .. . .. .. . .. .. . . .. . .. . . .. .. . . .. . . .. . .. . .. . .. . .. . ..9.
Releaseheights (M) (2) 69.9
Intake Inleak
MCR MCR Class 1E Class 1E Class 1E Class 1ELocations (1) HVAC HVAC electrical electrical electrical electrical
room HVAC room HVAC room HVAC room HVACReceptors intake intake intake intake_(_7 intake intake(
8)
a of the a of the d of the d of the d of the d of theEast West North-East South-East North-West South-West
Receptorheights (m)(2) 13.9 13.9 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 68 53 66 68 51 53
Vertical distance (M) (3) -56 -56 -56 -56 -56 -56Straight distance (M) (3) 88 77 87 88 76 77Direction Receptor toSource (degree)(4 ) 318 19 316 318 20 19
Lateral diffusion coefficient(i)0 0 0 0 0 0(m)Vertical diffusion coefficient 0 0 0 0 0
(m)I
0-8 hr 1.1xl0 1.4x10.2
X/Q 8-24 hr 6.6xl 0-4 8.Ox104
(s/m 3) (6) 24-96 hr 4.2x10-" 5.1x10-4
96-720hrgX-10-4 2.2_x_1-4 3.3x10-496-720 hr 2 .8 x10-4
0
0
Cr
0
0C~)0ýa
Table 2.3.4-4 Combination of Sources and Receptorsfor Failure of Small Lines Carrying Primary Coolant Outside Containment analyses (Sheet 2 of 2)
Accidents Failure of Small Lines Carrying Primary Coolant Outside ContainmentMCR TSC
Locations (1) Plant vent Plant ventSources 9 9
Releaseheights (M) (2) 69.9 69.9
Inleak Intake inleakAuxiliary Auxiliary Reactor TSC HVAC TSC HVAC Auxiliary Auxiliary
Locations building HVAC building HVAC ..... . / . i Building Buildingintake intake building door intaKe intaKe HVAC Intake HVAC IntakeReceptors c of the North c of the South b c of the North c of the South c of the North c of the South
Receptorheights (m) (2) 25.4 25.4 10.0 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 55 61 37 55 61 55 61
Vertical distance (m) (3) -45 -45 -60 -45 -45 -45 -45Straight distance (M) (3) 71 76 70 71 76 71 76Direction Receptor toSource (degree) 4 ) 81 64 28 81 64 81 64
Lateral diffusion coefficient 0in) 0 0 0 0 0(m)Vertical diffusion coefficient 0 0 0 0 0 0(m)I 1
0-8 hr 1.4x105- 1.4x107 - 1.4x10"•x/Q 8-24 hr 8.0x10-4 8.0X10-4 8.0X10-4
(s/i 3) (6) 24-96 hr 5.1x10"4 5.1x10"' 5.1x10-496-720 hr 2-2x49-4 3.3x10-4 22'i_-0- 3.3x10-4 2_2q•_0_ 3.3x10.4
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet I of 8)
Accidents SGTRMCR
Main steam relief valve and safety valve releasesLocations (1)----------- of t E of the East [ 6 of the West 7 of the West
(Main steam relief valve) _(Main steam safetyvalve) (Main steam relief valve) (Main steam safety valve)
Seease / -heights (m) (2) 40.7 38.8 40.7 38.8
Intake
Locations MCR HVAC intake MCR HVAC intake MCR HVAC intake MCR HVAC intakeReceptors ..................................................................................................................................
a of the East a of the East a of the West a of the West
R e c e p t o r e cc -p- o rp . . . .. . .. . .. . .. .. . . .. . . .. . .. . .. . .. . .. .. .. . .. . .. . .. .. . . .. .. . .. . . .. . .. . ... .. . . .. . .. . .. . .. .. . .. . . .. .. . .. . .. . . .. . . .. .. . . .. . .. . .. . . .. . .. . .. . .heights (m) (2 13.9 13.9 13.9 13.9
Horizontal distance Sourceto Receptor (m)(3) 29 24 29 24
Vertical distance (M) (3) -27 -25 -27 -25
Straight distance (m) (3) 39 35 39 35Direction Receptor to 303 283 57 77
Source (degree) (4)Lateral diffusion coefficient 0 0 0(mn) 0________ 0________ ___0____
Vertical diffusion coefficient(m)0 0 0
0-8 hr 5.3xI0"•xIQ 8-24 hr 3.1 x10:3
(s/rn) (6) 24-96 hr 2.0x10-•
96-720 hr 84O. 1.3x10 4
0IC)
0
Cl'
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 2 of 8)
Accidents SGTRMCR
Main steam relief valve and safety valve releasesLocations (1
Sources 6 of the West 7 of the West 6 of the East 7 of the EastReeae .eiht (Main steam relief valve) (Main steam safety valve) (Main steam relief valve) (Main steam safety valve)R ý,elea's e- -heights- - - -- --- -- -- ---- -- --- - --I- -- --- -- --- --
(M) (2) 40.7 38.8 40.7 38.8Intake
Locations (1) MCR HVAC intake MCR HVAC intake MCR HVAC intake MCR HVAC intake.................................................................................................................................
Receptors a of the East a of the East a of the West a of the West
Receptorheights (M) (2) 13.9 13.9 13.9 13.9
Horizontal distance Source toReceptor (m)(3) 43 41 43 1 41
Vertical distance (M) (3) -27 -25 -27 -25Straight distance (M) (3) 51 48 51 48
Direction Receptor to Source(degree) (4) 291 278 69 82
Lateral diffusion coefficient 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0 0(m)
0-8 hr 5.3x10-x/Q 8-24 hr 3.1 x 10-3
(s/m3) (6) 24-96 hr 2.0x10-U
96-720 hr 8-7-l-0 1.3x10-3
0
0a
01
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 3 of 8)
Accidents SGTRMCR
Main steam relief valve and safety valve releasesLocations b1- - 6 of the East 7 of the East
Sources ---------------- (Main steam relief valve) .(Main steam safety valve) ...Release
heights (M) (2) 40.7 38.8
InleakClass 1E Class 1E Class 1E
Class 1E
electrical electrical electrical electricalLocations (1) room HVAC room HVAC room HVAC room HVAC
Receptors intake intake(7) intake intake(7 )
d of the d of the d of the d of theNorth-East South-East North-East South-East
Receptorheights (m) (2) 13.9 13.9 13.9 13.9
Horizontal distance Source toReceptor (m)(3) 27 29 24 24
Vertical distance (m) (3) -27 -27 -25 -25Straight distance (M) (3) 38 39 35 35
Direction Receptor to Source(degree) (4) 299 303 277 283
Lateral diffusion coefficient (m) 0 0 0 0Vertical diffusion coefficient (m) 0 0 0 0
0-8 hr 5.3x105-
x/Q 8-24 hr 3.1 x10•
(s/m 3) (6) 24-96 hr 2.0x10.396-720 hr &.7-x4 1.3x10-_
0
0CA)4
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 4 of 8)
Accidents SGTRMCR
Main steam relief valve and safety valve releasesLocations . . 6 of the West 1.7 of the West
Sources -------------------------------- (M-ain-steam re!ief valve) (Main steam safety valve) ..........Release heights
(M) (2) 40.7 38.8Inleak
Class 1E Class 1E Ratr Class 1E-Class 1E
electrical electrical electrical electrical ReactorLocations (1) room HVAC room HVAC building room HVAC room HVAC building
Receptors intake intake(8) door intake intake(8) door
d of the d of the d of the d of theNorth-West South-West b North-West South-West b
heights (m) (2) 13.9 13.9 10.0 13.9 13.9 10.0
Horizontal distance Sourceto Receptor (m)(3) 27 29 24 24 24 24
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (M) (3) 38 39 39 35 35 38
Direction Receptor to Source(degree) (4) 61 57 88 83 77 101
Lateral diffusion coefficient(i)0 0 0 0 0 0(M)Vertical diffusion coefficient 0 0 0 0 0 0
(M)0-8 hr 5.3x 10"
x/Q 8-24 hr 3.1 x10-3(s/m3) (6) 24-96 hr 2.0x1 0"
96-720 hr 37x0 1.x 10-3
0
0C~)0!Q
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 5 of 8)
Accidents SGTRMCR
----------------- _-Main steamrelief valve and safet valve releasesLocations (1 6 of the West 7 of the West
Sources ------ _------------(Main steam relief valve) . (Main steamrs-afetyvalve) ..........Release
heights (M) (2) 40.7 38.8
In leak
Class 1 E electrical Class 1 E electrical Class 1E electrical Class 1 E electricalroom HVAC room HVACLocations (1) room HVAC intake intaker() room HVAC intake intake(7)
Receptors - - - - - - - - - - -ae-- - - - - - - - -d of the North-East d of the South-East d of the North-East d of the South-East
R__ ý e c e p t -o r -- - --- -- --- ---- --- --- -- -- --- ---- -- --- ---- -- -- -- -- --- -heights (m) (o) 13.9 13.9 13.9 13.9
Horizontal distance Source 42 43 41 41to Receptor (m)(3)
Vertical distance (m) (3) -27 -27 -25 -25Straight distance (M) (3) 50 51 47 48
Direction Receptor to Source 288 291 274 278(degree) (4)
Lateral diffusion coefficient 0 0 0 0(m)
Vertical diffusion coefficient 0 0 0 0
0-8 hr 5.3x 10
x/Q 8-24 hr 3.1 x10-3(s/m3) (6) 24-96 hr 2.Ox 10-
96-720 hr &74--0 1.3x10J
0N)
C)
io
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 6 of 8)
Accidents SGTRMCR
Main steam relief valve and safety valve releasesLocations 6 of the East - 7 of the East
Sources _(Main steam relief valve) .. (Main steam safety valve)
Release 4heights (M) (2) 40.7 38.8
InleakClass 1E Class 1E Class 1E Class 1E
electrical electrical Reactor electrical electrical ReactorLocations (1) room HVAC room HVAC building door room HVAC room HVAC building doorReceptors intake intake(8 ) intake intake(8)R e c e p to rs-- - - -- -- -- - --- --- ---- -- --- -- --- -- -- -- --- --- --- -- - -- -
d of the d of the d of the d of theNorth-West South-West b North-West South-West b
Receptorheights (m) (2) 13.9 13.9 10.0 13.9 13.9 10.0
Horizontal distance Source toReceptor (m)(3) 42 43 41 41 41 41
Vertical distance (M) (3) -27 -27 -30 -25 -25 -29Straight distance (M) (3) 50 51 51 47 48 50
Direction Receptor to Source(degree) (4) 72 69 89 86 82 96
Lateral diffusion coefficient (m) 0 0 0 0 0 0Vertical diffusion coefficient (m) 0 0 0 0 0 0
0-8 hr 5.3x10";
x/Q 8-24 hr 3.1 x 10-(s/m3) (6) 24-96 hr 2.0x10-
96-720 hr &-x-W-4 1.3x10-
0
0
c5)0
0N)0C~)
C5)
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 7 of 8)
Accidents SGTRTSC
Main steam relief valve and safety valve releases
Locations -(1) - 6 of the -West- ..... ------..-7 of -t-e-West ------------- 6 of the West --------------7 of the WestSources (Main steam relief (Main steam safety (Main steam relief (Main steam safetySlease valve)... valve) valve) valve)
Rlase
heights (M) (2) 40.7 38.8 40.7 38.8
Intake InleakTSC TSC TSC TSC Auxiliary Auxiliary Auxiliary Auxiliary
HVAC HVAC HVAC HVAC building building building buildingLocations (1) intake intake intake intake HVAC HVAC HVAC HVAC
Receptors intake intake- intake-intake intake intake intake intakecof the c of the c of the c of the c of the c of the c of the c of the
North South North South North South North SouthReceptor
heights (M) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 67 63 70 63 67 63 70 63
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 69 64 71 65 69 64 71 65Direction Receptor toSource (degree) (4) 113 97 117 102 113 97 117 102
Lateral diffusion coefficient 0 0 0 0 0 0 0 0(0n) 0_0_0 0___(m)Vertical diffusion coefficient 0 0 0 0 0 0 0 0
0-8 hr 1.7x1- 1.7x10x/Q 8-24 hr 9.9x104 9.9x10-4
(s/m3) (6) 24-96 hr 6.3x104 6.3x 10-4S96-720 hr 28x40- 4.2x10-4 27.Bx40- 4.2x10"4
0
6)I4'
Table 2.3.4-5 Combination of Sources and Receptors forSteam Generator Tube Rupture (SGTR) analyses (Sheet 8 of 8)
Accidents SGTRTSC
Main steam relief valve and safety valve releases
Locations (1) . 6 of the East 7 of the East 6 of the East 7-of -the- EastSources (Main steam relief (Main steam safety (Main steam relief (Main steam safety
. . .lease valv valve) vlve) valve)Rele~ase
heights (M) (2) 40.7 38.8 40.7 38.8
Intake Inleak
TSC TSC TSC TSC Auxiliary Auxiliary Auxiliary AuxiliaryHVAC HVAC HVAC HVAC building building building building
Locations intake intake intake intake HVAC HVAC HVAC HVACReceptors intake intake itk intake intake intake intake intake
c of the c of the c of the c of the c of the c of the c of the c of theNorth South North South North South North South
Receptorheights (M) (2) 25.4 25.4 25.4 25.4 25.4 25.4 25.4 25.4
Horizontal distance Sourceto Receptor (m)(3) 83 79 85 80 83 79 85 80
Vertical distance (m) (3) -15 -15 -13 -13 -15 -15 -13 -13Straight distance (M) (3) 84 80 86 81 84 80 86 81Direction Receptor to
Source (degree)(4 ) 109 96 112 100 109 96 112 100Lateral diffusion coefficient 0 0 0 0 0 0 0 0
(m)Vertical diffusion coefficient 0 0 0 0 0 0 0 0(m)
0-8 hr 1.7x103-• 1.7xT10-ý
x/Q 8-24 hr 9.9X10"4 9.9x104
(s/m3) (6) 24-96 hr 6.3x10-4 6.3x10-496-720hr2 4.2x10 4 2•P404 4.2x10-4
Table 2.3.4-6 Combination of Sources and Receptors for LOCA Analysis (Sheet I of 3)
Accidents LOCAMCR
Locations (1) Plant vent
Sources 9Release
heights (m) (2) 69.9
intake InleakClass 1E Class 1E Class 1E Class 1E
MCR MCR electrical electrical electrical electrical Reactor
Locations (1) HVAC HVAC room room room room buildingintake intake HVAC HVAC HVAC HVAC doorReceptors intake intake(7) intake intake(8)
a of the a of the d of the d of the d of the d of theEast West North-East South-East North-West South-West b
Receptor m2) 13.9 13.9 13.9 13.9 13.9 13.9 10.0__________ heights (m) I IHorizontal distance
Source to Receptor (m)(3 ) 68 53 66 68 51 53 37Vertical distance (M) (3) -56 -56 -56 -56 -56 -56 -60Straight distance (M) (3) 88 77 87 88 76 77 70Direction Receptor toSource (degree)(4 ) 318 19 316 318 20 19 28
Lateral diffusion coefficient 0 0 0 0 0 0 0(m)
Vertical diffusion 0 0 0 0 0 0 0coefficient (m)
0-8 hr 1.1X10- 1.3x1-0°
8-24 hr 6.6xl0-4 7.8x 10-4
(s/m 3) (6) 24-96 hr 4.2x104 4.9x10-4
96-720 hr 2.8x10. 3. 3 xIO4
0
P0
04.1
6)
0N)0CA)(0
'5)Co
Table 2.3.4-6 Combination of Sources and Receptors for LOCA Analysis (Sheet 2 of 3)
Accidents LOCAMCR
Ground level containment release point (5)Locations (1) -----2offt -e ... ..2- h ...................... -----------------..................................2 ofee .h 1 of the East 2 of the East 1 of the West 2 of the WestSourc