ML20050C631

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Public Version of Revision 11 to Emergency Plan Supporting Procedures AD 1827.10, Emergency Offsite Dose Estimates. Revision 134 to Supporting Procedures Index Encl
ML20050C631
Person / Time
Site: Davis Besse Cleveland Electric icon.png
Issue date: 02/25/1982
From: Doye L, Jonathan Evans, Green W
TOLEDO EDISON CO.
To:
Shared Package
ML20050C627 List:
References
AD-1827.10-01, AD-1827.10-1, NUDOCS 8204090189
Download: ML20050C631 (28)


Text

. - . . . . _ . _ . ..

Tith TULEIA) ED1 SUN COMPANY DAVIS-BESSE NUCl. EAR POWER STATION O EMERGENCY PLAN SUPPORTING PROCEDURES REVISION INDEX i

PACE REVISION PROCEDURES REVISION TEMP 0HARY M01)IFICATIOfijj i 5 llP 1602.01 10 HP 1604.01 2 AD 1827.01 2 T-6020 AD 1827.02 7 T-5917 AD 1827.03 1 AD 1827.04 1 T-6019 AD 1827.05 2 AD 1827.06 2 AD 1827.07 2 AD 1827.08 1 AD 1827.09 1 AD 1827.10 11 AD 1827.11 2 AD 1827.12 6 AD 1827.13 4 AD 1827.14 1 AD 1827.15 3, AD 1827.16 1 AD 1827.17 1 AD 1850.04 3 AD 1850.05 4 ADMINTSTP.ATIVE MFMORANDUMS HEVISION No. 37 - ECS Pager and Telephone Numbers 25 No. 38 - First Aid Team 11 No. 39 - Fire Brigade ii No. 4J - Emergency Duty Officer (EDO) 22 No. 42 - Radiation Monitoring Teams (RMT) 13

~

Revision 134 s March, 1982 B204090189 820317 PDR ADOCK 05000346 F PDR

~

AD 1827.10 Davis-Besse Nuclear Power Station Unit N37 1 Administrative Procedure AD 1827.10 Emergency Off-Site Dose Estimates ROMSAElElfID Record of Approval and Changes Prepared by C. Doyel, W. Green 2/6/76 Date Submitted by D. W. Briden 3/3/76 Section Head Date O' Recommended by Jack Evans SRB Chairman 5/18/76 Date QA Approved J.D. Lenardson/JCB 6/3/76 Manager of Quality Assurance Date Approved by Jack Evans 6/4/76 _

Station Superintendent Date Revision SRB No.

QA S ta . S upt ,

Recommendation Date Approved Date Approved Date 2 ' '

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, 1 AD 1827.10.11

1. PURPOSE AND SCOPE 1.1 The purpose of this procedure is to estimate off-site  !

whole body exposure rates from Xenon-133, and thyroid i exposure rates to adults and children from I-131 for accidental, uncontrolled releases.

1.2 Radioactive particulate material is not addressed because protective actions are based on assuming the iodine 4

exposure pathway is critical, and should provide suf-ficient protection from radioactive particulate material.

(Based on information from Section 5.1.2 of EPA-520/1-75-001, Revised 6/79.)

2. REFERENCES -

2.1 NRC Regulatory Guide 1.4, Assumptions Used for Evaluating the Potential Consequences of a Loss of Coolant Accident for Pressurized Water Reactors 2.2 Manual of Protective Action Guides and Protective Actions for Nuclear Incident EPA-520/1-75-001, September 1975

(Revised June 1979) 2.3 Criteria for Preparation and Evaluation of Radiological

g Emergency Response Plans and Preparedness in Support of

! l1 Nuclear Power Plants, NUREG-0654/ FEMA-REP-1, Rev. 1 l 2.4 NRC Regulatory Guide 1.23, Onsite Meteorological Programs i

2.5 The Davis-Besse Nuclear Power Station Emergency Plan and EI 1300 Series, Implementing Procedures 2.6 AD 1827.12, Protective Action Guidelines 2.7 AD 1839.00, Station Operations 2.8 TECo NQAM 2.9 FSAR, Section 17.2 2.10 Admin. Memo 37, ECS Pager and Telephone Numbers 4

11 2.11 NRC Regulatory Guide 1.145, Atmospheric Dispersion Models for Potential Accident Consequence Assessments at Nuclear Power Plants
3. RESPONSIBILITIES

( i l

I In the event of the accidental release of gaseous radioactivity, l

1 _ _ - -- --

2 AD 1827.10.11 the Shift Supervisor shall make an initial evaluation of the situa-tion and classify the emergency in accordance with EP 1202.37, High Airborne Activity.

3.1 For local releases, any calculation of release rates and 11 dose rates should be done under the direction of the Shift Supervisor by:

1. An Administrative Assistant, or
2. Other qualified, available personnel.*
  • The STA may perform release and dose rate calcula-tions if the STA feels that performing such calcula-tions does not' interfere with his primary respon-sibilities of maintaining a broad perspective of the event and consulting with the Shift Supervisor.

Requirements for notification of other persons to deal with these types of releases are found in the EI 1300 series, Emergency Plan Implementing Procedures, and EP 1202.37, High Airborne Activity, and AD 1839.00, Station Operations.

3.2 For conditions that require Emergency Plan implementation, release rates and dose rates should be performed under the direction of the Emergency Duty Officer (EDO). The Shift Supervisor, acting as interim EDO, should designate:

1. An Administrative Assistant, or
2. Other qualified, available personnel,*

11 to perform these calculations. If the Emergency Control Center has been activated, the designated EDO should direct response personnel within the ECC to perform the dose calculations relieving the Shift Supervisor of this responsibility.

  • The STA may perform release and dose rate calculations if the STA feels that performing such calculations does not interfere with his primary responsibilities of maintaining a broad perspective of the event and consulting with the Shift Supervisor.
4. PROCEDURE CAlTfION: This procedure only addresses releases from the 11 Station Vent. For release from the MSSV's, Auxiliary Fced Pump Turbine Exhaust, and Atmospheric Vent Valves, see EP 1202.57.

O m _

l 3 AD 1827.10.11

'~'N 4.1 Complete Data Sheets No. I and No. 2. Instructions for completing the required information are provided on the Data Sheets.

NOTE: If data cannot be obtained from the site meteoro-logical tower, backup data to perform Offsite Dore Calculations may be obtained by calling the agencies listed in Attachment 2,Section IX.6 of Admin. Memo No. 37.

NOTE: A programmable calculator and its printer (located 11 in the Shift Supervisor's Office and Emergency -

Control Center) may be used in place of Data Sheets No. I and 2. See Attachment 1 for instruc-tions.

11 4.2 Use AD 1827.12 Protective Action Guidelines to determine '

the protective actions to be initiated. The EDO should make plume exposure recommendations per this procedure.

4.3 If an evacuation is initiated, it should include an area 22 1/2' to 45' each side of the plume center line (Based on Appendix I from NUREG-0654/ FEMA-REP-1).

4.4 If evaluations or RMT sample results indicate ingestion exposure that exceeds the plume exposure evacuation area, recommendations for further evacuation should be made by

~~-11 the Emergency Operations Manager in accordance with ingestion exposure Protective Action Guidelines given in AD 1827.12.

4.5 Should the NRC request direct contact with the it.dividual performing offsite dose calculations, it is the respon-sibility of the Emergency Duty Officer to ensure that the requesting NRC official is contacted directly by an appropriate cognizant individual. Any available phone could be used for this purpose.

I iL_ _ _____ __. r r _-- '- :- - ..- . _. m- - ~~':~'

~ ~ ~ ~

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l 4 AD 1827.10.11 DATA SHEET No. 1 )

1 Estimated Downwind Whole Body Exposure from Xenon-133 (1.) Record the date Date Time and time (2.) Record Xe-133 activity RE 2024C reading CPM being released from the appropriate meters RE 2025C reading CPM for ,RE 2024C and RE 2025C NOTE: If these readings are off scale, the Xe-133 in the Sta-tion Vent is to be obtained using the Emergency Station Vent sampler described in AD 1850.04.

11 (3.) From Figure 1, record RE 2024C conc'n pCi/cc the corresponding concentration in RE 2025C cone'n pCi/cc pCi/cc (4.) Record the flow rate through the Unit Vent KCFM x 103 = CFM from Computer Point F885 Flow rate N and convert to CFM from F885 (5.) Convert Unit Vent flow CFM (4.72x10d) = cc/sec rate to ec/sec (6.) Calculate the estimated pCi release rate for x cc/sec =

Xe-133 by multiplying From (3.), cc From (5.)

the highest value

- highest EC *'

from (3.) t.imes (5.) value sec (7.) Convert release rate .

(Q) in (6.) to Ci/sec N

  • x (1 x 106 C1pCi) ,

From (6.) see Ci/sec (8.) Record the wind direction (use 612' elev. if avail-able) from the instru- 1 180* =

11 mentation as listed in Wind direction Downwind Table 1. Then add or direction l subtract 180' to obtain j the downwind direction l (this value should not exceed 360')'

(9.) Record the wind speed (use 612' elev. if avail-l 11 able) from the instru-mentation as listed in mph x 0.447 * ""' = m/sec l Table 1. Then convert i7ind *E the wind speed from mph Speed to m/sec O

Page 1 of 3 A

5 AD 1827.10.11 DATA SHEET No. 1 (Continued)

(10.) Determine Stability Class by any of the following Stability Class (a) Read AT from computer point T698 then from Table 2-A, record the Stability Class, or (b) Determine AT by 821'

'F versus 612' *F then from Table 2-A, record the Stability Class, or if not avail-able, 11 (c) Read the Standard *See Attachment 2, Instruc-Deviation of Wind tions for Accessing DEC PDP Direction at the 35 11/03 on G.E. Time Sharing.

meter level (612' ~

elev.) from the PDP 11/03 printout *

(Column SD under 35M) then from Tabic 2-B, record the Stability Class, or, if not available,

\

(d) Read the Standard Deviation of Wind Direction at the 75 meter level (821' elev.) from the PDP 11/03 printout *

(Column SD under 75M) then from Table 2-B, .

record the Stability Class.

(11.) Using Table 3, enter Xp/Q (m 2) for distances of 1, 2, 5,10, and 20 miles for the stability class in (10.), and enter in Column A. (NOTE: Real time X p/Q can be used if known)

(12.) Divide Column A by the windspeed (m/sec) from (9.), and enter in Column B.

(13.) Multiply Column B by the Xe-133 (Ci/sec) from (7.) and enter in 1

Column C, which are the concentrations at 1, 2, 5, 10, and 20 miles downwind.

I (14.) Multiply Column C by 3.3 x 105 to calculate the estimated whole body dose rate from Xe-133 and enter in Column D. (Based on Regulatory Guide 1.109, table B-1) l V

Page 2 of 3

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l 1

6 AD 1827.10.7 DATA SHEET No. 1 (Continued)

Column A Column B Column C Column D Downwind Xp Xp Xe-133 Whole body Distance Q Q (wind speed) concentrations exposure from (miles) (m 2) (sec/m3 ) (pC1/cc) Xe-133 (mR/hr) 1 2

5 10 20 l

O d

O Page 3 of 3

n. _ . _ _ _ . _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ . -

i_

i 7 AD 1827.10.11 DATA SHEET No. 2 j Estimated Downwind Thyroid Dose to Adults and Children from I-131 i

(1.) Record the date and time Date Time

(2.) Record the I-131 activity RE 2024B:

i from RE 2024B and RE 2025B (i) Ist count: time , cpm s

CAUTION: Noble gases can (a) (b)

. make the I-131 (ii) 2nd count: time , cpm appear falsely (c) (d) high. Have C&HP

~ personnel verify the I-131 de-tected. If the i

incident con- (iii) @ = (d4) , ,

tinues, insert min (c-a) j!

silver zeolite t

filters.

1 (i) Record the time and i cpm for RE 2024B and RE 2025B RE 2025B:

(ii) Approximately 10 (i) Ist count: time , cpm minutes later, re- (a) (b) cord the time and (ii) 2nd count: time , cpm

, cpm for RE 2024B (c)

> (d) i and RE 2025B (iii) Subtract cpm in (i) (iii) @ = (d4) , ,

from (ii) and di- min (c-a) vide by the dif-ference in minutes to obtain cpm / min for RE 2024B and RE 2025B 11 (3.) From Figure 2, record RE 2024B conc'n pCi/cc the corresponding concentrat. ion in RE 2025B cone'n pCi/cc pCi/cc (4.) Calculate the estimated pCi release rate for x 4.44x107 cc/sec =

I-131 by multiplying From (3.), "" .

i the highest value highest Y*

from (3.) times 4.44x107 Value sec (S.) Convert release rate . .

l1 (Q) in (4.) to Ci/see

{ x (1 x 10G pC )

  • From (4.) i i

Ci/sec (6.) Same as (8.) on Data i Sheet No. 1 Downwind direction (7.) Same as (9.) on Data m/sec C8 L Sheet No. I wind speed i

Page 1 of 2 l

7 ____ __ _ _ .- -- - - --

8 AD 1827.10.7 DATA SHEET No. 2 (Continued) 7 (8.) Same as (10.) on Data .

Sheet No. 1 Stability Class (9.) Using Table 3 enter Xp/Q (m 2) for distances of 1, 2, 5, 10, and 20 miles for the stability class in (8.), and enter in Column A. (NOTE: Real time X p/Q can be used if known.)

(10.) Divi,de Column A by the windspeed (m/sec) from (7.), and enter in Column B.

(11.) Multiply Column B by the I-131 (Ci/sec) from (5.) and enter in Column C, which are the concentrations at 1, 2, 5,10, and 20 miles downwind.

(12.) Multiply Column C by 1.1 x 10" to determine the estimated adult thyroid dose rate from I-131 in mR/hr and enter in Column D. *

(13.) Multiply Column D by 2 to determine the estimated child thyroid 3 dose rate from I-131 mR/hr and enter in Column E.

The constants used in (12.) and (13.) above have a maximum differ-ence of 120% from time zero to 120 hours0.00139 days <br />0.0333 hours <br />1.984127e-4 weeks <br />4.566e-5 months <br /> after reactor shutdown; this error is acceptable. The actual values are shown in Figure 3 for information.

Column A Column B Column C Column D Column E O

Downwind Xp XU I-131 hdult Child Distance Q Q (wind concen- thyroid thyroid dose speed) trations dose rate rate from from I-131 1-131 (miles) (m 2) (sec/m3 ) (pCi/cc) (mR/hr) (mR/hr) 1 2

5 10 20 Page 2 of 2 o - _ _

9 AD 1827.10.11 i

TABLE 1

, Data Acquisition and Display System at ECC (Date)

(Time) Tower MET TOWER Bailley (Time) 821 ft. - Wind Velocity - 612 ft.

~ '

9.9 gpH N*N N*N N*N MPH 821 ft. - Wind Direction - 612 ft.

99 9 NN'N NN*N DEG DEG W'N 821 ft. - 612 ft. - Temperature - 612 ft.

J 99 op 9.9 9.9 N'N

  • F i

STATION VENT FLOW $9.9 KCFM b

Panel in Control Room i

1

0-100 0-360* -4 to +8 l,

SI996 ZI997 TDI998D l Wind Velocity Wind Direction Temp 612' Elev. 612' Elev. 821'-612' l

Computer Points in Control Room Computer Point Wind Velocity, 612' Elev., in MPH A901 Wind Velocity, 821' Elev., in MPil A902 Wind Direction, 612' Elev., in degrees A900 Wind Direction, 821' Elev., in degrees A903 Temperature, 612' Elev., in *F T699 Temperature, 821' Elev., in *F T697 Temp. Diff., 821'-612', in *F T698 Station Vent Flow, in KCFM F885 lv

. ~ - .--,-,..._n., . . _ . . - . . , . . . _ . . . - ..,,-.--,.n.--.- . ---..

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l l

10 AD 1827.10.11 11 TABLE 2-A i Pasquill Stability Class vs. AT Class AT = 821'*F minus 612'*F A Extremely unstable < -2.2*F B Moderately unstable -2.2*F to -2.0*F C Slightly unstable -2.0*F to -1.8*F D Neutral -1.8*F to -0.6*F E Slightly stable -0.6*F to 1.8*F F Noderately stable 1.8*F to 4.7*F G Extremely stable > 4.7*F (Derived from NRC Regulatory Guide 1.23) 11 TABLE 2-B Classification of Atmospheric Stability by Standard Deviation of Wind Direction Stability Pasquill SD

  • Classification Categories (degrees)

Extremely unstable A SD > 22.5 Moderately unstable B 22.5 > SD > 17.5 Slightly unstable C 17.5 > SD > 12.5 Neutral D 12.5 > SD > 7.5 Slightly stable E 7.5 > SD > 3.8 Moderately stable F 3.8 > SD > 2.1 Extremely stable G 2.1 > SD

  • Standard deviation of horizontal wind direction fluctuation over a period of 15 minutes to I hour.

O

i i

11 AD 1827.10.11 TABLE 3

' d _.

Xp/Q (m 2) for Stability Classes as a Function of Downwind Distances of 1, 2, 5, 10, and 20 miles A B C D E F G 33 6 6 5 5 4 4 . 4 1 1.2x10 5.5x10 2.1x10 7.0x10 1.3x10 3.0x10 4.5x10 7 6 6 .

5 5 4 4 2 . 6.0x10 1.4x10 5.0x10 2.2x10 4.6x10 1.0x10 1.5x10 7 7 6 6 5 5 5 5 2.9x10 3.8x10 1.1x10 6.0x10 2.2x10 3.0x10 4.5x10 7 7 7 6 6 5 5 10 1.7x10 2.1x10 3.2x10 2.0x10 4.7x10 1.1x10 1.65x10 20 9.0x10

~

1.2x10

~

1.7x10 6.8x10

~

2.0x10" 5.1x10 7.65x10 6 4

{ The values for classes A through F were derived from Figure 5-3, Page 5.22 of EPA-520/1-75-001, Revised 6/79. The values assumed an inversion lid at 1000 meters altitude and a ground level release. The values for class G 4

were determined as per Reg. Guide 1.145 guidelines dated August 1979.

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l 12 AD 1827.10.11 ,

FIGURE 1 l Conversion Chart for Noble Gas Releases (RE 2024C and RE 2025 C) i 10

1

~1 '

10 -

s

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10 ,,

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1 m

m /

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f l()~

2 3 4 5 10 10 10 10 y 6 1h7 0

cpm (Copied from the Victoreen Calibration Manual)

l l

13 AD 1827.10.11

.1 FIGURE 2

[

Conversion Chart for Iodine Releases (RE 2024 B and RE 2025 B)

-4 10 10 -5,

! 10

-0 *

~~~~

s

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-7 r 10 ,

/

N

. e l A I - -8 #

10 l

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xe -

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5- -

i

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(10 )in-12 / ,

0.01 0.1 1 10 2 3 4 5 6 10 10 10' (10 ) (10 ) (10 ) cpm / min l

l (Copied from Victorcen CalibraLion Manual)

I

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l 14 AD 1827.10.6 l

l FIGURE 3 Radioiodine Dose Rate Factors for Infant Thyroid Dose Rate vs.

i Time Af ter Reactor Shutdown l

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4 812 16 20 3 3 36 32 40 48 60 72 84 96 108 120 110URS AFTER REACTOR SiluTDOWN The constant 2.2 x 109 has a maximum difference of 20% from time zero to 120 hours0.00139 days <br />0.0333 hours <br />1.984127e-4 weeks <br />4.566e-5 months <br /> after reactor shutdown for the infant thyroid dose rate. This is based on the worst case of radioiodine activities in the fuel core 90 days after irradiation, Regulatory Guide 1.109 and NUREG-0133.

I 15 AD 1827.10.11 0FFSITE DOSE CALCULATIONS USING TI PROGRAMMABLE CALCULATOR A miniprogram for the TI programmable calculator and its printer has been developed to simplify the offsite dose calculations. The program is divided into six sections which are discussed below. Samples of runs of each section are attached; circled items are inputs. Each section performs a different type of calculation, and each can be performed independently with the exception that either the noble gas or iodine release rate calculation must be performed once before any other section is run.

The program is not permanently stored and must be loaded into the cal-culator prior to use.

11 NOTE: The program does not include Table 3 Xp/Q values for stability class G, thus for those instances where a stability class G exists, hand calculations should be performed, however, if time constraints require using the calculator, stability class F should be used.

(The values obtained using F stability class will be approximately 50% low.)

LOADING PROGRAM:

The program is encoded on both sides of two magnetic cards kept with the calculator. Ilandle__these_ cards only_by,the edges. The sides are marked 1-4. To load the program, perform the following steps in order:

C 11 1) Turn on the printer, and then the calculator (printer switch on right side), then press; 1, 2nd, OP, 17 on the calculator, the calculator should display 879.09.

2) Press "1" and "+/ "
3) Feed the end of the magnetic card labeled "1" into the program slot on calculator side - the calculator will automatically feed the
card through the calculator and out the other side pull the card out by the edges.

11 NOTE: If the calculator read the card properly, the (-1) will be shown in the display; if the (-1) is flashing, the card was read improperly. If this occurs, press clear and reenter the card.

4) Press "2" and "+/ "
5) Repeat the feeding process with side 2 of first card
6) Press "3" and "+/ "
7) Repeat the feeding process with side 3 of second card Attachment 1 Page 1 of 9

[

l ll. . _ , _ - . . . . - . . . - - . . - - - - - - - -- - ~~ '

1 g AD 1827.10.11 g) Press "4" and "+/~"

9) Repeat the feeding process with side 4 of second card
10) Proceed by pressing A for noble gas or B' for iodine release rate calculations, either program will print a line of output on the printer which finalizes the program within the calculator.

11 11) Finally, run programs E (see page 5 of 9) and 2nd A'(see page 6 of

9) tp test that each of the main programs will run with fixed data.

These test routines ensure that the program was loaded in the cor-rect sequence into the calculator memory. Compare your printout with the output listed below each of the programs (E and 2nd A').

If an error (an incorrect output line or a flashing display) was encountered during either of the test runs, the user can reload the program (following the above procedure) or if the error continues contact the calculator programmer (Technical Section) for assistance.

11 PROCEDURE:

Once the program has been loaded as stated above, start any of the calculations by pressing the A, B, C, or D buttons (top row of calculator) corresponding to the functions described below:

11 NOTE: To enter data, simply input the values in standard or scientific format, then press "R/S". (If an error is made in the entry, press "CE" and reenter the value.) Also note that the calculator may be used in the normal manual mode without affecting the programming; when manual calculations are complete, to re-initiate a program simply l press the button (s) corresponding to the desired calcula-tion.

A - NOBLE GAS REIIASE RATE This program calculates the noble gas release rates in curies /sec from the stack. As input, it requires the countrate from the noble gas monitors (RE2024C, 2025C) and the stack flow rate in KCFM.

11 FIRST PRESS A N CPM ENTER COUNTRATE IN CPM FROM RE2024C OR 2025C, THEN PRESS R/S 5.52 06 ENTER STACK FLOW RATE IN KCFM FROM COMPUTER S FLO KCFM POINT F885, TIIEN PRESS R/S 98.

6.383328 00 C/SC OUTPUT IS IN CURIES /SEC Attachment 1 O

Page 2 of 9

17 AD 1827.10.11 B - IODINE RELEASE RATE This program calculates the iodine release rate in curies /sec from the stack. As input, it requires the countrate from the iodine monitors RE2024B, 2025B) at two different times and the time span between the i readings.

11 FIRST PRESS B  !

I CPM ENTER TE INITIAL COUNTRATE FROM RE2024B OR 20'. 2025B, THEN PRESS R/S T MIN ENTER TE TIME SPAN BETWEEN READINGS, TEN

10. PRESS R/S I CPM ENTER TE FINAL COUNTRATE FLOW RE2024B OR 2025B, 4.56 '06 TEN PRESS R/S 1.9243116-03 C/SC OUTPUT IS IN CURIES /SEC C - PREDICTED OFFSITE DOSE RATES - NOBLE GAS This program calculates the whole body dose rates due to noble gases at various distances from the station. Required inputs are wind speed, stability class, and noble gas release rate.

O i h Note that stability class input is numerical with A=1, B=2, C=3, D=4, E=5, F=6.

11 FIRST PRESS C WND SP MPH ENTER THE WIND SPEED IN MILES PER HOUR, TilEN

12. PRESS R/S STBCL ENTER THE STABILITY CLASS (NUMERICAL VALUE),
5. TilEN PRESS R/S C/SEC ENTER THE NOBLE GAS RELEASE RATE IN CURIES /SEC, 6.38 TEN PRESS R/S 5.364 M/SC THIS OUTPUT IS WIND SPEED IN METERS /SEC PREDICTED NOBLE GAS CONCENTRATION AT 1 MILE IN 1.5462342-04 UC/C pCi/cc WBOR=

Wil0LE BODY DOSE RATE AT 1 MILE IN MILLIREM / HOUR 5.1025727 00 HR/Il O

V Attachment 1 Page 3 of 9 i

b . _

- - - - - - ~ ~ - ~

. l l

18 AD 1827.10.11 5.4712901-05 UC/C WEDR= SAME AS ABOVE 2 MILES 1.8055257 00 MR/H 2.616704-05 UC/C WBDR= SAME AS ABOVE AT 5 MILES 8.635123-01 MR/H 5.5902312-06 UC/C WBDR= SAME AS AB0VE AT 10 MILES 1.8447763'01 MR/H 2.3788218-06 UC/C WBDR= SAME AS ABOVE AT 20 MILES 7.8501119-02 MR/H D - PREDICTED OFFSITE DOSE RATES - IODINE This program calculates the adult and child thyroid dose rates due to iodine at various distances from the plant. Required inputs are wind speed, stability class, and iodine release rate.

Note that stability class input is numerical with A=1, B=2, C=3, D=4, E=5, F=6.

1I FIRST PRESS D WND SP MPH ENTER WIND SPEED IN MILES PER HOUR, THEN PRESS

12. R/S STBCL ENTER STABILITY CLASS (NUMERICAL VALUE), TIIEN
5. PRESS R/S C/SEC ENTER IODINE RELEASE RATE IN CURIES /SEC, THEN

, 1.92-03 PRESS R/S 5.364 M/SC TilIS OUTPUT IS WIND SPEED IN METERS /SEC 4.6532438-08 UC/C ATDR= IODINE CONCENTRATION AT 1 MILE IN pCi/cc 5.1185682 01 MR/H CTDR=

ADULT THYROID DOSE RATE IN MR/HR AT 1 MILE 1.0237136 02 MR/II CHILD Tl!YROID DOSE RATE IN MR/HR AT 1 MILE l

l O

Attachment 1 Page 4 of 9 n

l t-l 19 AD 1827.10.11 1

1.6465324-08 UC/C -

ATDR=

i 1.8111857 01 MR/H SAME AS ABOVE AT 2 MILES

! CTDR=

3.6223714 01 MR/H 7.8747204-09 .UC/C ATDR=

8.6621924 00 MR/H SAME AS AB0VE AT 5 MILES l CTDR= .

1.7324385 01 MR/H l

1.6823266-09 UC/C ATDR=

1.8505593 00 MR/H SAME AS ABOVE AT 10 MILES CTDR=

3.7011186 00 MR/H 7.1588367-10 UC/C ATDR=

7.8747204-01 MR/H SAME AS ABOVE AT 20 MILES CTDR=

1.5749441 00 MR/H E - TEST ROUTINE C - THE PREDICTED OFFSITE DOSE RATES - NOBLE GAS

/ This program calculates the whole body dose rates due to noble gases at various distances from the station. The calculator will generate the input from this test run of routine C, so no additional input is needed.

Compare your output with the printout listed below' .

TEST C=N G <

TEST ROUTINE C l 11 PRESS E WND SP MPil Ti!E WIND SPEED IN MILES PER HOUR 1.

STBCL THE STABILITY CLASS E=5 (NUMERIC VALUE) 5.

C/SEC THE NOBLE GAS RELEASE RATE IN CURIES /SEC 1.

0.447 M/SC TilIS OUTPUT IS WIND SPEED IN METERS /SEC 2.9082774-04 UC/C PREDICTED NOBLE CAS CONCENTRATION AT 1 HILE IN WBDR= pCi/cc 9.5973154 00 MR/H Wil0LE BODY DOSE RATE AT 1 MILE IN MILLIREM /liOUR

\.

l Attachment 1 Page 5 of 9

20 AD 1827.10.11 1.0290828-04 UC/C WBDR= SAME AS ABOVE AT 2 MILES 3.3959732 00 HR/H 4.9217002-05 UC/C WBDR= SAME AS ABOVE AT 5 MILES 1.6241611 00 MR/H

~

1.0514541-05 UC/C WBDR= SAME AS ABOVE AT 10 MILES 3.4697987-01  !!R/H 4.4742729-06 UC/C WBDR= SAME AS AB0VE AT 20 MILES 1.4765101-01 MR/H 2nd, A' - TEST ROUTINE D - THE PREDICTED OFFSITE DOSE RATES - IODINE This program calculates the adult and child thyroid dose rates due to iodine at various distances from the. plant. The calculator will generate the input. for t.his test run of routine D, so no additional input is needed. Compare your output with the printout listed below.

TEST D = IDN TEST ROUTINE D 11 PRESS 2nd, A' WND SP MPH

1. THE WIND SPEED IN MILES PER HOUR STBCL
6. THE STABILITY CLASS F=6 (NUMERIC VALUE)

C/SEC

1. Ti!E IODINE RELEASE RATE IN CURIES /SEC 0.447 M/SC THIS OUTPUT IS WIND SPEED IN METERS /SEC 6.7114094-04 UC/C IODINE CONCENTRATION AT 1 MILE IN pCi/cc ATDR=

7.3825503 05 MR/H ADULT THYROID DOSE RATE IN HR/HR AT 1 MILE CTDR=

1.4765101 06 MR/it Cl!ILD TliYROID DOS $ RATE IN MR/HR AT 1 MILE 2.2371365-04 UC/C ATDR=

2.46011501 05 MR/II SAME AS A110VE AT 2 MILES CTI)R=

4.9217002 05 MR/Il O

Attachment 1 Page 6 of 9 w.

21 AD 1827.10.11

.6.7114094-05 UC/C .

ATDR= l 7.3825503 04 MR/H SAME AS ABOVE AT 5 MILES  ;

CTDR= l 1.4765101 05- MR/H

! 2.4608501-05 UC/C l ATDR=

2.7069351 04 MR/H SAME AS ABOVE AT 10 MILES

. CTDR= .

5.4138702'04 MR/H l 1.1409396-05 UC/C ATDR=

1.2550336 04 MR/H SAME AS ABOVE AT 20 MILES

.CTDR=

2.5100671 04 MR/H 2

i 1

l

-l 1,

t 1

, Attachment 1 Page 7 of 9 f

l . - .

..e_-- ~ ~ - _ - - ~ __ _

='w;""'""'f__'__

  • ~.."~_.,,~l~".~,~

'I : ,~ _----,$-?.-

  • l 22 AD 1827.10.11 11 CONDENSED INSTRUCTIONS FOR PERFORMING TI PROGRAMMABLE CALCULATOR DOSE CALCULATIONS LOAD:

1

1) Turn on printer and calculator, then press; 1, 2nd, OP,17 on the calculator, the calculator should display 879.09.
2) Press "1" and "+/ ", load side 1 NOTE: If the calculator read the card properly, the (-1) will be shown in the display.
3) Repeat step 2, pressing the corresponding number for side 2, 3, and 4
4) Press either "A" or "B"; then press "E" and then "2nd A'" below, to test the program of errors (compare your printout with the one listed with this procedure).

PRESS "A" FOR NOBLE GAS RELEASE RATE 11 Enter: Countrate from RK2024C or 2025C, Press R/S Enter: Stack flow in KCFM, Press R/S Output: Noble gas release rate in curies /sec PRESS "B" FOR IODINE RELEASE RATE 11 Enter: Initial countrate from RE2024B or 2025B, Press R/S Enter: Time bcLween readings, Press R/S Enter: Final countrate from RE20248 or 20258, Press R/S Output: lodine release rate in curies /sec PRESS "C" FOR Wi!0LE BODY DOSE RATES FROM NOBLE CASES 11 Enter: Wind speed in miles per hour, Press R/S Enter: Stability class *, Press R/S Enter: Release rate in curies /sec, Press R/S Output: Wind speed in meters /sec Output: Noble gas concentration in pCi/cc and whole body dose rate in mr/hr at 1, 2, 5, 10, and 20 miles PRESS "D" FOR TilYROID DOSE RATES FROM IODINE 11 Enter: Wind speed in miles per hour, Press R/S Enter: Stability class *, Press R/S l Enter: Release rate in curies /sec, Press R/S Output: Wind speed in meters /sec Output: Iodine concentration in pCi/cc, adult thyroid dose' rate in mr/hr and child thyroid dose rate in mr/hr at 1, 2, 5,10, and 20 miles 1

1

  • Use numerical value for stability class: A=1, B=2, C=3, D=4, E=5, F=6 Attachment 1 Page 8 of 9

23 AD 1827.10.11 1

PRESS "E" TO TEST "C" FOR WHOII BODY DOSE RATES FROM NOBLE GASES Enter: No Data Input is needed 11l Output: Whole body dose rate in ar/hr, compare with data on page 5 of 9 PRESS "2nd, A'" TO TEST "D" FOR THYROID DOSE RATES FROM IODINE Enter: No Data Input is needed 11 Output: Adult and child thyroid dose rates, both in ar/hr, compare with data on page 6 of 9 f

i Attachment 1 Page 9 of 9

! B- - _ - _ _ . - . . . _ ._ _. . _ _ _ . , _ _ _ , _ _ _ , _ _ , , , _ , _ _ . _ , , , _ , , , _ , , , _ , , _ , , , . , , , , ,,

24 AD 1827.10.11 ,

Instructions For Accessing DEC PDP 11/03 For Meterological Data

1. Turn phone accessed data terminal on.
2. Ensure unit is in ready mode (Press the LOCAL / TALK button on Model 43 terminal).
3. Check three options:

a) PARITY - off b) DUPLEX - full c) BAUD - 300 or 30 CPS

4. Dial phone number 898-6240 (Oak Harbor). When the frequency tone is heard, press the DATA button on Model 43 terminal or insert receiver into the acoustic coupler on other models.
5. Correspondence between Computer and Terminal Operator:
a. Computer will type: WHO ARE YOU?
b. Type in: t (an up arrow)
c. Computer will type: II = HR, M = MIN, C = CAL
d. Type in: H, M, or C (Type only one for either hourly, minute or cal-ibration check)

Type "11" to request data, by hourly intervals, for the date specified.

Type "M" to request data, by 15 minute intervals, for the date specified.

Type "C" to request calibration check (not normally used)

e. Computer will type: ACCESSED COMPUTER.

TYPE JULIAN DATE REQ.

f. Type in: Three digit Julian date (e.g.

001, 072, 365)

g. Computer will print TRANSMISSION COMPLETE.

out data requested and ALL DONE7...Y or N then type:

O Attachment 2 Page 1 of 3 1

n 25 AD 1827.10.11

h. Type in: N (if more data is needed, then proceed through steps c g again),

or l

l 1

i. Type in: Y (if no further data is needed) l J. Computer will type: TERMINATING COMMUNICATION.,

GOOD DAY

k. , Hang up the phone and turn the terminal off, as required.'

l Attachment 2 Page 2 of 3 8

= = - _ . = _ = = = = - _ , -

26 AD 1827.10.11 .

Sample Output of Meteorological Data (While Accessing DEC PDP 11/03)

For Technical Specification 4.3.3.4 Elev 821' wind speed ~

Elev 821' wind direction Elev 612' wind speed VY Elev 612' wind direction YY Elev 821'-612' temperature differential i

REV2 <--100M- I><---75M---><---10M---><100H)<75M><-TEMPERATURE->< PRE ><SSSDDADS HR:HH US UD SD US UD SD US UD SD DT DT AnB 100DU 10DU CIP DDDFFPUM 1: 27.7 2. 24.4 3. 13.J 7. 0.1 30.6 15.4 1 0 195. 202. 196. 0.0 11.7 0.00 1 0 2: 26.8 2. 23.4 2. 12.6 7. 0.3 31.0 17.0 1 0 199. 204. 194. 0.0 13.4 0.00 1 0 3: 25.3 2. 21.7 2. 10.4 7. 2.0 31.7 18.9 1 0 210. 213. 196. 1.1 15.5 0.00 1 0 4: 27.6 3. 24.4 3. 13.9 6. 0.5 35.8 19.7 1 0 220. 227. 215. 0.4 17.5 0.00 1 0 5: 31.0 3. 27.9 3. 17.5 6. -0.1 37.1 20.7 1 0 221. 228. 216. -0.0 19.5 0.00 1 0 6: 32.2 3. 29.2 3. 18.5 5. -0.3 37.6 23.4 1 0 222. 230. 219. -0.1 22.5 0.00 1 0 7: 34.3 3. 31.5 3. 22.9 4. -0.7 37.9 26.3 1 0 230. 238. 227. -0.5 25.8 0.00 1 0 8: 31.6 3. 29.0 3. 20.7 4. -0.4 36.4 28.2 1 0 236, 245. 235. -0.1 28.0 0.00 1 0 9: 31.3 3. 29.0 3. 21.2 4. -0.5 35.3 28.8 1 0 241, 250. 239. -0.3 28.6 0.00 1 0 10: 29.2 4. 27.4 4. 20.5 5. -1.1 35.2 29.1 1 0 256. 265. 255. -0.8 28.7 0.00 1 0 11: 27.2 3. 25.6 4. 19.2 5. -1.2 35.0 29.1 1 0 256. 264. 254. -0.8 28.7 0.00 1 0 12: 28.0 4. 26.7 4. 21.1 4. -1.2 34.2 29.1 l' 0 248. 257. 246. -0.9 28.6 0.00 1 0 LEGEND l HR:MN hour, minute (Eastern Standard NOTE: Data for PDP 11/03 is l Time) read from the Met Tower 100M 100M elev (917') and stored for three 75N 75N elev (821') days only. If Met Tower ION ION elev (612') is down, only previous l

WS wind speed (MPil) information can be l WD wind direction (degrees) accessed.

SD standard deviation

  • DT differential temperature F amb ambient dry bulb temperature *F l DW dewpoint temperaturc *F l precip precipitation Attachment 2 END Page 3 of 3

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