ML17346A670

From kanterella
Jump to navigation Jump to search
Offsite Dose Calculation Manual for Gaseous & Liquid Effluents
ML17346A670
Person / Time
Site: Turkey Point  NextEra Energy icon.png
Issue date: 12/31/1984
From:
FLORIDA POWER & LIGHT CO.
To:
Shared Package
ML17346A669 List:
References
PROC-841231, NUDOCS 8412260242
Download: ML17346A670 (200)


Text

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENTS FROM THE TURKEY POINT PLANT UNITS 3 AND 0 Florida Power and Light Company December 1930 84i2260242 84i220 PDR ADOCK 05000250 P

PDR C6:1

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 1.0 Introduction 2.0 Liquid Effluent 2.1 Radioactivity Concentration In Liquid Waste 2.2 Radioactivity Concentration in Water at the Restricted Area Boundary 2.2.1 Aqueous Concentration 2.2.2 Batch Release 2.2.3 Continuous Release 2.3 2.0 2.5 Cumulative Dose Method of Establishing Alarm and Trip Setpoints 2.0.1 Setpoint for a Batch Release 2.0.2 Setpoint for a Continuous Release Projected Dose Figure 2.1 Liquid Effluent Systems 3.0 Gaseous Effluent 3.1 3.2 3.3 3.0 3.5 3.6 3.7 Introduction Radioactivity in Gaseous Effluent Dose Rate Due to Gaseous Effluent 3.3.1 Total Body Dose Rate 3.3.2 Skin Dose Rate 3.3.3 H-3, I-131, I-133, and Particulate Dose Rate Dose - Noble Gases 3.0.1 Noble Gas Gamma Radiation Dose 3.0.2 Noble Gas Beta Radiation Dose Dose Due to Iodine, Tritium, and Particulates in Gaseous Effluents 3.5.1 Determining the Quantity of Iodine, Tritium, and Particulates 3.5.2 Calculating the Dose Due to Iodine, Tritium and Particulates Effluent Noble Gas Monitor Alarm Setpoint 3.6.1 Setpoint Based on Dose Rate 3.6.2 Setpoint Based on Concentration Projected Dose for Gaseous Effluents Figure 3.1 Gaseous Effluent Systems Figure 3.2 Locations at Which Doses Due to Airborne Effluents from the Turkey Point Plant are Calculated

'2 2

2 2

3 5

6 7

7 8

9 10 10 10 11 12 12 13 10 15 16 17 17 18 21 22 23 20 25 26 C6:1 REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 0.3.1 0.3.2 Gamma Dose to Total Body Dose to Skin t

0.0 Dose Commitment from Releases over Extended Time 0.1 Releases during 12 Months 0.2 Environmental Measurements 0.3 Dose to a Person from Noble Gases 27 27 28 28 28 29 Appendix A Pathway-Dose Transfer Factors B

Deleted C

Deleted D

Technical Bases for Aeff E

Radiological Environmental Surveillances Turkey Point Plant Key to Sample Locations Table A-1 D-l E-1 3-1 3-2 3-3 3-5 3-7 Atmospheric Gaseous Release Points at the Turkey Point Units 3 and 0 Distribution of Radioactive Noble Gases in Gaseous Effluent from Turkey Point Units 3 and 0 Transfer Factors for Maximum Offsite Air Dose Transfer Factors for Maximum Dose to a Person Offsite Due to Radioactive Noble Gases

. Dose Conversion Factors for Deriving Radioactive Noble Gas Effluent Monitor S et points 4

Reference Meteorology:

Annual Average Atmospheric Dispersion Factors Reference Meteorology:

Deposition Depleted Annual Average Atmospheric Dispersion Factors Reference Meteorology:

Annual Averaged Relative Deposition Rate REV.1: 12/19/84 C6:I

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 1.0 Introduction

~

~

This Manual describes acceptable methods of calculating radioactivity concentrations in the environment and the potential resultant doses+ offsite~+ that are associated with liquid and gaseous effluents from the Turkey Point Nuclear Plant.

The radioactivity concentrations and dose estimates are used to demonstrate compliance with Technical Specifications required by 10 CFR 50.36.

The methodology stated in this Manual is acceptable for use in demonstrating operational compliance with 10 CFR 20.106, 10 CFR 50 Appendix I, and 00 CFR 190.

Only the dose attributable to the Turkey Point Units 3 and 0 is considered in demonstrating compliance with 00 CFR 190 since no other nuclear facility exists within 50 miles of the Plant.

Monthly calculations are made to guide the management of station effluents and to verify that potential radioactivity concentrations and doses offsite satisfy the Technical Specifications.

The receptor is described such that the exposure of any resident near the plant is unlikely to be underestimated.

Even more conservative conditions (e.g. location and/or exposure pathways expected to yield higher computed doses) than appropriate for the maximally exposed person may be assumed when calculating the concentration or dose.

Monthly calculations made to assure that air dose and dose commitment specifications are not exceeded are based on atmospheric dispersion and deposition of gaseous effluents derived from reference meteorological conditions.+++

Calculations made to assess the radioactive noble gas dose to air are based on the location offsite that could be occupied by a person where the maximum air dose is expected.

Calculations of dose committed from radioactive releases over extended time (3 and 12 months) are also made for the purpose of verifying compliance with regulatory limits on offsite dose.

For these calculations the receptor is selected on the basis of the combination of applicable exposure pathways identified in the land use census and the maximum ground level X/Q at a residence, or on the basis of more conservative conditions such that the dose to any resident near the Plant is unlikely to be underestimated.

+ Dose is commonly used to mean personal dose equivalent commitment.

~+ Offsite means outside the exclusion area.

++~ Reference meteorological conditions are annual averaged conditions during years 1976 and 1977.

C6:1

OFFSITE DOSE CALCULATIONMANUAL FOR, GASEOUS AND LIQUIDEFFLUENT 2.1 Radioactivi Concentration In Li id Waste The concentration of radionuclides in liquid waste is determined by sampling and analysis in accordance with Table 3.9-1 of the Technical Specifications.

EVhen a radionuclide concentration is below the lower limit of detection (LLD) for the analysis, it is not reported as being present in the sample.

2.2 Radioactivi Concentration in Water at the Restricted Area Bounda Technical Specification 3.9.1.a requires that the concentration of radioactive material, other than noble gases, in liquid effluent released into an unrestricted area not exceed the concentration specified in 10CFR Part 20, Appendix 8, Table 2, Column 2.

A maximum concentration,.2 x 10<pCi/ml, of noble gas in aqueous releases into an unrestricted area applies separately since the potential exposure

route, immersion in water, differs from that upon which Part 20, Appendix 8 is based.

Radioactive material in liquid effluent is diluted by condenser cooling water from fossil units 1 and 2 and from nuclear units 3 and 0 in the condenser cooling water mixing basin.

Water in the basin flows into a closed cooling canal system onsite.

Liquid effluent does not actually leave the site in a surface discharge.

For the purpose of compliance with Technical Specification 3.9.1.a, the total condenser cooling water flow from operating condenser cooling water pumps at the four units is assumed for dilution and the restricted area boundary is assumed to be at the end of the condenser cooling water mixing ba'sin where water enters the cooling canal system.

Some liquid effluents from both Units 3 and 0, discharge through a common liquid radwaste release point.

To assure that the effluents are within allowable limits per reactor, the measured releases from the common release point are apportioned to each unit on a ratio equal to the ratio of specific isotopic concentrations in the primary coolant in the two reactors.

Sections 2.2.2 and 2.2.3 describe methods used to assess compliance with Technical Specification 3.9.1.a.

Effluent monitor alarm/trip setpoints are computed on the same

basis, as is described in section 2.0.

As long as an alarm/trip setpoint is not exceeded, aqueous effluents are deemed to comply with Technical Specification 3.9.1.a.

2.2.1

~

A ueous Concentration The diluted concentration of radionuclide i in the condenser cooling water mixing basin outflow is estimated with the equation C6:1

0

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT where:

Czi

= concentration of radionuclide i in the water in the condenser cooling water mixing basin, outflow (pCi/ml)

C; = concentration of radionuclide i in liquid radwaste released (pCi/ml)

Fl/F2

= dilution Fl

= flow in radioactive liquid discharge line (gal/min)>>

F2

= total condenser cooling water flow (gal/min).+ Value not greater than the rated total condenser cooling water flow from operating condenser cooling water pumps at the four units.

2.2.2 Batch Release A sample of each batch of liquid radwaste is analyzed before release for I-131 and other principal gamma emitters, or for total gross 9-y activity concentration.

iVith the activity concentration in a batch sample b

based on the total isotopic activity or gross B-y activity, the fraction of the unrestricted area MPC due to a batch release is estimated by (2)

FMPCb

= 3x108 where:

FMPCb

= fraction of the unrestricted area MPC present in the condenser cooling water mixing basin outflow due to a batch release Cb

=

Czi (pCi/mi) 3 x 10+

= unrestricted area MPC for unidentified radionuclides in water (pCi/ml)

Alternately, the fraction of the unrestricted area MPC can be derived using the ratio of the individual isotopic concentrations and their related MPCs.

FMPCb is estimated with the equation

<zx NF0x l.

Eb (3)

+ Fl and F2 may have any suitable but identical units of flow (volume/time).

C6:1 OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT where:

MPCI = activity concentration limitin water of radionuclide i according to 10 CFR 20, Appendix 8,

Table 2,

Column 2 (pCi/mo Quarterly average of the fraction of MPC in the batch tank due to I-131 and rinci al amma emitters Quarterly average of the fraction of MPC in the batch tank due to all radionuclides measured Eb is an adjustment to account for radionuclides not measured prior to release but measured in the monthly and quarterly sample per Technical Specification Table 3.9-1.

The value of Eb has been determined based on past operating data and is 0.8 2.2.3 Continuous Release Continuous aqueous discharges are sampled and analyzed according to the schedule in Technical Specifications Table 3.9-1.

The fraction of the unrestricted area VIPC present in a continuously discharged radioactive

stream, FMPCc, is derived either from isotopic analyses or from gross B-y analysis.

'Vith the activity concentration in a

continuous radioactive release stream based on the total isotopic or gross B-y activity alone, the fraction of the unrestricted area MPC due to a continuous release is estimated with where:

Cc FMPCc =

3 x ]0 FMPCc

fraction of the unrestricted area MPC present in the condenser cooling water mixing basin outflow due to a continuous release Cc

Czi (pCi/mo Alternately, the fraction of the unrestricted area MPC can be derived using the ratio of the individual isotopic concentrations and their related MPCs.

FMPCc is estimated with the equation FMPCc =

Ec

<zx.

MPCi I.

(5)

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT where:

Quarterly average fraction of MPC due to I-131 and principal gamma emitters measured in weekly sam les of continuous releases durin the uarter Quarterly average fraction of MPC due to all radionuclides measured in samples of continuous releases Ec is an adjustment to account for radionuclides not measured in weekly samples of continuous releases but measured in the monthly and quarterly composite samples per Technical Specifications Table 3.9-1.

The value of Ec has been determined based on past operating data and is Ec

= 0.9 2.3 Cumulative Dose Technical Specification 3.9.1.b requires that the dose or dose commitment per reactor to a member of the public due to radioactive material released in liquid effluent to an unrestricted area shall be limited, during any calendar quarter, to

<1.5 mrem to the total body and to <5 mrem to any organ,

and, during any calendar year, to <3 mrem to the total body and <10 mrem to any organ.

Technical Specification 3.9.l.b.l requires the dose or dose commitment to a member of the public due to radioactive material released in liquid effluent to be calculated on a cumulative basis at least once per month.

The condenser cooling water basin and closed canal system which receives aqueous effluent is entirely on FP and L property, without surface discharge offsite, and FP and L does not permit members of the public to use the water.

As a result, potential exposure of a member of the public to radioactive material originating in aqueous effluent is limited to irradiation of campers by canal shoreline deposits.

Technical Specification 3.9.l.b.l is satisfied by calculating the cumulative total body dose to a person who may be irradiated by radionuclides deposited on the cooling canal shoreline from radioactive liquid effluent.

Compliance with the organ dose limitis assured as long as the total body dose is below its limit.

The model that is used to evaluate doses due to radioactivity in liquid effluents is 0

P3 Q ++shore 1inc Cik '

1k v

~ I,'-

l.

(6) where:

D = total body dose due to irradiation by radionuclides on the shoreline which originated in a liquid effluent release (mrem) 1 Ci x 60 minx 3785 ml 0.23

= units conversion constant

=

106 pCi hr gal C6:1

1

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT AI = transfer factor relating a

unit aqueous concentration of radionuclide i (liCi) to dose commitment rate to the total body of an exposed person tabulated in Appendix A

(m rem/Ci

~ min/gal)

I Cik = the concentration of radionuclide i in the undiluted liquid waste to be discharged that is represented by sample k

(iiCi/ml)

Flk = liquid waste discharge flow during release represented by sample k (gal/min)

V = cooling canal effective

volume, approximately 3.75 x

109 gallons p= effective decay constant (minute

1) for nuclide i = (Q + F3/V) where:

g

= the radioactive decay constant F3

= canal-ground water interchange

flow, approximately 2.25 x 105 gal/min

= period of time (hours) during which liquid waste represented by sample k is discharged Radionuclide concentrations (Cik) in effluent are measured by the sampling and analysis program specified in Technical Specification Table 3.9-1.

Typically, more than 90 percent of the potential irradiation from radionuclides deposited along the shoreline is due to Mn-50, Co-58, Co-60, Cs-130, and Cs-137.

Of these radionuclides, Co-60 has the maximum dose transfer factor, Ai.

Thus, for the purpose of assessing compliance with Technical Specification 3.9.1.b.l, the radioactive effluent source term may be either:

a) principal gamma emitters measured by the effluent sampling and analysis program, or I

b)

Mn-50, Co-58, Co-60, Cs-130, and Cs-137 measured by the effluent sampling and analysis program and other identified gamma emitters assumed to be Co-60, or c) all gamma emitters measured by the effluent sampling and analysis program assumed to be Co-60.

2.0 Method of Establishin Alarm and Tri Set pints Technical Specification 3.9.1.c requires the radioactive liquid effluent monitoring instrumentation channel to be operable with its alarm/trip setpoints

'set to ensure the limitof Specification 3.9.1.a is not exceeded.

The alarm/trip setpoint for each liquid effluent radiation monitor is derived from the concentration limit provided in 10 CFR Part 20, Appendix B, Table 2,

Column 2

applied in the condenser cooling water mixing basin outflow.

Radiation monitoring and isolation points are located in the steam generator blowdown lines, R-3-19, R-0-19, and the liquid waste disposal system line, R-18, through which radioactive waste effluent is eventually discharged into the canal basin.

See Figure 2-1.

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT The alarm setpoint for each liquid effluent monitor is based upon the measurements of radioactivity in a batch of liquid to be released or in the.

continuous aqueous discharge.

~ Sample measurements are performed according to Technical Specification Table 3.9-1.

2.0.1 Set int for a Batch Release The liquid radwaste effluent line radiation monitor alarm setpoint for a batch release is determined with the equation below or a method which gives a lower setpoint value.

where:

Sb Sb

+ BkS FMPCb Sb

= radiation monitor alarm setpoint (cpm) for a batch release Ab = laboratory counting rate (cpm/ml) or activity concentration (pCi/ml) of sample from batch tank (7)

FMPCb

= fraction of unrestricted area MPC present in the condenser cooling water mixing basin outflow due to a batch release; determined in section 2.2.2.

gb

= ratio of effluent radiation monitor counting rate to laboratory counting rate or activity concentration in a given batch sample (cpm per cpm/ml or cpm per pCi/ml)

Bkg

= background (cpm) 2.0.2 Set int for a'Continuous Release The liquid effluent line radiation monitor alarm

setpoint, for a

continuous

release, is determined with the equation below or by a method which gives a lower setpoint value.

where:

Sc

=

g

= g

+ Bkg c

FMPCc c

radiation monitor alarm setpoint (cpm) for a

continuous release P

laboratory counting rate (cpm/ml) or activity concen-tration (pCi/ml) of sample from continuous release FMPCc = fraction of unrestricted area MPC present in the condenser cooling water mixing basin outflow due to a continuous release; determined in section 2.2.3.

ratio of effluent radiation monitor counting rate to laboratory counting rate or activity concentration in a given continuous release sample (cpm per cpm/ml or cpm per pCi/ml)

C6:l REV.1: 12/19/84

0

I OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT Technical Specification 3.9.1.d requires that appropriate subsystems of the liquid radwaste treatment system shall be used to reduce the radioactive materials in liquid wastes prior to their discharge when the projected doses to unrestricted areas due to liquid effluents, when averaged monthly, would exceed 0.06 mrem to the total body or 0.2 mrem to any organ.

Technical Specification 3.9.1.d.l requires the doses, to unrestricted areas, due to radioactive material released in liquid effluent to be projected at least once per month unless the liquid radwaste treatment system is being used.

This requirement is satisfied by extrapolating the dose to date during the current month to'include the entire month.

The dose to date is calculated as described in section 2.3.

The dose is projected with the relation:

p 31'D X

(9) where:

P

= the projected total body dose during the month (mrem) 31

= number of days in a calendar month (days)

X = number of days in current month to date represented by available radioactive effluent sample (days)

D = dose to date during current month calculated according to section 2.3 (mrem)

Alternatively, the monthly dose may be projected by computing the doses to the total body and most exposed organ accumulated during the most recent month and assuming the result represents the projected doses for the current month.

The dose during the preceeding month will be computed as described in section 2.3.

C6:1 REV. 1: 12/19/84

4

Turbines on ensers Generato Steam Primary oop Unit 3 Reactor Unit 4

.Reactor Primary Oop Steam Generator Turbines Condensers 0

EO C\\

lD I

XlC CL Vent to Atmosphere Blowdown Blowdown flash tank CVCS 3

Reactor Coolant Drain Tank Reactor Coolant Drain Tank Makeup water and chemicals CVCS 4

B LOWDOWN Blowdown flash tank Vent to Atmosphere R-4-19 Pl I

C Pt R-3-19 Spe"nt Fuel Pits Holdup Tanks Boric Acid Waste Holdup Tanks Chemical Laboratory Containment Sumps Floor Drains Laundry S Showers Intake Canal Laundry Water Monitor Tanks Boric Acid Recovery System Evaporator Bottoms Concentrates Holding Tank Solid Waste Drumming Facility Demineralizer System Intake Canal R-18 Discharge Canal Waste Monitor Tanks Shipment Off-site Discharge Canal

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.1 Introduction Units 3 and 0 discharge gaseous effluent through the plant vent, Unit 3 Spent Fuel Pit vent and air ejector vents.

These gaseous effluent

streams, radioactivity monitoring points, and effluent discharge points are illustrated schematically in Figure 3-1.

When calculating atmospheric dispersion of gaseous effluent, gaseous discharges from Units 3 and 0 are treated as a mixed mode ground-level release from a sin'gle composite vent.

3.2 Radioactivi in Gaseous Effluent For the purpose of estimating offsite radionuclide concentrations and radiation

doses, measured radionuclide concentrations in gaseous effluents from the Plant are relied upon.

Table 3.9-3 in'the Technical Specifications identifies specific radionuclides in gaseous discharges for which sampling and analysis is done.

In addition, the quantity of radioactive noble gas discharged during an interval of time and not accounted for by the above samples may be determined by integrating the release rate measurement of each effluent noble gas monitor identified in Figure 3-1. The total measured radioactivity discharged via a stack or vent during a counting interval is determined by the relation N

Q 3.53 x 10 5

~ h (10) where:

Qj = total measured gaseous radioactivity release via a stack or vent during counting interval j (pCi)

I, Nj = counts accumulated during counting interval j (counts)

F = discharge rate of gaseous effluent stream (ft3/min) 3.53 x 10-5

= conversion constant (ft3/cm3) h

= effluent noble gas monitor calibration or counting rate response for noble gas gamma radiation,

~cm pCi/cm3 The distribution of radioactive noble gases in a gaseous effluent stream is determined by gamma spectrum analysis of gas samples from that stream.

~

Results of previous analyses may be averaged to obtain a

representative distribution.

In the event the radioactive noble gas distribution is not obtainable from sample(s) taken during the current period the distribution will be obtained from recently available data or from Table 3-2.

C6:1 REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT Iffl represents the fraction of radionuclide i in a given effluent stream, based on the isotopic distribution of that stream, then the quantity of radionuclide i.

released in a

given gaseous effluent stream during counting interval j is estimated by the relation where:

Qij = quantity of radionuclide i released in a given gaseous effluent stream during counting interval j (pCi) fi = the fraction of radionuclide i released in a given effluent stream Some gaseous effluents from both Units 3 and 0, whose sources are identified in Table 3-2, discharge in common through the Plant Vent.

To assure that the effluents are within allowable limits per reactor, the measured release from the Plant Vent is apportioned to each unit on a ratio equal to the ratio of specific isotopic concentrations in the primary coolant in the two reactors.

Iodine and particulate release contributions will also be adjusted to account for specific containment purge'releases.

3.3 Dose Rate Due to Gaseous Effluent Technical Specification 3.9.2.a provides that the dose rate due to radioactive materials released in gaseous effluents from the site to areas at and beyond the site boundary shall be limited to the following:

<500 mrem/year to the total body and <3000 mrem/year to the skin due to noble gases and <1500 mrem/year to any organ due to I-131, I-133, tritium and for all radioactive materials in particulate form with half-lives greater than 8 days.

Compliance with the limits on dose rate from noble gases is demonstrated by establishing gaseous effluent monitor alarm setpoints such that an alarm will occur at or before a<<dose rate limit for noble gases is reached.

If an alarm occurs when the monitor setpoint is at or below its limit, compliance may be assessed by comparing the monitor record with the setpoint (limit)calculated in accordance with section 3.6 or a more conservative method.

In the event an alarm occurs and the monitored release exceeds the setpoint limit, then compliance may be evaluated by calculating dose rates in accordance with Sections 3.3.1 and 3.3.2.

Since Xe-133 has comprised most of the effluent noble gas radioactivity historically, alarm setpoints may be derived on the basis of Xe-133, an historical spectrum dominated by Xe-133, or on a measured spectrum.

As long as Xe-133 is the dominant radioactive gas in airborne effluent, the gamma dose rate to a person's body is expected to be a larger fraction of the limit, 500 mrem/year, than is the beta plus gamma dose rate to skin, 3000 mrem/yr.

In that case, a

gaseous effluent monitor setpoint may be derived on the basis of gamma dose rate to a person's body alone; such that an alarm occurs at or before the total body dose rate off-site exceeds 500 mrem/year as given in Specification 3.9.2.a.

C6:1 REV.1: 12/19/84

4

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.3.1 Total Bod Dose Rate The total body dose rate from radioactive noble gases may be calculated at any location off-site by assuming a

person is immersed in and irradiated by a semi-infinite cloud of the noble gases.

The dose rate may be calculated with the equation X,.1 Q = ~

Q

~

~

P where:

D = Dose rate to total body from noble gases (mrem/year)

X/Q = atmospheric dispersion factor at the off-site location of interest (sec/m~)

t = Averaging time of release, i.e.,

increment of time during which Qi was released (year)

Qi = quantity of noble gas radionuclide i released during the averaging time (pCi)

Pyi = factor converting time integrated concentration of noble gas radionuclide i at ground-level, to total body dosepmrem; See Reference Table 3-4 pCi

~ sec/m3 Since dose rate limits for airborne effluents apply everywhere off-site, compliance is assessed and alarm setpoints determined at the site boundary where the minimum atmospheric dispersion from the plant (maximum X/Q) occurs.

Ordinarily, that location is selected on the basis of reference meteorology data in Appendix A. According to those data, the minimum dispersion off-site occurs at the site boundary 1950 meters SSE of the plant where X/Q

= 5.8 x 10-" sec/m3.

Alternatively, averaged meteorology data coincident with the period of release being evaluated may be used.

3.3.2 Skin Dose Rate The dose rate to skin from radioactive noble gases may be calculated at any location off-site by assuming a person is immersed in and irradiated by a semi-infinite cloud of the noble gases.

The dose rate to skin may be calculated with the equation X

1 Q

m

~

Q C

q-

~ Sg;

+ 1.11 9-

~ AY C6:I REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT where:

D = dose rate to skin from radioactive noble gases (m rem/year)

S 81

= factor converting time integrated concentration of noble gas radionuclide i at ground-level, to skin dose from beta radiation, mrem; Reference Table 3-0 pCi

~ sec/m3 1.11

= ratio of tissue dose equivalent to air dose in a radiation field (mrem/mrad)

Apl = factor for converting time integrated concentration of noble gas radionuclide I in a semi-infinite cloud, to air dose from its gamma radiation, mrad

'isted in Table 3-3 pCi sec/m3 Since dose rate limits for airborne effluents apply everywhere off-site, compliance is assessed and alarm setpoints determined at the site boundary where the minimum atmospheric dispersion from the plant (maximum X/Q) occurs.

Ordinarily, that location is selected on the basis of reference meteorology data in Table 3-6.

According to those data, the minimum dispersion off-site occurs at the site boundary 1950 meters SSE of the plant where X/Q

= 5.8 x 10" sec/m3.

Alternatively, averaged meteorology data coincident with the period of release being evaluated may be used.

3.3.3 H-3 I-131 I-133 and Particulate Dose Rate The dose rate due to H-3, I-131, I-133, and radioactive material in particulate form with a half-life of more than 8 days is calculated with the equation Xg~~

anp

= ggpp Q Q~ik 'nip k i (14) where:

Danp dose equivalent rate to body organ n (most exposed organ) of a person in age group a (adult) exposed via pathway p (inhalation) to radionuclide i identified in analysis k of effluent air (mrem/year)

C6:1 REV. 1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3600

= conversion constant (sec/hr) t = period of time over which the effluent releases are averaged (hr)

Xd/Q = atmospheric dispersion factor, adjusted for depletion by deposition (sec/m3).

(Alternatively X/Q, unadjusted, may be used.)

Qik = quantity of radionuclide i

released during time increment t based on analysis k (pCi).

TAanip = a factor relating the airborne concentration time integral of radionuclide i to the dose equivalent to organ n of a person in age group a (adult) exposed via pathway p (inhalation),

~mrem/ r; See Appendix A pCi/m3 V/hen the dose rate due to H-3, I-131, I-133, and radionuclides in particulate form is calculated for the purpose of assessing compliance with Specification 3.9.2.a, a hypothetical adult located at the site boundary where the minimum atmospheric dispersion from the plant occurs is assumed as the receptor.

Ordinarily, the dose rate calculation willbe based on the maximum Xd/Q (minimum dispersion) according to reference meteorology data in Table 3.7.

The maximum Xd/Q at or beyond the site boundary which will be used to calculate the dose rate is Xd/Q = 5.0 x 10 sec/m3.

According to those

data, the minimum dispersion off-site occurs at the Site Boundary 1950 meters SSE of'the plant.

That location is identified in Figure 3-2.

Alternatively, averaged meteorological dispersion data coincident with the period of release may be used to evaluate the dose rate.

Assuming exposure of an adult by inhalation is appropriate, because it is also the basis of maximum permissible concentration (limits) for airborne radionuclides in unrestricted areas as given in 10 CFR Part 20, Appendix B.

These radionuclides in airborne effluents are measured according to the sample and analysis schedule in Technical Specification Table 3.9-3.

The averaging time of the measured releases used to evaluate compliance will not exceed 98 days for Sr-89 and Sr-90 and will not exceed 9 days for the other radionuclides.

- 3.0 Dose - Noble Gases Technical Specification 3.9.2.b requires that the air dose per reactor at and beyond the site boundary due to noble gases released in gaseous effluents shall be limited, during any calendar quarter, to <5 mrad for gamma radiation and <10 rnrad for beta radiation and, during any calendar year, to <10 mrad for gamma radiation and <20 mrad for beta radiation.

C6:1 REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.0.1 Noble Gas Gamma Radiation Dose Specification 3.9.2.b.l requires an evaluation be performed monthly to verify that the accumulated air dose due to gamma radiation does not exceed the limits as given in 3.0 above.

The gamma radiation dose to air offsite as a consequence of noble gas discharged from each unit can be calculated with the equation Yeff 1

X A

(15) 0.8 Q

3 where:

DY = noble gas gamma dose to air due to a mixed-mode release (mrad) 0.8

= a conservatism factor which, in effect, increases the estimated dose to compensate for variability in radionuclide distribution X/Q = atmospheric dispersion factor for a

mixed-mode discharge (sec/m>)

Yeff effective gamma air dose factor converting time-integrated, ground-level, total activity concentration of radioactive noble gas, to air dose due to gamma radiation.

This factor has been derived from noble gas radionuclide distributions in routine operational releases.

Refer to Appendix D for a

detailed explanation.

The effective gamma air dose factor derived is:

A

= 1.4 x 10

>

Qj = the measured gaseous radioactivity released via a stack or vent during a single counting interval j (@CO Specification 3.9.2.b.l is satisfied by calculating the noble gas gamma radiation dose to air at the location identified in Figure 3-2.

At that

location, 1950 meters SSE of the
Plant, the reference atmospheric dispersion factor to be used is X/Q = 5.8 x 10 " sec/m3.

Alternately, Specification 3.9.2.b.l may be satisfied by calculating the gamma dose to air with the equation where:

f; = the fraction of radionuclide i released in a given effluent stream C6:1 REV.

1:

12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT A>

factor converting time integrated, ground-level concentration of noble gas radionuclide i to air dose from gamma radiation, listed in Table 3-3; mrad pCi

~ sec/m3 3.0.2 Noble Gas Beta Radiation Dose Technical Specification 3.9.2.b.l requires an evaluation be performed monthly to verify that the accumulated air dose due to beta radiation does not exceed the limits as given in 3.0 above.

The beta radiation dose to air offsite as a consequence of noble gas discharged from each unit can be calculated with the equation where:

Beff Z

Qi X.

A 0.8 Q

3 (17)

Dg

= noble gas beta dose to air due to a mixed-mode release (mrad) 0.8

= a conservatism factor which, in effect, increases the estimated dose to compensate for variability in radionuclide distribution Ag ff= effective beta air dose factor converting time-integrated, ground-level, total activity concentration of radioactive noble gas to air dose due to 'beta radiation.

This factor has been derived from noble gas radionuclide distributions in routine operational releases.

Refer to Appendix D for a

detailed explanation.

The effective beta air dose factor derived is:

Aa

= 34x 10 5

~e ff'i~ sec/m3 Specification 3.9.2.b.l is satisfied by calculating the noble gas beta radiation dose to air at the location identified in Figure 3-2.

At that

location, 1950 meters SSE of the
Plant, the reference atmospheric dispersion factor to be used is X/Q = 5.8 x 10 sec/m3.

Alternately, Specification-3.9.2.b.l may be satisfied by calculating the beta radiation dose to air with the equation Dg =

Qg 'i Aai Q

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT where:

A g 1 factor converting time-integrated, ground-level concentration of noble gas radionuclide i to air dose from beta radiation, listed in Table 3-3; mrad pCi

~ sec/m3 3.5 Dose Due to Iodine Tritium and Particulates in Gaseous Effluents Technical Specification 3.9.2.c requires that the dose per reactor to a member of the public due to I-131, I-133, tritium, and particulates with half-lives greater than 8 days in airborne effluents released to areas at or beyond the site boundary shall not exceed 7.5 mrem to any organ during any calendar quarter and shall not exceed 15 mrem to any organ during any calendar year.

3.5.1 Determinin the anti of Iodine Tritium and Particulates Radionuclides other than noble gases in gaseous effluents that are measured by the radioactive gaseous waste sampling and analysis program described in Technical Specification Table 3.9-3 are used as the release term in dose calculations.

Airborne releases are discharged

, either via a stack above the top of the containment building or via other vents and are treated as a mixed mode release from a single location.

Releases of steam from the blowdown flash tank concurrent with primary to secondary leakage willalso result in the release of activity to the atmosphere.

Using a blowdown sample analysis, it is assumed that 5% of the I-131 and I-133 and 33% of the tritium in the blowdown stream become airborne with the remainder staying in the liquid phase.

For each of these release combinations, samples are analyzed

weekly, monthly, quarterly, or for each batch release according to Table 3.9-3.

Each sample provides a

measure of the concentration of specific radionuclides, Ci, in gaseous effluent discharged at flow, F, during a time increment ht.

Thus, each release is quantified according to the relation (19) where:

Cik the quantity of radionuclide i released in a given effluent stream based, on analysis k (pCi) concentration of radionuclide i in gaseous effluent identified by analysis k (pCi/cc)

Fl effluent stream discharge rate during time increment At)(cc/sec) time increment j during which radionuclide i at concentration C;k is being discharged (sec)

C6:I

OFFSITE DOSE CALCULATIONMA'NUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.5.2 Calculatin the Dose Due to Iodine Tritium and Particulates A person may be exposed directly to an airborne concentration of r adioactive material discharged in an effluent gaseous stream and indirectly via pathways involving deposition of radioactive material onto the ground.

Dose estimates should account for the exposure via the following pathways:

1) direct radiation from airborne radionuclides except noble gases
2) inhalation
3) direct radiation from ground plane deposition
0) fruits and vegetables
5) air-grass-cow-meat-
6) air-grass-cow-milk Of all these
pathways, the air-grass-cow-milk pathway is by far the controlling dose contributor.

The radioiodines contribute essentially all of the dose, by this pathway, with I-131 typically contributing greater than 9596.

The dose transfer factors for the radioiodines are much greater than for any of the other radionuclides.

The critical organ is the infant's thyroid.

For this reason, the potential critical organ dose via airborne effluents can be estimated by determining an effective dose transfer factor for the radioiodines based on the typical radioactive effluent distribution, the air-grass-cow-milk

pathway, and the infant thyroid as the receptor.

Then for conservatism the total cumulative release of all radioiodines and particulates can be used along with the effective dose transfer factor to determine a conservative estimate of the'infant thyroid dose.

Technical Specification 3.9.2.c.l, requires an evaluation be performed monthly to verify that the accumulated total body or organ dose commitment does not exceed the limit. Dose commitment due to iodines and particulates may be calculated by, using the following equation 3.17 x 10, D

TG131 Q k 0.8 Q

(Zo) where:

DMk = the dose commitment to an infant's thyroid received from exposure via the air-grass-cow-milk pathway and attributable to iodines identified in analysis k of effluent air, (mrem) 3.17 x 10+

= conversion constant (yr/sec) 0.8

= a conservatism factor which, in effect, increases the estimated dose to compensate for variability in the radionuclide distribution C6:1 4

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT D/Q = relative deposition rate onto ground from a mixed mode atmospheric release (m-2)

TG131

= factor converting ground deposition of radioiodines to the dose commitment to an infant's thyroid exposed

~'@i/(m2

~ sec)

Qik = The quantity of radionuclide i (I-131 and I-133) released in a given effluent stream based on a single analysis k (pCi)

Specification 3.9.2.c.l is satisfied by calculating the dose to a person from iodine and particulates discharged as airborne effluents via the air-grass-cow-milk pathway and is evaluated by assuming a cow on pasture 0.5 miles west of the plant.

(There are no milch or meat animals within 5 miles.)

At that location the reference atmospheric deposition factor is D/Q = 5 x 10-10 m-2 When equation 20 is used to estimate the critical organ dose commitment, the effective dose transfer factor is:

TG 6

5 1011 Qi/(m~

~ sec)

The reference data from which TG131 was derived are summarized in Table D-2 of Appendix D.

Alternately, the requirement of Specification 3.9.2.c.l, to perform monthly determinations of dose commitments due to radioiodine, tritium and radioactive particulates in effluent air may be made by using equations (21), (22), (23), and (20).

The dose commitment from exposure to airborne concentrations of radioactive material other than noble gas from a release, Q;k, via the inhalation and irradiation pathways is calculated with the equation Xg D~k = 3.17 x 10

~ '

Qik

~

TAanip 7.

p where:

(~1)

D~ = the dose commitment to organ n of a person in age group a due to radionuclides identified in analysis k of an air effluent, (mrem) 3.17 x 10<

= conversion constant (yr/sec)

Xd/Q = atmospheric dispersion factor for a

mixed mode release, adjusted for depletion by deposition (sec/m3)

Qik The quantity of radionuclide i released in a given effluent stream based on analysis k (pCi)

C6:1 REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT TAanip = a factor converting airborne concentration of radionuclide i to dose commitment to organ n of a person in age group a where exposure is directly to airborne material via pathway p 'inhalation, or external exposure to the plume),

See Appendix A pCi/m3 The dose to a person from iodine and particulates discharged as airborne effluents via the inhalation and irradiation pathways is evaluated at the nearest garden (with residence assumed) 3'.6 miles west northwest of the plant.

At that location, the reference atmospheric dispersion factor adjusted for depletion by deposition is Xd/Q =

1 x 10-7 sec/m3.

The dose commitment via exposure pathways involving radionuclide deposition from the atmosphere onto vegetation, or the ground is calculated with the equation D

D~~

3.17 x 10

Qzk TG<<zp (22) 1.

P where:

D/Q = relative deposition rate onto ground from a mixed mode atmospheric release (m 2)

TGan>>

= factor converting ground deposition of radionuclide i to dose commitment to organ n of a person in age group a where exposure is due to radioactive material via pathway p (direct radiation from ground plane deposition, fruits and vegetables, air-grass-cow-meat, or air-grass-cow-milk),

~i pCi/(m2

~ sec)

'he dose to a person from iodine and particulates discharged as airborne effluents via the air-grass-cow-milk pathway is evaluated by assuming a

cow on pasture 0.5 miles west of the plant.

(There are no milch or meat animals within 5 miles).

At this location, the reference atmospheric deposition factor is D/Q = 5 x 10-10 m-2.

The concentration of tritium in vegetation is a function of the airborne concentration rather than the deposition.

Thus the dose commitment from airborne tritium via vegetation (fruit and vegetables),

air-grass-cow:milk, or air-"rass-cow-meat pathways is calculated with the equation X

D~~ ~ 3.17 x 10

~ '~k

~

TAa~~p (23)

C6:1

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT where:

X/Q = atmospheric dispersion factor for a

mixed mode release (sec/m3)

The dose to a

person from tritium via the vegetation (fruit and vegetables),

air-grass-cow-milk, or air-grass-cow-meat pathways is evaluated at the nearest garden (with residence assumed) 3.6 miles west northwest of the plant.

At that location, the reference atmospheric dispersion factor is X/Q =

1 x 10-7 sec/m3.

The dose commitment via a given: pathway as a result of measured discharges from a release point is accumulated with

>an

~

>mac

( 24) where:

Dan

= the dose commitment to organ n of a person in age group a k

= the counting index; it may represent either p, analysis of a grab sample w, a weekly sample analysis m, a monthly composite analysis, or q, a quarterly composite analysis 3.6 Effluent Noble Gas Monitor Alarm Set oint I

Technical Specification 3.9.2.d requires the radioactive gaseous effluent monitoring instrumentation channels to be operable with their alarm setpoints set to ensure the limits of Specification 3.9.2.a are not exceeded.

Each radioactive noble gas effluent monitor setpoint is derived either on the basis of total body dose equivalent rate or noble gas concentration, in the unrestricted area beyond the exclusion area boundary.

The setpoint derivations assume that noble gas releases occur at ground-level.

For the purpose of deriving a setpoint, the distribution of radioactive noble gases in an effluent stream may be determined in one of the following ways:

2.

3.

Preferably, the radionuclide distribution is obtained by gamma spectrum analysis of identifiable noble gases in effluent gas samples.

Results of analyses of one or more samples may be averaged to obtain a representative spectrum.

In the event a

representative -'istribution is unobtainable from measurements by the radioactive gaseous waste sampling and analysis program, it may be based upon a historical spectrum appearing in Table 3-2.

Alternatively, the total activity concentration of radioactive noble gases may be assumed to be Xe-133.

C6:1 REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.6.1 Set int Based on Dose Rate A noble gas effluent monitor setpoint, based on dose rate, is calculated with the equation below or a method which gives a lower setpoint value.

h S = 1.06 gc; i 'Fi

+ Bkg (25) where:

S

= The alarm setooint (cpm) 1.06

= 500 mrem/yr.60 sec/min 35.37 ft3/m3 1 m3/106cm3 h = monitor response to activity concentration of effluent,

~Clll pCi/cm3 Ci = relative concentration of noble gas radionuclide i in effluent at the point of monitoring (pCi/cm3) f = flow of gaseous effluent stream, i.e., flow past the monitor (ft3/min)

X/Q = atmospheric dispersion from point of ground-level or split-wake release to the location of potential exposure (sec/m3)

DFI = factor converting ground-level or split-wake release of radionuclide 1 to the total body dose equivalent rate at the location of potential exposure, mrem yr

~ pCi/m3 Bkg

= monitoring instrument background(cpm)

Each monitoring channel has a unique response, h, which is determined by the instrument calibration.

Atmospheric dispersion depends upon the local atmospheric conditions.

For the purpose of calculating a radioactive noble gas effluent monitor

setpoint, the atmospheric dispersion
factor, X/Q, will be based on prevailing meteorological conditions or on reference meteorological conditions.

The minimum atmospheric dispersion off-site derived from reference meteorological conditions at the site boundary is 5.8x 10-7 sec/m3 at a location 1950 meters south southeast of the Plant.

The applicable dose conversion factors, DF;, for deriving setpoints are in Table 3-5.

C6:1 OFFSITE'DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.6.2 Set int Based on Concentration I

A noble gas effluent monitor setpoint, based on concentration, is calculated with the equation below or a method which gives a lower setpoint value.

where:

MPC'h 4

7

~

10 f

X/Q S

= alarm setpoint (cpm)

(26)

MPC = unrestricted area maximum permissible concentration for the effluent noble gas mixture. The MPC for noble gas is calculated from the distribution of noble gases in the release with the equation NPC =

Ci i

where:

Ci = relative concentration of noble gas radionuclide i

in a

gaseous release (pCi/cm3)

MPCI = 10 CFR Part 20, Appendix B, Table 2,

Column 1 value h

= effluent noble gas monitor counting rate response or calibration for noble gas,

~cm pCi/cm3 0.7 x 10<

= conversion constant 1 m3 x

1 min 35.37 ft3 60 sec f = discharge rate of gaseous effluent (ft3/min)

X/Q = atmospheric dispersion from release point to unrestricted area (sec/m3)

Bkg = monitoring instrument background (cpm)

The value of atmospheric dispersion used to derive a setpoint based on concentration is the reference atmospheric dispersion value from the discharge point to the location of maximum potential exposure off-site.

The applicable value is 5.8 x 10 7 sec/m3 at a location 1950 meters south southeast of the Plant.

In the event the distribution of radioactive noble gases is based on a historically measured'distribution appearing in Table 3-2 or on Xe-133 alone, the MPC for the noble gas is 3 x 10-7 pCi/cm3.

C6:1 REV.1: 12/19/84

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT 3.7 Pro ected Dose for Gaseous Effluents Technical Specification 3.9.2.e requires that the gas decay tank system shall be used to reduce radioactive materials in gaseous waste prior to their discharge if the projected gaseous effluent dose per reactor due to gaseous effluent releases to areas at and beyond the site boundary when averaged over a month exceeds 0.2 mrad for gamma radiation and 0.0 mrad for beta radiation, and the ventilation exhaust treatment 'ystem shall be used to reduce radioactive materials in gaseous waste prior to their discharge if the projected gaseous effluent dose per reactor due to gaseous effluent releases to areas at and beyond the site boundary when averaged over a month exceeds 0.3 mrem to any organ.

Technical Specification 3.9.2.e.l requires the doses, to areas at and beyond the site boundary, due to radioactive material released in gaseous effluent to be projected at least once per month.

This requirement is satisfied by extrapolating the dose to date during the current month to include the entire month.

The dose to date is calculated as described in sections 3.0.1, 3.0.2, and 3.5.2.

The dose is projected with the relation:

p 31 D

X (27) where:

P

= the projected dose during the month (mrem) 31

= number. of days in a calendar month (days)

X = number of days in current month to date represented by available radioactive effluent sample (days)

D = dose to date during current month calculated according to sections 3.0.1, 3.0.2, and 3.5.2 (mrem)

Alternatively, the monthly dose may be projected by computing the dose accumulated during the most recent month and assuming the result represents the projected dose for the current month.

The dose during the preceeding month willbe computed as described in sections 3.0.1, 3.0.2, and 3.5.2.

Unit 3

Unit 4 Vent Turbines Condenser Turbines Pr imary Coo lant Exhaust Primar Coolan Exhaust Exhaust Condenser Exhaust Slowdown Flash Tank S.J.A.E.:~*.

and Gland Seal Exhaust Slowdown Flash Tank S.J.A.E. **

and Gland Seal Exhaus Unit 3

ontainment 35,000 cfm 35,000 cfm Unit 4 Containment 35 000 Roughing filter cfm To CVCS Holdup Tanks for reuset CVCS*

Holdup Tanks rq~~hing cu t

Gas Decay Tank (6)

I nl eakage Waste gas compressors 13,500 cfm HEPA Filter 11,200 cfm 40,000 cfm 35,000 cfm Roughing f i I ter I >

200 cfrh Laundry Area Outside Air 13,500 cfm Auxiliary Sldg.

Ventilation System Prefilter HEPA Filter 40,000 cfm 1000

.cfm Roughing Filters Unit 3

Fuel Pit Area HEPA Filter Exhaust 1000 cfm 0,000 cfm Unit 4 Fuel Pit Area HEPA filter 20,000 cfm

2000 cfm I nl eakage Prefilter New Rad Waste Building 200 fm 7500 cfm 7500 cfm Pref iiter In 1 eakage CVCS - Chemical and Volume Control System SJAE - Steam Jet Air Ejector

' - Effluent Honitoring Instrumentation Figure 3-1 Gaseous Effluent Systems S4 44

)DELL It it

f

~

SQ.

f jf 34 2.60 n'4 O~

f I

14 2y i llNctl01tl~

1 /

T RKEY:. PQjNT PLANT 14 Sc5 "5 21 '",

Z2 1 Cess.

<(gj)* =

I

( Laa

~

ALNOWltt oX J

i IS 22 slit~

Cw

~

g 41 Pl 24 24 JS S4 Figure 3-2 Locations At Which Doses Due to Airborne Effluents From the Turkey Point Plant are Calculated l.

Beta and Gamma Doses to Air1 1950 m SSE 2.

Maximally Exposed Person1 5800 m/HKW 3.

Assumed Beef and Milch Cow>

7250 m

W

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT t

0.0 Dose Commitment from Releases over Extended Time 0.1 Releases durin 12 Months Technical Specification 3.9.2.h implements 00 CFR Part 190.102.

It requires the annual (calendar year) dose or dose commitment to any member of the public from all uranium fuel cycle to be limited to less than or equal to 75 mrem to the thyroid and 25 mrem to the total body or any other organ.

Fuel cycle sources or nuclear power reactors other than the Turkey Point Plant itself do not measurably or significantly increase the radioactivity concentration in the vicinity of the Plant; therefore, only radiation and radioactivity in the environment attributable to the Plant itself are considered in the assessment of compliance with 00 CFR Part 190.102.

In the event a dose calculated for the purpose of assessing compliance with Specification 3.9.1.b, 3.9.2.b, or 3.9.2.c, exceeds 2 times the limit stated therein, then a

calculation should be made to determine whether any limit in Specification 3.9.2.h has been exceeded.

The calculation should be made on the basis of radioactive effluents during the year to date and reference meteorological data or averaged meteorological data during completed quarters of the year to date.

Separately, an evaluation of doses due to effluents during the year is performed annually and reported in the Semiannual Radioactive Effluent Release Report submitted within 60 days after the end of the year.

This evaluation uses annual averaged meteorological data concurrent with the annual gaseous releases to evaluate atmospheric dispersion, deposition,and plume gamma exposure.

To assess compliance with Technical Specification 3.9.2.h, evaluations of dose due to liquid and gaseous effluent are calculated as described by the equations for:

1.

total body dose due to liquid effluent via irradiation by radionuclides deposited on cooling canal shoreline as in section 2.3

, 2.

total body dose due to noble gas y as in section 3.0.1 3.

skin dose due to noble gas 9 as in section 3.0.2 total body and maximally exposed organ doses due to gaseous effluents other than noble gases+

as in section 3.5.2.

The doses are calculated on the basis of liquid and gaseous effluents from the Plant, sampled and analyzed in accord with Technical Specification Tables 3.9-1 and 3.9-3.

+ Radioactive I-131, I-133, tritium, and radioactive material in particulate form having a half-life greater than 8.0 days.

C6:1

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT The receptor of the dose is described such that the dose to any resident near the Plant is not likely to be underestimated.

The receptor is selected on the basis of.

the combination of applicable pathways of exposure to gaseous effluent identified in the annual land use census and maximum ground level X/Q at the residence.

Conditions more conservative than appropriate for the maximally exposed person may be assumed in the dose assessment.

Environmental pathway-to-dose transfer factors used in the dose calculations appear in Appendix A.

0.2 Environmental Measurements When assessing compliance with 00 CFR 190 or 10 CFR Part 50 Appendix I dose limits, Radiological Environmental Monitoring Program results may be used to indicate actual radioactivity levels in the environment attributable to the Turkey Point Plant as an alternate to calculating the concentrations from radioactive effluent measurements.

The measured environmental activity levels may thus be used to supplement the evaluation of doses to real persons for assessing compliance with 00 CFR Part 190 or 10 CFR Part 50 Appendix I.

0.3 Dose to a Person from Noble Gases Technical Specification 3.9.2.h requires the calculation of the annual (calendar year) dose or dose commitment to a person off-site exposed to radioactive liquid and gaseous effluents from the plant.

One component of personal dose is total body irradiation by gamma rays from noble gases.

Another is irradiation of skin by beta and gamma radiation from noble gases.

The methods for calculating

'hese doses are presented in sections 0.3.1 and 0.3.2.

The amount of radioactive noble gas discharges is determined in the manner described in section 3.2.

0.3.1 Gamma Dose to Total Bod The gamma radiation dose to the whole body of a member of the public as a consequence of noble gas released from the Plant is calculated with the equation:

(zs) where:

D> = noble gas gamma dose to total body (mrem)

Qi = quantity of radioactive noble gas i discharged in gaseous effluent (lrCi)

!I X/Q = meteorological dispersion factor (sec/m3)

OFFSITE DOSE CALCULATIONMANUAL FOR GASEOUS AND LIQUIDEFFLUENT P> - factor converting time integrated, ground level concentration of noble gas nuclide i to total body dose from gamma radiation listed in Table 3A, mrem pCi

~ sec/m3 When the total body dose due to gamma radiation from noble gas required by Technical Specification 3.9.2.h is calculated, the most exposed receptor is located 3.6 miles west northwest of the plant where the reference meteorological dispersion factor, X/Q, is 1 x 10 7 sec/m3.

0.3.2 Dose to Skin The radiation dose to the skin of a member of the public due to noble gas released from the Plant may be calculated with the equation:

D QQi 'ki+0 ~ 56 Qi A

x W (29) where:

D = dose to skin due to noble gases (mrem)

S gl

= factor converting time integrated ground-level concentration of noble gas to skin dose from beta radiation listed in Table 3-0, mrem pCi

~ sec/m3 0.56

= 1.11 0.5 (mrem/mrad) where 1.11

= ratio of tissue dose equivalent to air dose in a radiation field (mrem/mrad) 0.5

= factor for shielding by a building A> = factor for converting time integrated, ground-level concentration of noble gas radionuclide i to air dose from its gamma radiation listed in Table 3-3, mrad pCi

~ sec/m3 When the skin beta dose due to noble gas required by Specification 3.9.2.h is calculated, the most exposed receptor is located 3.6 miles west northwest of the Plant where the reference meteorological dispersion factor, X/Q, is 1 x 10 sec/m3.

The total dose to the skin from noble gases is approximately equal to the beta radiation dose to the skin plus the gamma radiation dose to the total body.

C6:1 APPENDIX h PATHWAY-DOSE TRANSFER FACTORS Environmental pathway transfer factors>

usage factoxs, and dpse commitment factors appropriate for each exposure pathway>

age>

and organ are combined into integrated environmenCal concentx'aCion-to-dose factors for each radionuclide.

This appendix includes Cables of values of the transfer factors calculated in accord with equations and values 1

xecommended in NUREG-0133 for individual environmental. pathways.

In the event a single, composite transfer factor is desired for a given organ and age group> it can be obtained by summing the factors for appx'opriate pathways.

Appropriate transfer-factors from Appendix A are

'used in performing dose assessment calculations prescribed in the ODCH.

lJ.

Gaeoii, ae nE,eds..,

i978,

~Pre aiba'e fan of Radiomen ical FE81uene Technical~Siccif ication.'or Nuclear Power Plants, NUREG-0133;

VSNRC, Officn Nuclear Reactor Regulation.

UJ>L FAUIJ<h F JK LLIIULU ulaOIIARGCS UA<<C.U OK OalyR HEC=ASk uf f Au>>I L>OIUPC LII Ulhl IIAkbe fa.uu Uf L <<>>I'll ULIII IIJ AOULLlul>>AC ULLU)LON PA5HJAW - hALl NAIC>>L l.aiN Auk DKOUI' Auua.l

<<>>Ui c 1 0l.

<<I----4 I>>---SC c'<<I- -5 L IIII--5>>

Fi--55 Fc.--59 IU--<<4 ull ou Cd--u5 K<<I-"do hR--o9 eK--UU l---ll CR--'J J tie--9T

Iu- -45 IIJ-KU-lu)

>>IU-1uo ACLLUN UO LC4 hu-lti Ic 1 25II LCLCTII

!el cull lcaSL>>I

-. Lc-L)c l--131 1-- 1 w5 Oi-134 4<<-1 Jo Oi-1 51 ua-Lvu cA-av4 uc-l<<<<l c>>.- 1v3 OL-lv<<<<

IIV-<<.Jl a>>Oile 4 ~<<ooSLtul 4>>

0 ~

Quc. ~ 45 L.dhctu5 0 ~

il~

1 ~ ucc ~ U5 I>> ~

o 43etu3 leblctu5 Soblctua loulktut

~ >>4SK ~ UQ 1 ~ 93c. ~ u 3 lo ~ SE ut

<< ~ Tbk ~ UU U>>D'5utUL 5'6ftu3 1 e lie ~ 43 9.4tf F 02 Cocle.t42 1.Clc.tu2 1 ~ L9et43 a

Sacs ut t>>LOetuS 4 ~ USL ~ UZ o>>44kt<<>>L C ~Dtttu4 C blctuS 3 ~ Slct44 C

USC ~ U3 s6c-UL leo4C-ua L ~ 99c. ul 5 ~ LSC>>41 to<<uc J2 kauf R le Clktu4 5 >>53ctuo Uo Ze D5Lt4V 4 ~ USE ~ 05 So C1EtDS 1

UOk ~ 42 C ~ Cle t0 5 s ~ cbe ~ 45 1 ~1lftUS U ~

0 ~

4 ~

4 ~ lvkt01 1 Ubf ~ 40 1 ~ ull.t43 S.SSetOC 4 ~

4 ~

<<.14kt45 2 elftul 1 ~ U4ftll 1 Utft02 2 ~ 5Zk ~ 42 4>>vbk tJC l>>94ftQL 1 ~ uukt02

<<>>TTEtut 1 ~ 19Ktut D ~ Cvkt4i a>>USCtUV v ~ Doc i44 C ~ Dbf ~ UU C>>CDC-UL ue 5<<k-ul 1 elle.rul o<<c

~ 41 to~ 4>>.-45 ORQA LNURULO l.tlft40 0>>

b 5SE ~ Uu Oo 0 ~

0 ~

Q ~

0 ~

~ o 0 ~

~ o 4 ~

0 ~

0 ~

0 ~

0 ~

4 ~

0 ~le 0 ~

C>>43ftuO 1 u5Et40 0 ltftll 1-DUES Ut 4.LCkt42 1 c9e ~ u4 o.vSetuS Le ~ gf ~ 45 2.20K.t04 u ~

4 ~

0 ~

0 ~

U ~

4 ~

4 ~

4 ~

N U OS k KlONf.u lo 2)c t UO 0 ~

2.42E tu4 1 DlitQS 0 ~

0 ~lo 0 ~

2 llit05 0 ~

0 ~

~ o Ue 5 ~ SQE ~ Ol 2>> Slf.tll 1 ~ 41 it 05

~.OUE ~ UZ 20 20E ~ Ul 1 ~ 60tt02 le Olitull 0 ~

2 ~llftuu lo Lbftll 2'tktul 4 ~ 91i tuS S. loi ~ OZ l>>43K ~ 03 9>>llft QC 2 ~ 01E ~ OC

c. ulkt OI>>

5 ~ TCi t03 1 <<lftub

4. 6lc-41 4 ~

3 ~ Qbc-ua 5>>blf-OC 1 ~ Clct 41 C ~ 49c-4C I HRc Nl CUIIG L ~ Clct44 U ~

LE V<<kt4L 4 ~

1 ~ 4CL. tuu 4.9tkt44 4 ~

0 ~

. 4 ~

0 ~

II~

0 ~

Qe 4 ~

~

U ~

4 ~

to<<DC-UC U ~

ile 4 ~

  • 9.aoktu2 9>>05ktul>>

Q ~

4 ~

0 ~

4 ~

4 ~

J ~

4 ~u,)ll.tuS 1 ~ 45c, t 42

<< ~ 19c.t>>>>S 1 ~ 4<<c.tu4 4 ~

4 ~

U ~

J ~

4 ~

Ql -eel a ~Zlftll o>>SSEtub C.1 bi tOS

~ el lC tu4 5.4<<ftOS l>>UDC ~ Ub l>>50K t04 b>>24c tub 2.44ktOS S.Slk ~ 42 a.USE F 03 u>>C9ftuS 2>>OCE tub 1 'uktu5 0.95ft44 6.SZf.t 06

~.54ct02 oelCEtlC 5 'SetUS C ~ luctvb S>>32E ~ 44

~.Slc,tUS L.LZEtu3 3

aSE tOS 5.99kt43 1 ~ 44itOS b>>59kt43 l>>5CktUC LE QUENT 02 1.49ftuS 1 ~ LlktuS ue0li tOC 1'2ktU4 L.blft44 Co<<uk ~ 43 4 ~ JCCt45 1

14c. t<<>>4 l ~ 49ctUS SK(H 0 ~

U ~

U ~

I>> ~

0 ~

U ~

U ~

ue 4 ~

u ~

U ~

0 ~

Ue 6 ~

4 ~

0 ~

II ~

0 ~

0 ~

4 ~

U ~

<> ~

0 ~

U ~

0 ~

4 ~

U ~

4 ~

0 ~

>>I ~

4 ~

I>> ~

u ~

U ~

4 ~

IIIIA< uuua Lo Clc t4U 2 ~ 14I. t Qo le 14L t41 5 'Oktv5

c. Sce tu5 1 ~ etc t 45 a>>lSC ~ <<IS 4>> 44C t43 1 ~ vlc tUS 0 ~ SactvC

. 1.44ct42 5 ~ '93c t 44 9<< 4bc.

01 2 ~ c ac. ~ 41 T ~ 42c -uc

~ ~ CCC. ~ 4g b

4CI. tul c ~ 4ui. t<<>>4 le LUc. tul J ~ Ooc tug 4 ~ D3C. t UC L 49ct02 14-tQL

~ o 41c. ~ Ul 1 ~ Dsi tvC D ~ 4Jc ~ 41 1 ~ I>>li t42 S.Suetuc 5 ~ bcc t Ql 5 ~ abct0 ~

1 ~ 4lc. t JS<<

J ~ UCc. ~ Uq 1 ~ 44 t <<<<2 5 ~ 45c.- u C 1 o vcc 42 o ~ JJC UC

< ~ l<<>>c e<<>>)

<< ~ Lca.

45'

UUJL I Ac I JsCh I'alK LoaoulU Ol JlillAKCCS UcahLU J'u oil fJI JIEL ASE Uf kAUK lhul UPc.

1N UISuNAHuc ELUst UF 3 upll sllIN NJ AJJL ILJNAL IJILUIIacN PAIN<<AJ - hALI scAIEK Sslfac FISH

<<Ot uKOUJ' AUULI icUJL I Uc 4 I}Is C N

0 IJ S

E, I

JI JI c N I cl----S I'---$2 UQ--LL ccsa-Jc-Jc.--Sv las 54 Ual Dv Lli--D)

Ass 4 cs Jz--4 }

JO ov v---OL CK IK--01 clJNJ--'Jv KU L US KU-Lue wuL I VN ou-Lkv

~ U L co ILLObli ICLZIN Ii LEUK Ic.LSLH Ia. 1J(

I--lJl I--1 SS a S-1 Ji Li-l$1 vA-L<<4 a.A-1 <<4 vi-LWL

~ c lvJ a.f -I <<4

<<P-d J9 aJOJJC 4 ~

1

$9couI U ~

4 ~

S ~ Llc. ~ 4y 2 '5ctuS ale 4 ~

b uoc ~ 45 U ~lebSctuv USitu5 Sei4C.t u2 6 40coOu 1 ~ SZC-41 SWE ~ uu 2 'Oc.-UZ W ~ 51c ~ v2 D )utou3 1 Szctu3 3 ~ 'I9c ~ all Z.vlfO4L becsaf

~ 42 le1lctuS Z.u<<kou$

4 ~ 10a. ~ VZ S.Lute US

<< ~ UUcoUZ de 1<<i ~ ul vuce US ST doco42 ieailc.tuS USctuS I ~ LiftuO 1 ~ 34c. ~ u 1 2-vdcttu Ie$ 6c. ~ UZ v ~ dZs.

Uz LlukJI J ~ 1 St.-41 O.a9L o 45 4 ~

We5OLtUS 1 ~ WOE tOcs 5 lufo05 1 ~ Oaf t0$

5 WOE.ouS 1

9SLtub

~.UUC. F 02 U ~

il ~

4 ~

1 ~ 9bt ~ U4 Z ~ b}k-OZ 0 ~ SSt-ul 4 ~ ca 6k oui 4 ~

U ~

1 ~ ZZLtUS ae54k UL 9 ~ lit-41 2

WZft42 6 Uute02 1

ubEeUS le b1c t U2 ST MuktOZ a e u1L e 4 c.

1 Ill.t 4Z 9

49L odsS le bSC tilS aeOSk

~ 4$

I Lll.e04 2 '9c.euJ J ~ Joc.tu4 LLceUS J ~ ull.sv2 D. IJc.-4$

IN'IsIULLl S ~ lSE-Ul I duc ~ 40 0 ~

4 ~

0 ~

4 ~

4 ~

4 ~

0 ~

0 ~

0 ~

~ e 0 ~

Oe 0 ~

0 ~

4 ~

0 ~

U ~

~.WSk-42 5 ~ Slf-Ol 2.QOC F 02 W.<<9fouZ 9 o19E. ~ 02 1

5cst t0'I 1.0<<ctu$

2 ~ dbt tQb 4.1lt tu<<

0 ~

4 ~

0 ~

4 ~

V ~

4 ~

4 ~

V ~

4 ~

KlONEI S

1$ c-Ol U ~

Z. OOE o40 Le SOE t03 0.

0 ~

Ue ue Led9f t46 0 ~

4e 4 ~

0 ~

3 ~ Udc.t 40 We U3E 02

~ e<<5E-Ul le 9Scou2 1 ~ 1Sctu3 1

$3Et4<<

2e Wlkt0$

0 ~

be43tt44 Z.ILC~ 0$

6 ~ 96c ~ US 1 ~ 10ctQW 1 29Et03 S.SQfoOS 1

10E ~ U3 2 ~ Wvtt02 ST ULktuj 0'Zct02 Z.SSEo4$

2.41koud U ~

We SjctU4 ae 91E-Ul 1 ~ OZi o Ud 9 SSC-QJ LUND S ~ lSk ul 4L.ISteul II ~

1 ~ bdktua 1 ~ WZktv5 Il~

0 ~

0 ~

4 ~

0 ~

0 ~

0 ~

0 ~

Ue Oe S ~ 4ic-v2 4 ~

U ~

4 ~

2 ~ 1LC. O ul 2 ~ 9SC.t 4$

4 ~

4 ~

4 ~

0 ~

4 ~

4 ~

4 ~

4 ~ vsse t 4Z 1.11t odd 1.1SLoOZ SevdE. ~ U4 4 ~

4 ~

4 ~

4 ~

GL-LL1 Sel JC-41 le5uct06 S.cuf t03 1 ~ WOC. t4<<

So<<lbouS 1ebOEt06

$.1I Eouw l.blfev5 1 ~ Zzc.t06 1.11to02 Z.WSC ~ 0$

a ~ S6tt4<<

1 93cou5 6 ~ 1$Et4$

I.usfou$

W.LIEt4$

Z ~ JSL. ~ UC beJ<<f td<<

W WlctOS ueuuf OUS 9.ulfo02 4 5<<ctUZ 4 cOCoe) 1.<<SE tu3 1 ~ WSc ~ 4<<

1 ~ 1'Jc,tUW L ~ 51c. o 0<<

1 v ~lc t02 L ~ ZWE ted 1ebSE,t42 1.1<<f toz l ~ Jzt ou?

Oea>cosa<<

L ~ S<<c t45 3 ~ UIC ~ Uv Vev<<ftd<<

Z ~ vuc ~ 45 I <<9k F 42 U ~

u ~

0 ~

U ~

4 ~

4 ~

4 ~

0 ~

4 ~

4 ~

Il ~

4 ~

0 0 ~

4 ~

4 ~

0 ~

0 ~

U ~

4 ~

4 ~

0 ~

U ~

U ~

4 ~

U ~

4 ~

U ~

0 ~

U ~

4 ~

4 ~

Is ~

4 ~

U ~

4 ~

V ~

4 ~

SKIN Ils IlsL DUUV LSI. - VL 5 ~ Slc ~ Ux c ~ Suc. t ul Oe 16c ~ 02 Joacsc.

~ 0}

1.9vk out I ~ luc ~ 4$

I ~ LMc. tv<<

deISct US I ~ Ui euz W ~ SUC oud

9. S~c. ~ Uv

'9 ~ Jdc tv v 1 ~ JSc.

~ JU 1 ~ ZJc.- VZ 3 ~ S)a.-vL L ~ use. o UL 1 ~ 9I c. ~ U2 O. ISC ~ OZ I ~ Zdc.t42 1 ~ Sdc o UL 5 ~ duc t44

b. sdc.ouL de ll- ~ 42 W ~ >uc t 42 1 ~ cbf ~ UC 3 ~ Jcc

~ Ud 3 ~ 9Sc. tuz I~ JLk tuL I ~ 6lic. au J 1 ~ LUc ~ 4$

v ~ a}ktvl S ~ 19C tu 5 ~ >>c-4L 1 ~ vase e aiu L ~ blk-JL J ~ 'Jvi edl L ~ 4 Ja.-VS

0

01/ZS/7'I fIIV]RONNENTAL PATHNAY-BOSE CONVlfcS]ON FACTORS PA THNAY GROUttO PLAtlt OEPOSTTlON FOP GASEOUS O]SCNARGES AGE GROUP ACULT NUCLlol:

0 R

G A N 0 0 S

E F

A C

'1 0 R

S 154oNETER BREN/YR PER UC]/SECI H----3 C---lh c---$ 2 CR--Sl t"I -5+

F=--59 co--57 r.o--Sa CO 60 t.l --63 70--65 pb--46

$ % -h'9 SR -90 Y---91 rk 95 Ith--55 SU 103 tU 106 AG I]ah I:0115cI Bot.c 0 ~

0 ~

0 ~

4 '4'6 le 3bft09 2'5ftbb l.a9E ~ Oa 3 ~ boitbb 2 ~ 15C ~ lb 0 ~

41E tah 9 ~ 0lf ~ 06

2. ]rfto4 5 ~ 35Et06 l ~ Oai ~ 06 5 ~ 01E ~ Oh 1 ~ 16E ~ Oa 1.1OE

~ Oa oe l9i ~ Ob 5

She 09 3 ~

L1VER 0 ~I~

0 ~

4'4E>06 1 34E!09 2 '5'4 49c ~ 04 3 ~ bof ~ 04 2.]5ftto ae 7 ~ 41f >Oa 9 ~ alfie 06 2 lrf~ 04 5 35E~06 1 ~ Obft 06 5 ~ 0 tft lia lo.16Et Ob 1 toftob he]9'4 3 ~ Sbtt09 a.

TNYR010 4 ~

~ o 0 ~

4'$ E F 06 1 ~ 34E to9 t ~ 75E ~ 40 to09E F 04 3 ~aoftb ~

2'Sf>t ~

0 ~

7 ~ 43f<04 9 ~ 01E t06 to lrC ~ 04 5'5ft06 1 ~ 045 ~ 06 5 ~ Olft04 1 ~ 36E ~ oa 1 ~ 1 ~ i>00 4 ~ 19E ~ 04 3 '4E ~ 09 0 ~

X]OIIEY Oo 0 ~

0 ~

4 ~6af t06 1 ~ 3IE 409 te75f tb ~

t ~ 49E <04 3e ~ Of tbb Zel5EC] ~

~ o ro43E tob 9oblct06 Ro lrE t44 5 ~ 356 ~06 t.abfi06 S.btf ib ~

le 36E <0 ~

to]Ofiaa 4'9ftbb 3 ~ 54f 109 a.

LUNG 4 ~

~ o

~ o 4'aft06 1 ~ 34Et09 torSE tob 1 ~ 49E <04

3. ~Ofiba Ret5fttb

~ o 7'3fiob 9oblf >06 totrf104 5.35E i06 to OIEi06 Sob tfiba 1.36fta ~

1 taft' 4o]9ftb ~

3' 't09

~ o G] LLl OoI ~

~ o 4 ~ 64E 4 06 t o3IE>09 2 ~ 75E ~ 04 tob9E>0 ~

3 ~ IIE~O~

2 '5'

~

~ e'

~ 43E iob 9 ~ Olf~ 06 to lrf> ~ 4 5 35ft06 1 ~ 04E<06 5 ~ 01E tba 1 e36E toa 1 taffy 4'9t ~ 04 3'$ ft09

~ o SKTN 0 ~

0 ~

~ o 5 '3ft06 tobtftb'9 3 ~ 23f ~ ~ 4 2 ~ Obftb ~

4.45f ib ~

2 ~Stf t 1 ~

I ~

~ o54ftob te03E>07 ZeStf <04 6o33f >06 1 ettf t06 5 ~ 46f ~0 ~

1 ~Elf>0~

1 ~ 2 ~ 1 ~04 ST 03E ~ I ~

4 ~llf~09 0 ~

TOTAL BOOY 4 ~

0 ~

0 ~

4 ~ 64E ~ 06 1 ~ 34E i09 te75f tab to h9E > 04 3'4ftoa 2'5ftlb I~

7 ~ 43fto ~

9ebtf>46 2'rft04 5'5ft06 to Oaf<06 5 ~ 01E ~ 04 5.36fto ~

1 ~ 14E>04 4 '9E~OO 3'bct09 0 ~

hf:> Ctl

) IIC]/5.C RELl ASE RATE OF EACII TSOTO+E lll ANfJ I VALUE OF 1 ~

FOR X/4) OEPLETf0 X/0 ANO RfLAT]VC OfPOS]TTON o

4

Ot/25/79 E<<VIRONHENIAL PAINNAT-OOSE CONVERSION FACIOPS PA1HMAT -

G>OUNO PLANE OEPOSIIION FOR GASEOUS DISCHARGES AGE GPOUP ACULI

<<UGL loc 0

R G

A N 0

O S f F

A C I O

R S

ISn ~ HElkR-HofH/TR PcR UCI/Seel SN 123 SN-126 81-12>>

Sn-t 25 75 l25H 3 1 lt7H IE 129H I--l34 I-151 152 I

133 I--ll>>

I--l35 CS 134 G 3 136 CS.337 Ba-t 0

CE-141 Gc-14>>

PR l e3 Nnot>>7 bout 0 ~

5 ~ t&f~ 10 5

90E44 ~

2 ~ 5 ~ E ~49

l. 55fe46

% ~ 79E>45 3 ~ 05f ~ C7 Se53c406 l ~ 7ZE F07 1

ZSE io&

2 ~ <<0E ~ 46 4.50'5 2 '&E~O&

6'9E<09 t.49E ~ Gb 1

03fg lo 1

eeoc>

Ob 1 ~ 3lE < 47 le 13f iob Oe bovbE ~ 46 LIVEIc 0 ~

5 ~ 16E ~ 14 5 ~ 94E>40 2 ~ 30f < 09 toSSE>06 4 '9'5 3 05ft47 5-53fio&

t-72E~47 1 ~ 25fto&

2-40fi06 4 Soft05 2 ~ 56E 1 46 6'9ft09 1 ~ 49E IOD l ~ 43E ~ 10 1 ~ fbf<00 1 ~ 37E~07 lo 1 3c ~ 44 0 ~

be40f i 46 3NTROIO

~ ~

5 ~ 16E t to 5 ~ 90E ~ 0 ~

2 ~ Ibf ~ 49 1 ~ 55c<06

~ o 79c )45 3 ~ 05E ~47 5 '3E<06 toltfi07 toZSE406 2 o40f ~ 06 4 ~ Sof ~ 05 2 5&fio&

6 '9E F 09 1 ~49f <00 1 ~ Olf ~ 1 ~

1 o60f >00 1 ~ 37E <07 1 ~ 13E ~I~

0 ~I ~ 40c 446 KIONET I ~

5 '6E >to Se9DE>4 ~

2.30E i09 1.5SE F06

~ o79E <05 3 ~05ht07 5 ~53f >06 toltfi07 1 ~ 2SE 106 2 '4EA46 4 ~ SIE>05 2.5&fF06 6'9ft09 to49E<40 to43E>to 1 ~ 60EOO ~

1 ~ 37E ~07 le 13E>40

~ o 4 ~ 44E ~06 LUHG I~

5 ~ 16f <to 5 ~ 9 ~ E~D ~

2'0E< ~ 9 1 ~ 55E ~ 06

~ o79ftOS 3 05fo07 5.53fio&

i.ltfi07 1.25Eio&

2'bfto&

4 ~ SIEIDS 2 ~ 5&E ~ 06 6.99'9 t.>>9E ~ 00 te03E+t ~

t ~ &bftb ~

lo37f ~07 t ~ 13E ~00

~ o 4 '0E~06 GI-LI.I 0 ~

5 ~ 16E >10 5 ~ 94f ~ I~

te30E ~ 49 t ~ SSE406 I ~ l9f. ~ 05 3 ~ 45E cIl 5.53E cb&

1 ~ ltE ~ Dl 1 ~ 25fcC&

tokbtcb&

h 50f t05 to56E>06 6 ~ 991 ~ 09 lo49E lob t.o3Ei t ~

1.&bfi~I 1 ~ 3lftol t.13E ~ ~ 0

~ e

~.40ft06 SKIN t o37c446 5.7&fit~

6 ~ 90E iII 2 '9co09 2'3it06 9 ~ 74f ~05 4eSZEt07 6 7tfio&

2 ~ 09f >07 1 47fc06 3o ~ lf>06 5'5E ~ OS 2 '9E~I&

~ otSE<09 te&9ftob 1 ~ ZIE~ lb 1.90f ~ 4 ~

te54fi07 1 e3lf <00 De teotE ~ 47 lolaL eooT D ~

5 ~ 16f ~ 14 5 90fao ~

Zo30E4D9 t-55fi46 I~ 79ft05 5 ~ 05f c Il 5 ~ 53f 106 t.ltfi07 1 25fto&

2'IE>06 4.SIE ~ 45 toS&fto&

6 99fe49 1 ~ 49f ~ Ib

l. 43E ~ 10 t.&biiob 1 ~ 37f 107 13E ~DO 0

be 44E 406 i.a<c~

CN 1 uCI/S:C <ELfabf Ra15 CF EaCN ISOlOPE IH a<<O A VALUE OF 1 ~

FOR X/4, OEPLEIEO X/O AHO RELAIIVf DEPOSITION

OL/25/r9 EHVlRONtlEHLAL. PATHNAY OOSE CONVERS10tl FAGiORS PALHNAT lNNALA31ON FOR GASEOUS QISCHARGES AGE GPOUP - ACULi t~UCL 14c BONE LiVEP.

THVRG10 ORGAN OO3 E

F A

C 1 4 R

S IHILEH/VR PEP UCl/CUetIEiERL oooo'\\

&%Do \\woo%\\\\oe'Rooooooooooe\\ooe e \\e Ooooo RlONEV LUNG Gl LL1 SKLN iOiAL BOOT H

e C- -I>>

P---32 Co--SL

>II 54 f eeC9 CO-5l CO -54 ro--Eu lll -63 t:I -65 RB -b6 SR -b)

SR 94 gee ZRo 95

'I5 I'U 103 I II 106 AG113'I r9115<I 0 ~

le 02E t 04 1

32ft06 Oe

) ~

1 ~ 1 bf 't 04 4 ~

9 ~

4 ~

~

4 ~ 324<05 3 ~ 24E>04 0.'e04 105 9 ~ 926 ~ Ol 4 ~ btf ~ 05 1 ~ Dtf ~ 05 1 ~ +LE ~ 04 1 ~ 53E ~ 03 6 ~ 91E ~ 04 1 ~ Obf tC4 0 ~

1 ~ OlE ~ 03 3 ~ 42E t 43 lol2EI 44 D ~

3 ~ '}6EI 04 2 ~ lbftbl 6'2EtD2 L,5bft03 LE 15E<04

3. 14Et 44 1 0)ft05 35f.t 05 0 ~

0 ~

4 ~

3 ~ 44ft04 lebtft03 0 ~

0 ~

1 ~ DOE t 04 L ~ 9lf<05 1 ~ Olf>03 3'2Et03 0 ~

5 ~ 95E ~ 01 4 ~

0 ~

0 ~

0 ~

4 ~

0 ~

0 ~

0 ~

0 ~

4 ~

~ ~

0 ~

0 ~

4 ~

4 ~

0 ~

4 ~

L ~ OTEI43 3'2ft43

~ ~

2'4f

>44E~43 4 ~ 4 ~ 0 ~ 0 ~ 4 ~ 6 ~ 94f >DID 0 ~ 0 ~ ~ o lo 5 ~ 42E I04 ioi4Et43 5'3EI ~ 3 1 ~ 34E IDS 1 ~ 91EtDO 1 ~ 54ftl5 1 ~ Olft03 3>>42f>03 0 ~ LE 44ft04 1 ~ 40E I46 lo ~ 2E ~ 46 3olOE'tDS 9'bf<05 5'4E~46 le lbf ~ 05 be 2tf>05 4 ~ 1 ~ 4OE ~ 06 9'4E F 46 L.lof~ 46 1 ~ lbf ~ 06 5 ~ 46E ~ 05 5' 6fi45 9 ~ 44f >06 4.64E>06 1 ~ 4LEI46 1 ~ Off~ 03 3 ~ 42E ~ 03 4 ~ 64EI ~ 4 3 ~ 32E I ~ 3 2 ~ l4fI44 1 ~ Obf ~ 45 14E +04 1 ~ 46E ~ 05 2 ~ bsf t45 1 ~ 34E I44 Sr 34E > ~ 4 1 ~ 66E Iil4 3 ~5lf ~ 05 2 ~ 22E~ 45 3 ~ OSE I05 1 ~ SOEIDS l~OSE ~ ~ 5 1 ~llf<05 9o 12E ~ 45 3 ~ 42f IOS 3 ~ 44f IOS 0 ~ 0 ~ 4 ~ 0 ~ ~ o Oo 0 ~ 0 ~ ~ o 4 ~ 4 ~ 4 ~ ~ o ~ ~ ~ o 0 ~ ~ o ~ o 4 ~ 4 ~ ~ o 1 ~ OlfI 43 3 ~ 42E >43 5'2ft44 L ~ Obfi42 6' '143 1 ~ 06ft04 6elLEI42 2 ~ Olf ~ 43 1 ~ 44E ~ 04 1 ~ 45E t 04 4 ~ 66E ~ 04 5>>90ft44 bol2E ~ 43 6 ~ 1 ~ EI ~ 6 1 ~ 24E~ 04 2'3ft04 4 ~ 2 1F. > ~ 3 6'bft02 ~ e 22E ~ 03 5'4ft03 6.36E F 43 Otl 1 UCL/S.C RLLEASE RAi OF EACH lSOiOPE lN AHO A VALUE OF 1 ~ FOR X/Oo OEPLE'ifO X/4 ANO RELAilVE OEPOSlilOtl 0 0 . t.u.r utirit;ILL FAInttAf-COSi Cut(VEKSlON F AGIO~5 P IhlilT INtt>LfIluti FOR GAScOUS G(SCtlA&GES AGE GKUUP AGUI.3 t.uCL I Oc O il G A tt O O 0 F A C 3 O R S ItlREtl/VR PER UCl/CUeHcYEFI '-I >3 Sit-I 2>> S'I-I 25 3c 12$ tl 3 i 12/tt li 12>>il 1--114 I -I II 1--112 I--I I3 I--lti 3--1S5 CS -13>> CS-136 CS -137 OA-Ilail Ci-1>>l CE I>>4 PR l>>3 tiO 141 9itof 2.42it05 L.26ftbb 3.12ita4 o.blita4 3.42c ~ 03 I 26E ~ 04 it.rb:t93 >>~5$ E ~ 03 2 ~ $ 2c ~ us 1 ~ Ibi td3 iobli~ 03 t ~ 4$ c F 02 2 '9ctD3
3. 74c ~ C5
3. 91E ~ 04 4 ~ llct05 3.90'4 L.99E F 04 1.4 3E F 06 9.36E F 03 5 ~ 27it03 L LVci.
5 ~ 33E ~ 03 3 ~ 34E t04 5.49c F 02 7.1 3E ~ 02 L.bicta3 5 ~ 62E t03 4 ~ 67c t 43 I ~ 34 it04 3.54ct04 3.26E. ~ 43 I'9c ~ 04 L.rlit03 6e99ct03 ~.t lct05 1.46c ~ a5 6 22ft45 4 '4ct4L 1 35ct44 I'3ct06 3 75ct43 6.14itD3 3ttWRCLQ >>.53ft43 9.44c t03 7.55:tal S.Brutal I 05Et03 3'9ct03 3'>>4'3 I ~ 74ctab I ~ 19c t 47 4.34E ~ 4S 2'3Et06 2 '0E ~ 05 9 '6c ~ 45 0 ~ ~ o ~ o 4 ~ ~ ~ 4 ~ 4 ~ 0 ~ KLOtti'3 4 ~ 4 ~ a. 0 1.24E t44 4.50fta4 3 ~ 666 tav 2'9ft04 6.14E t44 5 '9'3 2 60Et44 2 75E ~ 43 1 ~ LIE t04 2 40Et05 4'6ct04 2'2ft05 1 ~67ftll 6.26ctl3 4 ~ Cift0$ 2.16E t03 3'bft03 LUNG 2'4ftdb 9'6ft46 2 4' '6 2'lc F 06 3.1>>c t 05 9o64E t45 I ~ L6E tab 4 ~ 4 ~ 0 ~ De 4 ~ 0 ~ 9.76Et04 l.2li ~ 44 7.$ 3ft04 I'7ftab 3'2it45 7 ~ 74f tl6. 2ollft05 2o21E ~ 05 G3 LLl 3 ~ 14E ~ 05 1 ~ 27E t 05 4 ~ 06E ~ 05 I ~ ~lft05 7 ~ Dbftll 1 ~ $4Et45 3 ~ 43E ~ l5 ro69it43 6 '4Et03 4 ~ lbft02 l 72f tD3 1 ~ Dict Dl 5'5E F 03
l. ~4Et4t, 1 ~ 17E t44 l ~ 44E ~ 43 2 ~ llEt45 1 ~ 2ilft D5 4.16E t0$
2'li~ 05 I'3'5 0 ~ 0 ~ 4 ~ 0 ~ ~ o Do 4 ~ ~ ~ 4 ~ 4 ~ ~ ~ 4 ~ ao 4 ~ 0 ~ 4 ~ ao 4 ~ 4 ~ ~ ~ 4 ~ SKLO 303AL BOOT 7 46Ft03 4.40E t04 I.24E tal I 33ft04 4.67ctl2 I 57Et03 l.5lft43 5 ~ 29E ~ 03 05ft04 I ~ 16itD3 4'4ft03 be 16f ~ 02 2'4ct43 7.29E ~ 05 I ~ 1lft45 4 ~ 29E ~ 45 2'7ft03 I ~ 53Etl3 I-44ft45 4.63ft02 3'5Et42
A.id Cii I UC1/5;C hcLiASE tiAIi CF EACN lSOEOPE 1N ANO A VALUc OF I ~
FOil X/0 ~ OEPLEEEO X/O ANO itELATLVE OEPOS37lON 4 I/25/19 FHVIROtltIEHIAL PAIHIIAY COSc CONVERSIOtt FACIORS PATH<<AV - HEAT ICOHIAtlIHATEQ FORAGE I FOR GASEOUS OISCHAPGES AGE GROUP - ADULT HUCL 10c 0 R G A H 0 0 5 f F A C I 0 R S ISO ~ HcIER HFEH/Ya PEF UCI/SfCI DO<<f LIVER THYROIO KIOHEY LUNG Gl-LLI SKIN 101AL 800Y tlr.--- 14 F --32 Ctt 51 tIH--54 Fc -59 ro--51 CO--ch CD--6) lit -63 I<<--e5 ~8--he SR--49 cI --94 Y --93 ZS--95 t<<8--'IS )U IDS FU-toe AG I I DH 00115<< 0 ~ 3 ~.33E<<45 4 ~ 61E<<49 4 ~ 4 ~2.61'h 0 ~ 4 ~ 0 ~ 1 ~ h9E <<49 3 '6'Etol I~ 3 '3c<<.04 Z5f<<14 1 ~ 14f <<46 I ~ llf<<46 2 TIES 06 1 06E <<Qtt Z ~ 30E<<09 6 ~ 1lf<<06 0 ~ 4 ~ 13E<< 02 6>>llft44 2.93E<<04 0 ~ '9 ~ 1 4 Et 46 6 ~ 33Eto ~ 5 ~ 64E t 46 t ~ 43E <<Ol lo 55E<< 41 1 ~ 31E <<04 1 ~ 13ct49 Ie ~ 49Eto4 0 ~ 0 ~ 0 ~ 1 ~ El ft06 1 24-t46 0 ~ 0 ~ 6 '1E<<06 1 ~ 46E<<46 4 ~ 13f <<OZ 6 ~ 61E <<04 ~ o 4 ~2IE <<03 0 ~ 4 ~ ~ o 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ ~ o 4 ~ 4 ~ 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ 4 ~ 13E t02 6>>61f t04 0 ~ 1 ~ 56E <<43 2>>13E t46 ~ o 0 ~ 0 ~ 0 ~l ~1,51ct04 4 ~ 0 ~ 4 ~ 0 ~ 2 ~ Olf <<46 1 ~ 21F. <<46 4 '6Et44 5 ~ 41E <<49 1 ~ ZZE <<ll 1 ~ 166 <<06 4>>13E<<02 6>>61E<<44 4 ~ 9'4Et43 0 ~ 1>>16E<<0 ~ 4 ~ 4 ~ 0 ~ 4 ~ ~ o 0 ~ 0 ~ ~ o ~ o 0 ~ 0 ~ ~ o 4 ~ 0 ~ 4 ~ 4 ~ 13f <<4Z 6 ~ 61f << 44 5 ~ ZSE ~ 44 1>> llE<<06 2>>01E<<41 t>>09E'<<09 1 43ftll 3.10E ~ 44 1 ~ 4tE ~ 09 t >>13f <<41 1 ~ 13E<<04 9 ~ 64E ~ Ol 4 ~ 44E << ~ 1 l>>45E<<09 6 '6'4 l>>30E<<09 l>>15E<< 09 1 ~ 24E ~ 10 t>>4tt<>53E<<09 6>> 15E ~ 01 4 ~ ~ o 0 ~lo 0 ~ ~ o ~ o-0 ~ Oo ~ olo 0 ~ ~ ~ 0 ~ 0 ~ ~ o ~ ~ ~ olo 0 ~ 4 ~ 4>> 13Etot 6.61f t 04 l>>41E<< ~ 4 1 llE<< 43 1>>15f <<06 2>>4lf <<44 9 ~ 34E << 06 4 ~ 09E t 41 1.66E<<44 6,335<<01 5 ltf~ 04 2>>20E<<0 ~ 4>>61E<<46 3 '5E<<09 3>>45Et44 4 Z6E<<05 5>>42c ~ 05 4 '9E<<01 3'4E ~ 44 3'9Et06 4 ~ 61E t04 I AS <<9 Cg I IICl/5 C 0-LcA"E RA CF EACH I CIOFE IH AHO 4 VALUE OF 1 ~ <OR X/0 OEPLEICO X/0 AHO RELAIIVE QEPOSI TIOI'IOI E - Tlot lt<<ITS FOC 0---14 A'IO H --3 AAE (IIREH/YR PER UCI/CU IIETERI 4 Ot/25/7< =NVTRO>>MENTAL FATMIIlY OOSE COHVO'.Sio>> FlGTORS PAT>>HAY - HEAT ICOHTAMlHATto FORIGEI FOR CASfoUS olSCMARCES Acf croup - Tft>>arfp IIUCLIOE 0 R G A H 0 0 S E F A G T 0 R S ISo ~ METER NREM/YR PER uct/SECI N aiie 1 Ceeet<< r---32 liR -51 Mi4 e 54 Ff-59 CJ--57 CQ--54 Co--64 >>t--et 7H--65 I'0 b6 CO SR--40 Y---91 li--95 Iib--95 PU-103 tU-106 A G Il ON C011 54 'IOI0E 0 ~ 5 ~ 2IEt04 'el6E ~ 49 0 ~ 0 ~ 1'42 F 04 ile 0. 0 ~ 1.12Et09 z.ttft04 J ~ 2 '6E>bb 1 ~ 0 ift 10 9 T<<ft05 2 ~ 676 t06 le 5bf, ~ 46 0 ~ 05ft07 2.<<dft09 le97E t06 ~ ~ LivER 1 ~ 93Et02 5.23ft04 1 ~7'lft 04 0 ~ 5 ~ 42E ~ 06 3e l4E t 44 33f t46 t-<<<<f t07 5 73Et0l le l4ft 4l 6 ~ 69Et04 2 49Et04 0 ~ 0-4 ~ 2<<ft oe 9"5tf ~ 05 0 ~ 4 ~ 3'7Et06 4.6<<Et45 THYAoio 1 ~93Et02 5 '3E ~ 04 0 ~ 2 ~ 54E ~ 03 4 ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ Klo>>EY 2'<<Et02 3'<<Et44 0 ~ 9.zzEtoz t ~ 61Et46 0 ~ 4 ~ 0 ~ 4e 0 ~4.<<l f. t04 0 ~ ~ e 4 ~ ~ e
1. t4 f,toe le<<4t t05 2'0ft4 ~
3'0E t09 l.zlft46 6.45ft05 LUHG 1.93f ~ 02 5 '3f.t44 4 ~ 5'5Et03 0 ~ 1 ~0<<Et' ~ 0 ~ 4 ~ 0 ~ 4 ~ 0 ~ 0 ~ 2e l9E t04 4 ~ ~ e ~ e 0 ~ ~ ~ 4 ~ 0 ~ Cl LLT 1 ~ 93E t02 5'3f A D<< 3 ~ 1 ~ Etb ~
l. ~ 5Et06 1 ~ 66Et47 1 ~ 24ft09 4.45f t47 1 ~ 94E t44 6 ~ blEt04 1 ~ 61t ~ 07 4 ~ 21E ~ 0 ~
5 ~ 69E t47 2 ~ 49E t Ol 1 ~ ~2Et09 3'9ft44 4 ~ 20f t09 3 '4Et09 6'4E ~ 09 1 ~ 09f t 11 1 ~ 50E ~ 49 3'3f ~ 47 SKTN 4 ~ 0 ~ 0 ~ ~ ~ 4. 4 ~ 0 ~ ~ e 0 ~ 0 ~ ~ ~ ~ e 0 ~ Oe 0 ~ 0 ~ 0. 4 ~ 4 ~ 0 ~ 0 ~ 'TOTAL GOOY 1 ~ 93f t02 5 ~ 23= ~ 04 t Olft44 4 ~ 14Et03 le0<<f ~ 46 le<<2Et4 ~
5. 5<<f ~ 06
3. zlf ~ Ol 1 ~ 3tft 44 3 ~ l<<f ~ Ol 3e03tt04
1. 35ft04 le64ft06 2'9E ~ 09 2'9t ~ 0<<
le61E ~ 45 5 ~ 37Et05 3 ~ 60f ~ Ol 3.02ft04 2'bEt46 2 ~ l6E ~ 44
A':) o4 I url/Sfc Oftfasf Palf uF EACH ifoloPE lH AHn a vaLuE OF 1 ~
FoR X/0. 0EPLETEo x/0 A>>II RELallvf oEPDST'Tloi, >>ot: - TM: u>>lTS sob r.---t<< l>>o M----3 Aff tNIEN/Yk PER ucl/GU.NETERI e It/25/79 EHV1%0HiIEHTAL PATHIIAV"OOSE COHVEHSlOH FACTORS IiATHllAY HEAT ICOHTAHTHATEO FCRAGEl FOR GASfOUS 01SCHA.GES AGE GROUP TEEHAGEP HUCL lci 0 R C A H 0 0 S E F A C T 0 R S ISO ~ Hc TER-iIREH/YR PcR UCl/SECl SH 125 cN 126 S8-124 f9-125 TE 125H Tf 121H 1 i 129H 1--134 1 131 1 152 l--i53 l--l14 1 -115 CS 114 CS 156 cs 151 IIA-t<<0 Cf-t<<t Ci-144 Fh-l<<5 l>0 1 '-1 AOHE 0 ~ 1 10ci14 le lrf~ Cr 5 ~ 0 if~01 5 ~ 93E ~ 00 6 ~ 64E iO ~
9. rbfi04 1 ~ 41E-46 I ~ 54E ~ 46 0 ~
3 ~ 69E-11 0 ~ 5 ~ OIE-02 5 ~ 05E<44 6 '9E<C6 6'2E F 44 2 ~ 31E <41 1 ~ lREi44 teRhf ~ 06 262'4 1 ~ 0 ifi 04 'lVER 4 ~ 2olbf>QI RoZtfiCS 1 ~ 31f ~ 01 teDOE ADO Zo 34E>44 3 ~ 63E 4 00 4 '6E-O6 t.Ztfior I ~ 6 ~ 26E 01 4 ~ 4.69E-OR toZtf<09 2 '6'r 9 ttf>0~ 2'3i>04 1 Stf+03 5-23f F05 5 ~ Olfi03 5 ~ 49f i 03 THTROTO 0 ~ 6 ~ 3bf ~ar 2 ~ 44E ~ 04 t oOZE401 4 ~ 55f tbr t.rrfo00 3 ~ 13E 00 ~ 5 '0E-04 3 'IE~49 4 ~ t.t4E~DZ Do 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 4 ~ 4 ~ KTOHET 0 ~ 0 ' 0 ~ to03E>04 ~o63ft00 2'9E ~ 49 2 ~ 03E ~09 6 ~ 41f -06 1 ~ 56E <41 0 ~ 1 ~ 44E-Ot D ~torbfo02 3 40E i00 1 ~ 54E 441 2'0E<0 ~ 1 ~ 2 ~ E< ~ 3 2'tf403 2 '4E~OS 2 ~ 92f 403 3 ~ 'lZE <03 LUHG 4 ~ 3obZE+46 9ottf~06 1.4rf>09 I ~I~I~ 0 ~ ~ o 0 ~ 4 ~ ~ e 5 ~ 34E ~ 3 1 ~ 41f F00 Zottfi06 1 ~ 24f< ~I 1 ~ 95E~44 lo lo ~ o ~ ~ Gl LLl I ~ 3 '6E>09 3 '2E>44 2 ~ ZSE444 I ~ 41E~O ~ 3'5fi09 3e4tf+49 3 '1E-06 2 ~ ZOE ~ 06 ~ ~ Ii ~ 55E Ol ~ o 1 ~ tOE 03' 40f ~Dr 3ot4E>06 1 ~ 24f F01 9 ~ t9f F06 2 ~ 03f F41 3 ~ 40f ~ Ol 5 ~ 52f ~or Zo44E >Ir SKTH ~ ~ 0 ~ 4 ~ ~ o 0 ~ ~ o ~ oI ~I ~ ~ ~ 4 ~, ~ o 4 ~I ~ 0 ~ ~ o ~ o 4 ~I ~ ~ ~ ~ e TOTAL 800V 4 ~ 3o 14E>04 4o64E>06 1 60fi46 4 ~ 42ctlr I~ ZIEi01 to53fto ~ 1 ~ 64E 46
r. 19E F06 0 ~
1 ~ 93E Ol 0 Zo44E OZ 5o66E >40 1 ~ 99E> ~ 1 3 Zrf~bo t ~ 53E i 06 be6tft42 6 16'4 6'6fi02 tbfibZ 4a.:iI U I I Ucl /ScC RELEA"1 RATf CF EACH 1SCTOPE lH AHO I VALUE OF 1 ~ <OR X/0 ~ OEPLETEO X/0 AHI'ELATlVE OEPOSTTJON 'IOIc - TM-. UHI TS FOc C---14 AkO H- -3 AXE IHOEII/VW PER UC1/CUe'IETERI 01/25/7 9 ENV lRONMENlAL PAIHHA7-DOSE CONVEPS10N FAClORS PAlNHAy COus MlLK 1CoHZAMlNAIEO F0RAGEI FOR GAScOUS OlSCHARGES AGE GP.OUP 'lEEIIAGEP. PQCL lO" 0 R G A N 9 0 S E F A C l 0 R S lSO ~ MElfR NREM/YR PfR UCI/SECI MC---tv -- It Gk--it wV--Sc Ff--59 C3 "57 CO--54 GO -60 N't --63 7H--65 PS 46 Cg e SQ--30 3e rk 95 Mfl hi fU IO'I IO6 AG I IO.S Co IIsn OONE 4 ~ tet5E ~ 05 2 ~ Ztf~to 4 ~ 0 ~ 3.4CE ibr 0 ~ Oo 4 ~ ho6bc449 t.rlfio9 0 ~ 2 ~ OOE409 3'9fttb t.scfooc C. rbf ~OC 1 ~ Zcflos I ~ 69f ~ 03 I hlfioa 7.53fior 0 ~ LlVE0 9'3ftOZ lo25fio5 1 3'>49 0 ~ to09E i07 'I ~ ttf >al 1'Sf<46 ~.tofi06 te73E ~ al 6 ~ Otftaa 5.63fi09 3.35fi09 0 ~ 4 ~ Oo 2'4E404 lo46E 4 OC 0 ~ 0 ~ 6 ~ 97E tbr 1 ~ 6tf ~06 lHVROlO 'io93E F 42 1 ~ 2SE ~ 45 ~ o 2 ~ Ztf40C 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ ~ o ~ e ~ ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ KlONEV 1.26fi03 9 ~ 39f <DC ~ e ~ otSE>43 3ot3fi06 ~ o 0 ~ 0 ~ ~ o 0 ~ 3 ~ rrf>09 0 ~ 0 ~ 0 ~ 0 ~Z.tsfiec So ~rftoc VOCE>03 5.09fiac 1 ~ 3rc ~ C ~ 1 ~ Zaft46 LUNG 9.93fiot ta25fi05 ~ o C ~ 90E <OC Oi2.53fior 4 ~ 4 ~ 4 ~ 0 ~ ae 0 ~ Oo 3o34E<06 0 ~ 4 ~ ~ o 4 ~ 4 ~ 4 ~ ~ o Gl LLl 9 ~9lftot 1.25f ias ZaCaft09 9o29E ~ 46 3 ~ 33E 407 3iatf t ~ 4 c o 19E >al 1 ~ taf>44 3 ~ Zrf ~ 04 1 ~ 26Etab 3 '5E ~ D9 6 ~ 61f ~0 ~ 3.03fiab ter6fi09 S.93f F06 1 ~ lsf <4 ~ 3 ~ osf~o ~ te32E ~ 45 1 ellE e46 2 ~ 4CE ito 6irrfi47 SKlN 0 ~ 0 ~ ~ o 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ ~ o ~ o oo ~ o ~ ~ ~ ~ 0 ~ 0 ~ ~ o ~ o ~ o 0 ~ lolAL BOOED 9 ~ 93E ~ 42 lo Zsf +05 bosCE iob 3.69E ioc Zoblf>06 3 ~ elf ~ Ol Ze l5E ~06 1 ~ 45f ~ 47 6'3E407 Zo9tf ~ 04 2 ~ SSE <09 1 ~ 56E~49
b. 43ftal 2 ~ 05E ~ 1 ~
Co ttftot 1.60fiac C.ttfiac 7.56%~02 C.btfi03 c.tcfiar 5.1CE i Oc 'I S=.G RELEASc RA16 CF EACH lSOlOPE lH AHO 4 VAlUf, OF 1 ~ FOR g/0 OEPLflfO X/0 ANO RELAllVE OEPOS Ht rf -- IME UHllS Pof C---IV ANO H-3 ARL IHRcH/VR PER UGl/CU HflERI i<<ylnc<<<<f N5AL Fal<<MAT-OJlf COHVii SlOH FAC1ORS Par<<<<AY - CO<<f NlLK lCCHta<<lHalco FORAGit FOR GASEOUS OLSCHAI'GcS ACiE G5CUP YcENACifR <<<<GL iOE iohc OSGANOOScFAC1OWS 5SRNE'liRNHEH/Yit Llyc ~ THY4010 rlOHE 1 LUllG Ci1-LL1 Pf R Ucl/Sf G 1 &oo& Srlo 1O (iL QOOY
<<-l?1
'N 12o Sh-t2>> c io-1 ~5 1 125<< l c 1? 7H lf l2'00 1--1 50 1--t 51 1-152 1 l 13 1--l 5>> 1 135 CS -1 tw CS-5 Sb CS -1%7 La l>>o Cc 1st Ci-t>>C Fit-tent <<O-1 G ~ 2 12c ~ 09
3. 311 ~ 07 3>>52 ~itr Ooi) 47 oo 02f ~ 47 1.1SE ~ 40 5.5tf i05
5. t Rcio ~
2 ~ 16E-41 7 35fo06 Oi 1 ~ 4li~ QQ 9-CCS ~ 49 s ~ 57E ~ 04 1 ~ Roil 14 Iuc ~ 0 5o05ciGC C ~ 5 oct 06 2 45ii42 to+9E402 0 ~ Co 2ti 407 6 ~ 29E o 05 9,caic05 5-oaiiar 2o 1lii07 C ~tlftor 1 63E106 ro Rci>44 5 76c-01 toRCE ~ 07 0 ~ li~ rrcioC 2.2 ~ cita 5.%3fi09 1.72io la 5-95fioc 3 ~ 39itQC 1 ~ 64it06 4.25caot t.ccfioR 0 ~ 1 ~ 2>>f >or 4.05f.o>> 5.05E ~ 05 I ~ Crc ~ 06 t.59Eior So6titor 2 ~ orf boa 2.49E ~ll 7'9Eiot 2.26io09 1 ~ 29E-49 6.2qfi06 0 ~ ~ o ~ o 4 ~I ~ ~ oloI a. 3 ~ 4 ~ C ~ Oai 100 0,55ctar RoCSCOOI 3 Rrf+44 2 53f ~ 06 9o Slf >04 9 ~ 19c Ol 5.56E iar 0 ~ 7 ~5lf ~ OC 5.63E ~ u9 robtcta ~ c.~SE i09 5o44i ~ 4C 1 ~ 1 ~ E ~ OC 6 ~ arct05 ~.75iiat 4.7CE ~ 41 0 ~ 6 ~ OScid6 2 ~59iior 3'SE409 0 ~ 0 ~ ~ o a. 4 ~ 0 ~ 0 ~ ~ o 9 ~ 79E 02 2'6if+09 1 ~ ORE 14 ~ 2 Rafi09 3 ~ 94ftac 4 ~ ~ o ~ ~ 0 ~ I ~ 5= Ctii09 I ~ Clf<0 ~ 2 '5Etoa ~.39'7 3 ~ ORE<0 ~ 3 ~ 93E>04 1 oC ~f ~ 46 1.37fiaa 1 ~ ~If ~ I 9 ~ IRE ~ l6 I ~ 5 ~ 3iif44C R ~ 63fcaa 1 ~5lf ~ 4' '9fia ~ 9.16E ~ 06 9 ~ 1 ~ E ~lr 9 '5E boa 4.94fc05 6 ~ IREc05 4 ~ S ~ 4 ~ 0 ~ ~ ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 4 ~ 4 ~ 0 ~ 0 ~ ~ ~ 0 ~ ~ oI ~ 0 ~I ~I ~ 0 ~ 6 ~ Sritor to 32fior 6'2ft06 3 90E t46 7.+5fio6 l.razor
6. Clf~ 05 CD 35E F 00 2, ~5c 41 3 ~ ~ Sc ~ 06 4 ~
1 ~ 75f ~ OC 1 ~ 06E ~ 14 9.5aE ~ oa 6.ICED 09 3 ~ 1tf ~ 06 3'9ft03 R.trfo05 1 IRE>at 9 CIEtoa -"A. iO ON 5 UCl/SEC ecLEASE Ralf Of EACH lSOIOPE lH aNO A VALUE OF l. FOR X/R. OEPLElfo X/R ANO RELallVE OEPOSlllOW <<Cl: - 1<<= <<nil'5 FOli C---tc ANO N----3 aff {NGiN/Yk PER UCl/QU ~HElfR) 01/ts/rq EHVlROIIKEHTAL PATNMAY OOSE COHVERS10h FACTORS PATNHAY FRE N IHO STOREO FRUlTS IHO VEGETISLES FOR GASEOUS OlSGHIRGE S IGE GROUP TEENAGER IIUCLTOE 0 R G I H 0 0 S E F I C T 0 R S 150 HETER NREN/'YR PER Ucl/SEGI HC---14 o---32 C9 -51 Nlto So Fc 59 CO Sl CO -5% ro-64 II1 63 rII--65 c~--be 6< 49 Sc --90 qt 7%--95 IIO --95 IU 103 T.U-l ue AG110H COt 1 SN nnHE 0 ~ 2 ~ rtf ~ 05 le 13f <Oq 0 ~ 0 ~ 1 ~ 3iiE ~ 40 0 ~ 4 ~ Oot ~ tbf>tb 3.5rf F 0' ~ 1.SOEi10 )o40ftlt r.eq'bc t oblci06 t ~ 69E ~ 05 6 ~ 46fobe to 154 ~ 04 1 19= ~ Dl 0 ~ LTVER toSlf 103 t.rtfF05 le06ftbr 0 ~ 3 ~stf ebb 3o tbf ebb 1'o3tf >Or 4'5ftbl 2'4ftbb botbftbb t 14E<09 1 ~ 942'4 Oo Oo 4 ~l~ 03ft 05 1 ~ 42 f ~ DS D ~ 0 ~ 1 tbfibr 5 ~4tf+Dl TNYRCTO 2 ~Slf F03 t.rifebs 4 ~ tor4E>04 I ~ ~ ~ 4 ~ ~ ~ ~ o ~ oI ~I ~I ~ 0 ~ 4 ~ 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ KlOHEY 3'4ft03 to ~ 3E ~ 05 0 ~ 1 Otf F04 1 ~ Osf F00 bo Io ~ o 0 ~ ~ oloslf ebb ~ o 4 ~ Oo 0 ~l 9DE t45 0 ~ DOE> ~ 4 1 ~ 93E ~ Ol 4 '4'4 2 ~ llEtbr 4'9E
05 ~ o6.0bf ~04 boIobbfebl ~ o ~ o ~ o ~ o ~ o ~ o Io 3o36f >49 I~ ~ oI~ ~ o ~ o ~ o ~ o Gl LLl 2 ~ Slf F 03 t.lifebs 1 ~tlf<04 totsfibr 1 ~ ~bf ~ 09 io05EI09 3'4ft44 6obtEI ~I 2 '3E>09 torif404 ro}3ftb~ 3 '3E<bl t.rtfF09 2 ~9lfilb 2 '5fi09 1 ~ 06E i09 4otSE ~ I~ 5 '4E>04 1 o43E 4 1 ~ 4'bft49 totbf409 SKTH ~ o 4 ~ ~ o ~ eI ~ ~ o 0 ~I ~I ~I ~ ~ e ~ o ~ ~I ~ bo 0 ~ ~ o Io ~ ~ 4 ~ ~ ~ TOTAL OOOY 2 ~ srf~43 tel tfobs
4. 36Ei br 4.50E F04 6 ~ rtfibl totlfOOO to tqft 4l toOtftbb S.srfibb 3 ~ 96f ~40
5. 1tfF00 9 ~ Defibl 4e Ssf ~ 04 2 ~ 33E >it 2 ~ 06E ~ 0$
4 ~ 66Et 05 5 l3E o04 2 ~ 49E 106 3 ~ qef>br 6.56E F06 1 o l3E ~ 06 ib 3, Oll 1 UCl/S G ~ "LEASE I'.ATE CF EACH 1SUTOPE lN INO I VALUE OF 1 FOR X/0 OEPLETEO X/0 ANO RELATlVE OEPOSlllOH
Ni1- "
1 Ni UHl 15 Fnq C---t 4 AKO N- - 3 AFE t NWE I/YR PER UCl/Cu.<fTE%1 01/25/19 ctlVlNOllHENTAL PATHNAV "BOSE GONVEFSTOH FACTORS PAYHllAY ~ FRESH AHO STOREO FRUl TS AHO VEGETABLES FOR GAScOUS 01SCHARGES AGE GPOUP TffHAGER I:UGL10. OCIIE L1VER TIIVR010 KlONEV OPGAH OOSE FACTO R S ISO ~ HETER NREH/VR PER UCl/SECI LUHG G1 LLI SKlH TOTAL 800T Sll-123 eM-126 cb 12>> 58-125 TE125H Tc 127K Tf 129'I l 134 1--131 1--132 1-133 l--1 lv 1--135 CS-I 14 CS 136 GS-137 RA 1>>O C=-l>>1 C= 144 FR-143 HO-Ivr 9 ~ 25c 06 7'9E ~ 49 l>>12fibb 2 '3E~OO 1 ~ 44E~O ~ 3 ~ bbf ~ 44 3>>14EIOA 2 ~ SOEI05 re 33E ~ 47 3>>GSE ~ 41 1 ~ 9bf~b6 6>>15c-05 2 ~ ASE ~ lv 6 ~ bvf ~09 3 ~ 25E ~br 9>>6bf~09 1'$ !~02 2>>60'5 S.vrfibr 5>>20fibv 9>>lb'4 l>>53E Or 1.54fio ~ R>> 1 if~ 06 l>>66EI07 Se TOEID7 t ~ 56E>04 t>>39ftbb 7>>64EF05 1 ~ 43ft ~ 4 9 ~ 71 fibt 3>> 36EI06 1 ~ 43E 04 1>>OOfi 04 t>>65E>tb 1 ROD 04 1>>31E>10 1 rbft05 t>>19E>05 2-25ftbr 2>>02E F 04 3 ~ SSE 444 1 ~ ZZE 01 4e53f ibr R.rtf ~ 05 1 ~ t6E 107 4 ~ 1 ~f>07 t ~ 03E iO ~ t>>20fib ~ 9 ~ 12E ~ 07 2e99E ~ 10 1 ~ 29f ~ 04 6>>tbfib ~ 2 ~3lf 02 9>>tSE>06 0 ~ Oe ~ e 0 ~ ~ e 4 ~ 0 ~ 4 ~ 0 ~ 4 ~ 0 ~ 1 15fibb 4 ~ RREI ~ 4 1 ~ 56E>09 te ~ OEI09 1>>19E i06 1 ~ 34E IO~ 1.56E iOR 4'3E I06 2 'RE-44 1 ~ 1if~ 05 4 ~ 44E ~ l9 1 ~ 13'1 3 ~ 35E iC9 4'2ft04 6>>25E >04 9 ~ tr E I06 1>>16E ~ 04 2.91fi04 Oe 6 ~ btf+or ~ ~ 69E+01 R. ~tfit~ 4 ~ le 0 ~ 0 ~ ~ e ~ e ~ ~ ~ e relRE-OR 2>>40f ~ 09 9 ~ rbf ~ l6 t>>73E>09 t.t3fI05 0 ~ 0 ~ 0 ~ ~ e 1 ~ 33E 05 1 ~ 02E < lb 3.trfi09 t>>ORE I09 4>>lvfI ~ 0 1 ~ 95E 409 - 1 ~ 31E ~ 09 6>>55f F05 t>>96ftbr 1 ~ 44E ~ ~ 1 2'4ft06 1 ~6lf 01 r,llfo ~ I, t ~ 9bf ib~ 1 ~ 46E ~ 01 t.rCE ~ 0 ~ 4 ~ 94E lb ~ 4>>brf >0 ~ 1 ~ 29E ~tl 2 '9EIOO t>>45ftbb 0 ~ ~ e ~ o 4>>l>> ~ e 0 ~ ~ e 0 ~ 0 ~ 0 ~ ~ e ~ e ~ el ~l ~ 4 ~ Oe 4 ~ ~ e 0 ~ 2 ~ 206 07 2>>54E ~ 04 4 ~ CRE<07 4'0E~07 1 ~ 97'E ~ 47 4e blfilr 5'0fiF 1 3 ~ 0 ~E>05 6>>trf> ~ 7 3'rfibt 1 ~ 04f f46 6 ~ 56E 45 2-Srf F04 1 ~ 69f F09 9>>23fi01 4 ~ Srf 109 ~ >> 46E i06 2>>orf +44 2 ~ 91f >06 2>> 49E +43 SDE >03 ~:Al: I 0:I I UGl/S.C 4ELEAi! KAI OF EACH 1 aITOPE lH AND A VALUE OF 1 ~ FOR X/4 ~ OEPLETEO X/0 ANO'EI.ATIVE OEPOSl rlON HCI= - Inf Unllb COR C---IV AHO H---3 AFE IHFEN/Vk PER UGl/GU NETCRI 01/2S/l9 EHVTRGNHEHTAL PATHNAT DOSE COHVERSlOH FACTORS PATHIIA'V G tOUNO PLAHE OEPOSlT TON FOR GASEOUS OTSCHAI?GES AGE GROUP CHTLO NUCL IDE 0 R G A H 0 0 S E F A C T 0 R S ISO.HETER NREH/TP. PER UCT/SECI PCNE LTVER. THTROTO XlONEV LUNG Gl LLl SKlH TOTAL nOOT H---"I C-14 P>>>>32 CR--st O'I>>>>54 Fc 59 CO -sl CD-54 CO -60 Nl --63 lN 65 FO h6 54--49 cg>>>>40 >>>>41 l%--95 Nn--4S FU-133 I U 105 AS 115II C0115N I~ 0 ~ Oe 4 ~ 6df>06 1 ~ 31E 109
t. l5E ~ 04 1 ~ $ 9E ibd 3ehbf ~ 04 2 ts=>10 Oe le 432 ~ Ob 9 ~ 01E ~ 06 2>> tlfi04 5 ~ 35E i06 lebhf ~ 06 5 ~ Olftbb 1 ~ 36E >Ob 1 ~ 102 ~ Ob v ~ I }Et Ob 3 ~ shf i 09 0 ~
0 ~ 0 ~ ~ o 4'bfi06 t ~ 3 ~ EI49 2 ~l50 < 04 1 >> 49E ~ 40 3>>IOE>0 ~ 2.15' ~ 0 ~ l>>43E >04 9 ~ 01E ~ 06 2ot lfi04 5 ~ TSE~06 tebbf<06 5 ~ Otftbb 1 36fi 04 1 ~ 1 Oftdb 4et9E404 I~ 54EI 09 0 ~ 4 ~ 4 ~lo 4 ~ 6IEI06 1 ~ 3%f ~ 09 t lsfi0 ~ to 49E I40 3 ~ IIE~O~ 2 ~ 15E ~ 1 ~ lol ~ 43E Iob 9 ~ Otf ~ 06 2 ~ tlE I44 5 ~ 35f ~ 06 1 ~ 0%E ~ 06 5 ~4lf ~ 04 1 ~ 35E IO ~ tothf ~ 0 ~ 4 ~ 19E>04 3 '4EI49 0 ~ 0 ~ ' ~ 0 ~ 4 ~ 64E I06 1 ~ 34E I~ 9 tol5E 40 ~ 1 ~ 49E ~I~ 3 ~ IOE 44 ~ 2 ~tsfIll 4 ~ lo43E>O ~ 9 ~Itf>06 2otlf ~ 04 5 ~ 35E <06
t. ~ IE F06 5 ~ ~tf<04 1 ~ 36f 40 ~
t ~ tOEIOI 4.19E ~04 3'lfI09 0 ~ I ~ ~ o lo 4 '4E~06 1 ~ 34f ~ 09 tolsf >0 ~ t ~ 49E> ~I 3 ~ ~ OE ~ 4 ~ totsf~t ~ 0 ~ le43E ~ 04 9' tft06 totlfF04 5>>35E <06 goobf~06 5 ~ 01E~O ~ t ~ 36E>04 totOE~O ~ 19' ~ 3 ~ SIE> ~ 9 I~ I ~ ~ o ~ o 4 ~ 64E I06 1 ~ 3IE ~ 49 to lSE 000 1 ~ 09f > ~I 3ollf< ~I 2 ~ tsf 4 t4 0 ~l>>43EII~ 9 ~ OlE106 t ~llf~04 5 ~ 35E 406 1 ~ IIE~06 5>>llfI04 1 ~ 36f >I~ 1 ~ tbfi~I 4 ~ 19E ~ ~I 3 ~ SIE ~ 49 0 ~ 4e 4 ~ ~ o So53E >06 1 6tf o09 3>>23E ebb 2 ~Ilft ~I 4 ~ 45E ~II toStf ~ 1 ~ I ~ ~ >>54EIOI to03f~bl 2 ~5lfil4 6'3E <46 1 et 2E II6 5 ~ 46E ebb 1 e6tf IOI 1 ~2lfI ~I 5' 3640' ~llfi49 0 ~ 0 ~ 0 ~ 4 ~ 4 '4E+06 1 ~ 34f ~ 09 tolsf >I~ 1 e 49E 444 3.40EIOI 2 ~ tsf t 10 lol 43E>04 9o ~ lE ~ ~ 6 2 tlfi04 5 ~ 3SE I 46
t. IdfF06 5eltf >04 1 ~ 36E~OI to tbfebb 4 ~ 19E ~ 04 3 ~ sbf 109 0 ~
"41:3 Oil I UCT/SEC PEL~ASE RATE OF EACH TSOTOPE lN AHO A VALUE OF 1 ~ fOR X/0 ~ DEPLETED X/0 ANO RELATlVE OEPOSlllON 01/25/19 'HVfROliNEHTAL FATHNAT>>OOSE GONVERS10N FACTORS PAYHNA'T - GROUliD PLANE Of POSlf1 a FOR GASEOUS OfSCHAFGES AGE GPGUP CNlLO HUGLfOE OONE 0 a G A H 0 0 5 I F I C 3 0 R S 1SO.HETER-NREH/Yr PFR ucf/Sfr3 >>W TOTAL BOOT SKlN Gl LLl LUNr. K)OllET THYrl0)Q L lVfR SN 123 I'i-t?6 50-324 Sa-125 ff 3255 3 = 127N ff 129H 1 -1!3 1-1 31 1 -132 1--1 1) 1-1 --1 35 CS 13~ CS -136 CS 1$l PA 140 Cf 1 1 Cf 144 PR-143 fO 1>>7 0 ~5.tdfitO 5 'df~04 2'05~09 to 55E ~ 06 4.79E i45 ).OSE~O7 5 ~ 5)2 <06 1 ~ltf~ 07 1 ~ 25c>06 2 ~ 4df >06 4 '4'5 2 ~ 56clo6 6 '9E~O9 1 ~ 49E ADO 3 ~ 03foto 1 flf~ Od 1 ~ 37f ~ Ol 1 13E ~0 ~ Oo S ~ 4OE oo6 0 ~I~ t6fito 5.40fto ~ to30E F 09 toSSfi06 4 '92<05 3 ~ OSE<07 5 ~ 5)fi06 to72f ~ 47 1 ~ 25f F 06 to44ft06 4 ~ 50fto5 2.56foo6 6 ~ 9'9E 4 49 1 ~ 49fi04 1 ~ O)f>t~ 1 ~ EOE<04 1 ~ 37EI07 t,t)ftoO 0 ~ 4'4E>06 0 ~ 5 ~ 16E >10 5 ~ 9OE iOI 2 ~ 3 ~f409 toSSE406 I~ 79E 405 3 '5E~07 5 ~ 53f f46 1 oltE ~ 47 1 ~ 25f ~ 46 to44fi06 4 ~ 5 ~ E <05 to56E<06 6o99E ~ 49 t ~ 49E F00 t ~ 0)E ~ 1 ~ 1.6SE ~ OS 1 ~ 37E ~ 47 1 ~ 13E40 ~ ~ o 4 ~ 4OE ~ 06 I~ 5o16E F1 0 5 ~ 90f F00 2 'OEA09 ).SSE i06 I.l9E F05 3olSE t07 5.5)E i06 1 ~ltfF07 totSE<06 2 ~Clf406 I 50fi05 2'6E>06 6 ~99E f09 to49E40 ~ lan )fwt0 to64E40 ~ 1 ~ )lE~Ol tot)fill lo Io40E >06 0 ~So)6filo 5 ~ 90E >OI 2 ~ 34f I09 t oSSE >06 I ~ 79f F05 ~ 3ol5E <07 5 ~ 53c <06 1 ltE ~Il totSE<06 to4lf ~ ~ 6 4 ~ 50E F 05 2 ~ 56E<IC 6'9fi09 1 ~ 49E ~II toO)f~t ~ t ~60fi~I to37E> ~ 7 tot)fi44 ~ o ~ o44E >06 I ~ 5 '6E ~ 1 ~ 5 ~ 9OE ~ 0 ~ 2 ~ 3IEi09 ).SSE i06 ~ o l9E ~ 05 3 ~ ISf F07 5 ~ 5)f ~06 toltf407 t ~ 2SL F06 2 ~ 4IE 406 4 ~ SIE> ~ 5 2 '6EA06 6 ~ 99f 009 1 ~ 4'1E tOI 1 ~ 4)EAll to6IEII~ 1 ~ 3lE ~ll 1 ~ 13E 4 I~ ~ o ~ o4lf ~ 06 1 ~ 37E>46 5 ~lef itO 6 ~ 901 ~ 0 ~ 2 ~ 59E tl9 2 ~l)f~ 46 9ol4f 105 4 52E ~ 07 6olif106
t. ~9fi07 to47f F 06 3'f<06 S ~ )SE ~ 45 to99E~I6
~ ~ 15E ~ 09 1 o69E 100 1 ~tlf< 14 t o9IEi ~I 1 ~54f <07 1 ~ 31E ~ 4l ~ ~ 1 ~ Otf ~ Ol 4 ~ 5'6f~t0 ST 94fo0 ~ to 30ftl9 1 o55f ~ 46 do79f <05 3 ~ 05fo47 5o 53f ~ 46 t.ltf~07 1 ~ 25E i06 k'.40Ei06 4 ~ SOE tlS 2o56f >06 6o 99E >l9 1 ~ 49E440 1 ~0)fit~ 1 ~ 60f <00 t ~ 3lf ~ 07 tot)E ~ 00 0 ~ 4 ~ 44E106 >ASc0 0'f 1 UGl/SFG RELEA)f RAfE CF ACH 1 f f E CF EACH 1SOfOPE 1H AHD I VALUE OF 1 ~ FOR X/Oo OEPLETEO X/0 ANO RELAflvf Qf POSll)ON Dt/25/S9 EHVSRCNNEHtAL FA3NHAY DOSE GONVERS1OH FACTORS PASNHAV - 1NMALA310H FOR GASEOUS 01SCHARGES AGE GRON'fEHAGER NuCL lOc BONE L1VER 1HfR010 ORGAN DOSE F I G 1 0 os% . KlOHEV LUNG ~ G1 LL1 SKlH R S tMREM/VR PEF. UC1/CUeMflERl 101IL 800M EH-125 SH-126 SO-1ZC SU 125 3E 3250 1= ltlM lc 12'9M 1 134 1--131 1--1$ 2 1--133 1t--t'5 CS 134 CS-t]6 CS 131 ra-tCO Ci "341 Cc 34m P t"3 HU-1"7 Zel9E F 04 1.26Et46 3.ttfiDC 6e6lf F04 Olf>02
t. ZSE ~ 44 19c ~ 03 CD 54f ~ 13 3 ~ 3 1f < 04 te 16c ~ 01 le23fiOC 6.C5ftOR 2 '9E443 C.ASE~45 3 ~ 91E ~44 6eCZE ~ 45 F 305>43 2 ~ 21 f ~ 43 vot9fi45 9, 3&f143 5 ~ 2li ~ 11 6.1CE~OZ SeSCEiDC 5 '9E>02 lo 1 Sf~OR le46f<DR So&REaDS 5e&CitOZ 1.3CE> OC Ce 1tf ~ OC 3 ~ 2&fi43 te0&fi4C to lSE i43 6.99fi43 tetDE<46 1 ~ 46f<45 IeZCE>05 CD 45fiOD 52ftOS tolCE+45 Se l5E
> 03 6elOct03 C ~ 92E402 9 'CE I' lo55E F 01 5e4lf ~ 41 t.tZE.DR So29ft43 94fi02 t.ZCE ~ 46 1 ~ 39 44f C ~ SIF oI5 3 ~ ISE446 2 ~ SDE ~ 15 9'6E ~ 15 I ~ 4 ~I ~ 4 ~ 0 ~ 4 ~ 0 ~ 4 ~ 4 ~ Oe OoI ~ le2Cf.104 Co5IEIDC 3 '6E<OC 2 ~ 09ftDC &.tCE iOC 5'9E>03 R 60ftOC Ro 15E 103 to 11E tOC to%Ifi45 4 '6E ~ OC tottf445 le&ZE>01 6 ~ 2&f~03 4 'IE405 2 ~ t&EFOS So56EIOS Se9tf>06 9'6E ~ 06 2 FACIE>06 2 ~ ROE~I& 5oSSE>05 9'4E ~ 05 Ro03f.i06 Oo Io Io . Io "I~I ~ t.CCE>05 1.20fiDC totOft45 Zo ORE F06 5 ISft05 teSIEi07 ReIlf ~ 05 RetiE ~ 05 3 ~ 13f >05 totlf405 Co06f <45 t ~ Itfi05 7 ~ IIE~IC 1 ~ 54'E ~ 45 S.ICE i45 le &9E F03 5 ~ 96E >IS C ~ 0&E>02 1.44fiIC toOtf400 5 '5E>03 I ~ 9Sf>03
l. trfiOC le&If>03 Z. ttfiII 1.1CE F45 IeCOE<05 RoOOE+05 1 ~ lSE~I5
~ 0 ~I ~ Oo 4 ~I ~ Oo Io 4 ~ IoI ~ Oo Oo 4 ~I ~ OoIeIo Oo Io 0 ~ Oo 9oZDE 142 4'4E ~ DC 1 ~ 2CE ~ IC 1 ~ SSE ~DC 5o53EOIt
1. 5ZE e 43 le9tE F 02 5,29E <43 2oIZEIIC
~ t&E~OS 6'Cfi03 &o t&E<OZ Zo50f>43 5oCCE >05 lo 1l E +05 3e D3E 145 SoCZE<42 le lCEi4Z 2 ~ 24E44C C ~ 63E ~ 42 3.65E F02. i:ASc0 ON 1 url/S=C RELiASt filE OF EACH 15030PE 1H AHD I VALUE OF 1 ~ FOR X/0 OEPLElEO X/0 AMO RELA31VE 0!POS1110N ot/25/79 ENVLRONIIENtAL FAZNIIAT-OOSE CONVERSLOII FACTORS PAIHHAT - 1HHALatloN F0lI GASEOUS 01SCHAFGES AGE GROUP - CNLLO NUCLtof 0 R G A N 0 0 S E F A C 1 0 R S lHREH/'TR PER Ucl/CU>>HftEPL H 14 P---)2 CR -51 I'--s>> Fi 59 Co -Sl CQ--54 co -eo II1-63 lu--65 c8 -Se cC>> a--90 T-It 79--95 N9 -95 IU 103 FU 106 AGLLOH CUL I SH 9nNE Oe6.25'.a3 6>> 1 tc745 Oe 0>>5.~4fi0$ Oe 0 ~ C ~ 2>>DOE<0 50c ~ 44 0>>5.3rE ~ 44 1e64f ~ al 7 <<4Ei04 )>>4tc ~ 44 torbf ra 1 2.16f ~ 02 Isf iD4 5 'bfo4$ De
LlVEP, re51Eo02 6.25ii0$
3 ~ Slfi44 4 ~t>>83fi44 L.tbfiD7 3et ~ E>02 t>>stf>02 L.blfi0$ te45f >44 4erlEi04 ARSE>04 0 ~ 4 ~ 0 ~ Rbfi03 7 Rsfibt 0 ~ 0 ~ eelcqD3 9 ~ 14Eo04 &>>'>>\\e'>>%>> tHTR010 l>>51E 142 6.25E i0$ ~ >> 2 >>75E ~ 41 4 ~ ~ >> 0 ~ 0 ~ 0 ~ 0 ~ Oo 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ KlONET 4 96feOR 1 ~ 54ft0$ ~ ~ 1.06E iot 4 ~ssft0$ 0 ~ ~ o ~ o 4 ~ ~ o $>>tsf 104 0 ~ ~ o 0 ~ ~ otostf i04 3 ~ sbf>03 2 lbf ~ ~ 3 6.LIES 4 9>>14E >03 l>>33K 444 LUHG lostf i42 6 ~ RSK F03 0 ~ 6 ~ eefi03 6>>44Kibs 4>>lbf F45 1>>71EA05 1 ~ 13E>46 6'2Ei06 0 ~ Rsf 104 4 ~ 0$ EI ~ 5 0 ~2>>24fi06 1'4E ~ 47 2>>55Ei46 2>>ttfi46 5 ~ 4sf ebs 6>>33K>05 t.45fobl 2>>tsf<06 6 ~ 51f ~ 45 Gl LL1 l>>SLK ~ 42 6 ~ RSE ~ 03 4 ~ ~bf ~ 04 1 ~ 54K~03 3'IE F 04 ~ >>lbf 404 1>>45E ~ 04 $.62fi04 9 ~ 36K<04 6 ~ 10E ~ 4$ t.4rE ~ 04 r.lof ~ ~ 3 1>>69K>05 3 '5K>05 1 ~ lbE>45 5 ~ 14fi04 3 '2K>04 4.22Ei04 4 ~ 3lf>05 1 ~44f <45 t ~ rbf F05 SKlN 0 ~ 0 ~ ~ ~ ~ ~ 0 ~ ~ ~ ~ >> ~ ~ ~ o ~ >> ~ o 0 ~ 0 ~ ~ >> 0 ~ 0 ~ ~ >> 0 ~ 0 ~ ~ >> 0 ~ vovaL OooT
l. 51E ~ 02'
'5E F 03 2-32fi04 4 ~ 635 ibt 2>> 91c ~ 0$ bbf103 3 ~ tbf<42 2 ebfo02 t.bbfi0$ 6>>lbf 103 R. 1 si i04 2.7$ E i04 1 54E>0$ 9>>99E<45 1 9bfi4$ 2 ~ 94fi03 5'3fobt ber3fi ~ 1 1 ~ 44f i03 2 ~ 7SEi0$ 2 ~ 94E ~ 4$ a::0 to I UCl/ScC uELEASE Fatf OF EACH lSOtOPE 1H AHO A VALUE OF L. FOR X/4o OEPLftfo II/O ANO RELatlVE OEPOSltlote Ot/25/79 EHV1 liQtlH}HlAL FATHNAV-OOSc GONVfhS}ON FAGlORS PA}HVAR lNHALA11 OH FOR GASEOUS 01SGHAFGES AGE GROUP CH1LO HUCL 19E 0 R G A N 0 0 S E F A C 1 0 R S lHREH/YR PEA UCl/GUoHEWE~'} DONE L1VER YHYR010 K10NEV LUNG Gl LLl SK}N e 'a 301AL 000V ~N 1+1 Stl-}t6 c8-}24 50 125 lc )25H 1= ttrH lc }29K 1--134 1 111 1--1 'lt 1-133 1 -134 1-135 CS -1.14 CS-1 36 CS-137 PA-}con 0-" -141 CE-14>> Pi\\- }43 NQ 1<<7 3 ~ }Sf<44 5 ~ ISE>05 1 ~ 44f 104 N ~ 062 ~ 44 5'2c ~ 42 5 ~ ISlt03 }.64E~03 tettfi03 4.55fiOt 5 ~ 37c ~It }.AOE~ 44 2 '%E F 42 }o24c403 6ettft05 }.Itfi04 I ~ 66E 145 7.}4E ~ 43 3 13E ~ 03 5 ~ 1 lf~ 95 F 3)f493 2'4f ~ 43 6'4E F 02 to55ft44 to72E< F 2 3.3nfo02 }-94EF02 2'0E>43 $.05fi02 6'2fc43 4.63E~44 le5lf~ 03 toOSE<44 7o99E442 3 ~ 23E ~ 03 9e95E<45 6e77fi44 7 '9E~OS 4'6f>40 }e57fi43 1 ~ItfF45 1 ~ 74'3 teItf>43 6 ~Alftnt SSE~I3 3 ~49f ~ Ol te72fi at to6tfint to52E F 43 5' '<02 ~ e07EADS to54E ~ 07 2 ~ 03fo05 5 '3E F 06 1 ~ 46fc05 4 ~ 33f 145 0 ~ 0 ~ 0 ~ Oo 0 ~ 0 ~ 4 ~I ~ 4 ~I~ OoI ~ 5 ~ 74f 143 toltEt44 to69ft04 9o66E<03 to04f >04 2 ~ 4IE>03 1 ~ 20E404 t-trfF03 5.}4fo03 to 33E 105 3 '6E404 to03E445 7.73fiI~ 2 ~ 9IE ~43 3'2E>05 9o99E~42 }.65E F03 1 ~ 5IE ~ 46 4o33E< ~ 6 lo15E >06 toItf>06 4' }f405 4 '4E<0$ 1 ~ ~If>06 ~ oI~ IoI~I~ ~ ~ 1 ~ 19E > 05 5oSSE>03 to4 ~E>05 to74E ~ I6 5 '4f<05 te23E407 1 ~ 30E ~IS 1 ~ OtE ~ 0$ t.49fi05 $.40fi04 ~IfF05 4.66E i04 3 ~ 3SEI04 6'2fi04 te02EOIS 3 '6E> ~ 3 2o65f F03 1.0 ~f ~ 02 $.5$ E F03 4o66E ~ 1 2 '3E<03 3 '7'3 5.40f ~ 03 3o4}f103 9'2c ~ 03 5'4E~04 4 '4E ~ 45 9otSL>44 7 ~ 99fc04 ~ oI ~ ~ o ~ oI ~ ~ o ~ e ~ ~ ~ ~ 0 ~ 0 ' ~ ~ ~ ~ ~ ~ 0 ~ ~ oI ~ ~ ~ 0 ~I~I ~ 1 ~ 27E> ~ 3 to 22f >04 5 ~ 74E ~03 I~ 14f <03 7'2E ~ F 1 le 2$f >It 2'0E~It 2.45f F 03 3.54E c 04 5 '7ft at 0.03E>03 2 ~ ISE ~It lo}9EF03 to23f F05 5 ~ 14E ~ 04 1 ~ 25f ~ 4$ 4 ~ ttc>02 to33E ~02 3e }OfiOC 14E>02 to69E<02 "A\\ U'l 1 UCl/S iG RELEASE RA'1I GF EACH 1$ 010PE 1H illD I VALUE OF 1 ~ FOR K/4 ~ OEPLE 1EQ X/0 AND RELAtlVE OEP0$ 1 710N 0}/25/19 EIIVl ROt'NEIIFAL FAlHRAV-DOSE COHVEFS jOII FAC302$ >AFHRAV - tlfll ICOHlANltIA3}0FORAGE} FOR GASEOUS Dl SCHAPGES AGE GROUP - CHlLO HUCL Inc 0 R G A H 0 0 S E' A C l 0 R S lSO ~ HETER NFENIYR PER ucl/SEC} POIIE LlvfR WW % \\%>>>>%He %%\\%Wee\\ e'We\\\\'>>'>> epee>>%%>>>> 3HVII010 30lAL OOOV KlOHEV Gl-LLl LUHG SKltl w----3 C-- Ib P---32 Cl -5} I'N 54 Fc-59 CO cl CO--id co--60 rH--65 FS -46 cr-90 v---9} Zi--95 Nn--95 Fu }03 FU-146 AG }I OII CD}ISH 0 ~l. are ~ O~ I>>14 E>09 0>> 3 ~ 9 ~ 95c ~ ol 0 ~ 4 ~ 0 ~ 1>>'ot>>E ~ Ob }.33E iob 4 ~ 5 04E ~ Oh 1 05ftib I.refioe >> 62i<06 2 ~ edf~oe }>>45fioa 0 ~ 51Et09 2.502 F 06 0 ~ 2>> 13f t42 9 arctbt }.~ 9E i00 4 ~ l>>%2Ei 46 2>>361 F 04 Z.i~ EI06 1 ~ 69fi41 6>>rrf<or t.bbftbr I ~ 22f >04 }.OZE ~ 04 4 ~ 4 ~ 4 ~1>>5}ft 46 1 ~ 15E ~ 06 0 ~ 0 ~ F 3}ftoe 5 'e5E>05 2.33E ~ GZ 9 dlE ~ 04 ~ e 1.Safe 03 0 ~ ~ e 4 ~ 0 ~ 0 ~ ~ >> ~ e 0 ~ 0 ~ 0>> 0 ~ 4 ~ 0 ~ ~ ~ ~ ~ 0 ~ Oe }>>54E tGZ 2 '9E> ~ 4 0 ~ 5 ~ ~ ZE >OZ 1 ~ OZE<06 0 ~ ~ e ~ e 0 ~ 4 ~ 2 '20>04 4 ~ 0 ~ ~ e ~ e re%if >05 %>>lZE ~ 05 1 ~ 5}E>bb 2>>OZE >09 te ~ 55E >06 WE 32ft45 Z>>33ftOZ 9.4rftbt 0 ~ 3'oft03 ~ e6>>55ftbl ~ e 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ ~ e 0 ~ 0 ~ 0 ~ II~ 0 ~ ~ e 4 ~ 2 '3E<42 9>>41E ~ Ote }>>96fibb 6 '3E~OS 1 ~ 050>01 1.19f io ~ 5 '3E
>15E ~ ~ 4 1 ~ OZE >01 2 ~ 66E ~ ~ 4 3 ~ 59f ~il 1 ~ 04E >41 1 ~ OZE~ ~ 4 2 ~ 33f i~ 0 t>>ZZEO09 }>>94fi49 3'}f409 le ~if<I~ 9'ebf~o ~ t 29fiol 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ ~ e ~ e 0 ~ 0 ~ ~ e 0 ~ 0 ~ 0 ~ ~ e ~ e 4 ~ ~ ~ ~ e 0 ~
2. 33E iOZ 9 ~ arf~ob 6.13fior 2.6I E ~ 03 6>>Stef F05 0 ~ 94E ~ 01 3.50fibe 5 ~ iof~ 01 2 ~ 03ftbb Ze 36E ~ 01 1'}ftbb b>>SOE ibl
}.t if+Or 2 ~ 6rft 09 t >>69fibt le ZOE ~ 06 b Ie}f~ 05 5>>drf>or 5 ~ 6}fiob 1 ~ 34E ~ $ 6 1 ~ 14E4 Ols I4SCn CN I uCl/ScC RELEASC FAFE CF EACH l.clOFE lN Atto A VALUE OF 1. FOR X/O. DEPLflEO X/0 AHD ttfLAllvfOEPOSlllOtl Wulf - lui uttlls FGF C"--}I AtIO H----3 ARE lNREH/TR PER UCl/CU.NclERI ot/25/r9 FI<VlRONHEHTAL PATHIIAT OOSE CONVERS10h FAG'10RS PATHWAY - HEA> ICONTAHTNATEO FORAGEI FOR GASEOUS OTSGHARGES AGE GROUP - GH1LO NUGI. 10E 0 R G A N 0 0 S E F A C 1 0 R S lSR ~ Hc TER-HllfH/TR PcR UC1/SEGI 80NC L 1 Vfit TNTR010 KTOHET LUNG G 1-LL1 SK1H TO'TAL SOOT SN-123 S4-126 Sn-t24 Sn-125 TE 125H Te ttlil Tc 129H l--t34 1--13l 1-13Z 1-- l II l--l14 t--t>5 Cs -I 14 CS 136 CS.131 na-144 Gi 141 rf-l<<4 P%-I I 9 -I<<1 4 ~ 6o 9ZEt 49 le<<oi ~ 46 r.fef ~ ol 5'9E ~ 44 4.40ftoo tehwc<49 ae orfo 01 1.5bi F 01 0 ~ 6 ~ lef-41 4 ~ 3 Zlc 42 4 ~ 43f~oo 4'tf>46 21E149 << ~llfi a 1 2 ~ lofeo4 2 ~ 3%E ~ 46 1 96E i43 e.44E ~ o3 0 ~ 1 ~ 3rfi04 te40E il5 leb4f ill 1.54fiO ~ 1 ~stf>0 ~ 5 ~ ttf<04 2 ~ 63E 46 1 ~ 62E ~ 41 0 ~ 4 4lc 01 4 ~ '2'ef 02 t ~ 49E<09 ter4f ~or t ~ 23et09 3'4fi04 1 Ose>44
r. 4e f ~ os 3.tofi03 I 4lt~03 4 ~
4 ~ OtE ~ 01 1 el9E <44 t ~ 90E ior tofoc>04 lo24E<04 5 ~olf ~ 04 3'4f 44 5 Rsf i49 ~ ~ to04E ~ OR 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ 4 ~ 0 ~ 6o41 f ~ Ol 5 ~ 44f 104 1 ~llfc09 1 ~ llE>49 4'4E 06 9.46ft06 0 ~ 4 ~ 91E ol 0 ~ 1 ~ltf OR to49e ~ ~ 4 9e69fcoe 1 ~ 51E to ~ 4'9ft03 teesft03 1 ~ 351 >05 I e44E F03 2 44E ~03 4 ~ 2 ~4tf>06 Sol4E ioe 9 ~ t6E ~ 00 ~ o 0 ~ e ~ o ~ ~ 4 ~ 0 ~ lo 3 ~ TlE-43 1 ~ 65E F 0 'e33ft06 1 '4fi04 Ro29E ~ 04 4 ~ 4 ~ 0 ~ 0 ~ 0 ~ 2 ~ 31E ~49 2 ~ tofto ~ 1 ~ 44E ~ 0 ~ 5'9f>44 2 '4fc49 R ~ 21f ~09 2 ~ ZSE-46 to34fc46 0 ~ 3 ~ 43E ~ 1 0 ~ 6 ~921'4 ~ o04E ~ 46 1 ~ 9lE ~ 06 1 54E 006 6 ~ 03E4 46 1 ~ 32E ~ 41 te94ftO ~ 3 44E ~ll t o53E Col 0 ~ 4 ~ 0 ~ 0 ~ 4 ~ 0 ~ 4 ~l ~ 4 ~ 0 ~ ~ o lo 0 ~ ~ e 0 ~ ~ ~ 0 ~ 0 ~ ~ e 0 ~ ~ e 0 ~ 1 ~ '9 8E ~ 04 2'3E ~ 06 1 ~ oofior ro59E>or 5 ~ 61E ~ 01 2 ~ ~4Et4 ~ lo 43E 06 1 ~ ZZE ~ll le 3o33E-41 ~ o 1 ~ )ZE-02 3 ~ 16E >44 1 ~ Z5Eiol t ~ 44f F44 2 ~ slft 06 teSrfi43 1 zrf>os 3"15't 3'rf~ot co kn ON I url/SEG rELFall FATE CF EACH 1SOTOPE 1H AND A VALUE OF t ~ FOR X/0 ~ OEPLETEO X/0 AWO RELAT1VE OEPOSlllON IHITI. - TH. Ul.lTS FO( C 14 AIIO H 3 Age tHREH/YR FER UGT/CUoHETERI II at/ts/r9 cNVIRGNHENTAL FAtHMAV-OOSE CUMVEhSIUN FACTORS PATHMAY CONS MILK 1CONTAPINAlco FORAGEI FOR GASEOUS OISCHAGGES AGE GROUP - CHILO IIVCL 10f 0 R G A H oJ 0 S f F A C t 0 R S ISO ~ HETER HPEIi/TR PER UCT/SECI HC---I'o P---xt CR-Sl HN--SS FE--c9 CO C3--54 Co-~0 I'I 63 7 1--65 FB 06 S9 -09 SR--91 v---91 -95 Mo -95 FU 113 FU 1 ilo AG 111'I CO11SH 8CME 0 ~ 3 ~ DbftDS teb2E ~ 14 .1 ~ 0 ~ 4 ~ 17E ~ 17 1 ~ ao ~ 0 ~ 7 160 t09 1 ~ %6cta9 De 6 ~ 92f o19
t. t3E ~ 1 t 3e baft a%
1 ~ 16E ~ 15 2 75c ~ 15 3 ~ 99E t13 9 39fta% 6 ~ 215 ta7 4 ~ L IVER 1 ~ 57E t 13 3 ~ ab Et OS
t. ttift09 4 ~
~ o96f.t 46 7 52ftar 1 ~ 36Et06 1 ~25ftar 4 ~ttftar ~o97Etal 4'5ft49 2 ~ 77f ~ a9 0 ~ 1 ~ 0 ~ Aebrfta4 1 ~ 14Etas 1 ~ 0 ~ ST 7Sftar 1 ~ 33E ~ 16 THVRGIO le575 t43 3 'SEt05 0 ~ 1 ~ 42f. tate I ~ ~ o 0 ~ ~ o 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 4 ~ 0 ~ le 4 ~ 4 ~ 0 ~ 4 ~ 0 ~ KIOHEV 1 ~ aiof tl3 7 ~ 75ftah 0 ~6.72f ~ 03 to67ft06 ~ o 0 ~ 4 ~I~ 4 ~ 3 11E t09 4 ~ ~ o ~ o ~ etob6fta4 to ~ Iteft44 0 ~ 16E t43 4 ~ 20E tatt 1 ~ 13c tl~ 1 ~ 05ft06 LUNG to57E F 03 3e44E ~ I5 I ~ 4 ~ Oaf ~ Ot Io to09Et47 ~ o ~ o ~ o ~ e 4 ~ ~ oI~I~ 0 ~ 0 ~ ~ o ~ ~ ~ o 0 ~ ~ o Gl LLI lo57ct43 3'Etas 2 '5Et49 re66Ct46 riced 4 2 ~ WIE ~ I~ 3eL6ftar r.t tftar to33E ~Il 1 ~ abfta ~ t 93fta9 5 ~ I sita ~ 2'0f ~ ~I 1 ~ 52Et49 5el5Et06 ro6IE t47 2'3ftl~ le ~5ft05 I e%6E t06 2 ~ 35E ~ 1 ~ 5.cIEtlr 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ ~ ~ 0 ~I ~ 4 ~ Oo 0 ~ ~ ~lo ~ ~ ~ oI ~I ~ ~ ~ ~ o ~ ~ ~ ~ SKIH e0tAL 800V 1-57ft03 3.14Et05 re 05Et 44 3'5E ~ ai to 71E' 06 te46ftar totrEt06 3 ~ 76E t 07 to 27Etll 2 'D Et04 to llf~ 09 1 o 29E ~ l9 lo90Eta ~ 2 brftl~ 1 ~ Dlf1 03 3.29E ~ ai 0 ~ 63Et4ly lo61E ~ 03 1 ~ 17E tai 3 ~ I tf ~ 47 i ~ tbctai "4'..=9 GN 1 UCl/5:C RELcASE RA>f OF EACN ISOtoFE IH ANO 4 VALUE OF 1 ~ FOR X/O. OEPLEtf0 X/0 AMO RELATIVE OEPOSI't toll Not=. THE UNITS FOR C . -14 AHO H 3 AIE IiifcN/Y I PER UCl/CU 'IE TER I 0 41/ZS/79 cttolHOHNEHlaL FalNIIAV-DOSE COHVERSlOtt FaC10<S PA1HNAV - CONS NLLK }COttlaNlHalfO FORaGEI fOR GASEOUS DlSCHA&GES AGE GROUP CNlLO tlUCL }DE LlVER 1NVRO10 ORGAN DOSE F A C 1 0 R 5 ISOeNEIER NREN/TR PER UCl/SfCI e'eee\\&ee\\\\ee\\we&ew\\\\ee KlONEY LUNG Gl LLl SttlH 101AL WOOV Stl I 2 1 SNe} 26 SO }Z4 8-125 1E }75tt 3E}27N lf}29'I l--l$ 4 1- }31 l--}32 l--133 l--}34 l--t35 CS -134 CS } I6 CS }.%7 BA-}~4 C }41 C" }44 FR-}<I HO 147 9 ~ 1 ~ 75f ~ 49 2 ~ 75f F07 3e 1 3E <47 7 ~ 3bf <07 5 ~ tbf~47 Ze 77Eibl 4 ~ Sef F05 }~ Zvf>49 1 ~ 7bf 41 }.7tfi47 4 ~ 1 '9'4 2 '7E>to 2 ~ 7bf~ob 3 ~ Obf~}0 } ~ }7E~OI }.Zhfto5 te'Qof + 07 1 69cqOZ 1 ~ 2}f~42' ~ 3evbf ~ 07 5 ~ 19E ~ 05 1 ~ 41E ~ 46 R. ~ ~ Ei07 le7bf F47 7 ~ 73E 4 07 1 ~ 35E ~ 46 }.27ft49 4 ~ 76E Ot 2 ~ ZQE407 0 ~ 3 ~ 94 E404 1 ~ 65E F 14 I e IIEI09 2.94E ~ tO teozf>05 6'zftoh 3.14EI46 6 bof>ot }A t9E>42 0 ~ leo}Ed 47 6 ~ 64E o04 1 ~ tbfi06 2 '7E>07 t ~ 46EI07 lebSEi07 1 ~ 7tf<0 ~ 4 ~tzfbt 5 ~ 3QE <49 te46E-49 5 ~ 15E ~46 0 ~I ~ ~ eI ~ 4 ~ 4e 0 ~ 4 ~ Q ~ r 4 ~ 4 ~ 3 ~ 96E 146 7 ~ 05fto7 2 ~ QIE<0 ~ Re70fiob ze09fi46 7 ~ 74E i04 7e5IE-01 1 ~ 29E<07 ~ e 6.26E i44 4 ~ 65E i49 6ettEI04 3 ~ 6ljf<49 }.zzfF04 9 ~ 72E F43 5 ~ 676' 45 3 ~ 92E cot 7 ~ 21E 401 0 ~ 4 ~ 97f ~ 46 2 ~ t3EI47 2'3f<09 ~ e 4 ~ ~ ~I~ 0 ~I~ ~ e 4 ~ 4 ~ 47f-02 4'6E>09 be37EI ~ 7 3 ~49f >09 6 ~ l9E 104 0 ~I ~I ~ ~ e 0 ~ 1 ~ }6f1 09 7 ~ 7lc Ilb 2 ~ 43E I00 7 ~ tzf >07 2 ~ 99E col 3 ~ 33E c ~I le l5f 106 1 ~ l9E ~0 ~ ~ e 93E ~ 2 I~ 90ft06 I ~ 4 ~ 41E ~04 1 ~ 97ftob ARSE>0 ~ t ~Itfiol 7 'SEc46 7 ~ bof F47 ~ e}Sf~I~ 7 41f F45 5'3ft05 0 ~ ~ e ~ eI ~ 0 ~ ~ e 4 ~le ~ eI ~ ~ e ~ eI ~ 4 ~I ~le 4 ~ 4 ~ 0 ~I ~ 4 ~ 4 ~ 5 ~ ZSE ~ 47 1 09E> ~ 7 5 '9E>06 9ebhf F46 6 60E o46 '4 ~ Rbfo07 Se 29E > IS 9 56fiob 1 ~ 69E 01 I~ 63E~ ~ 6 0 ~ 1 44E~44 7 76EI09 90f ~0 ~ . 4.44f ~ 49
6. 44f i46 9e 26E< ~ 3 5 ~ 34E F45 be 44E440 7 ~ btf~40
'ASc') CN I UCt/SEC 4ELcA 1 RAIE OF EACH tSOIOFE lH AHD A VALUc OF 1 FOR X/O OEPLE1fO X/O AHO RELA1IVE OEPOSl11ON tlot= 1N= UllllS F04 C --}4 AHO N-- 3 AFE }NIIEN/VR PER UCl/CU HE1ERI 01/25/r 9 6 HVlROHHEHEAL PA1HMAV-OOSE COHVEPS10H FAGlORS PATHIIAY FRESH AHO S10REO FRUllS AHO VEGEEAOLES FOR GASEOUS 01SCHARGES AGE GkGUP - CHlLO >>UGL lDE 90HF LlvfI lHVR010 ORGAHOOS E F A C 1 0 R S lSO.HflfR-HREH/VR ee ace %e e %e%e\\ K10HEY LUHG Gl LL1 PER UGL/SEC) SK1H lorAL 40OV H-met4 32 CR 51 HII 54 FE -59 co-Sr CI3 54 CO-bl >>l--bl rH>>-65 gIIwe Ib SQ--$ 9 Sc ee90 V---9i rq--95 HQ -95 PU 143 FU 146 AG114H CD l Ifn 0 ~ 6 'ec~05 re.II9E F 4' ~ 0 ~ 1.05E~04 C ~ 4 ~ 4o 9 ~ 54f I 09 2 ~ 4$ c ~ 40 0 ~ 3o r6Eo ll 1 ~ 26Eo 1 Z 1 ~ 42E ~ Or 4el5E ~ 46 3')5~0 1 ~ 45f ~4r r.Srfo44 9 ~ &let 46 4 ~ 3 ~ 94E 4 03 6 54cIOS 4 ~ 94E ~lr 4 ~ te04E t04 2 ~Slf444
t. l6EA4r 6 ~ &2EIlr 3o&9E ~ 0 ~
6 ~ btf >4 ~ 9e 1tfiC0 te43EI ~ 4 0 ~ 4 ~ 0 ~1.09fi46 te5tf>05 0 ~ 4 ~ ~o49f ~ 06 4.2&fior 3 '4c F 03 6 ~ 54E IOS 0 ~ to 14E ~ 04 lo 0 ~ 0 ~ ~ o ~ o ~ o ~ o ~ o ~ o 0 ~ 0 ~ ~ o 4 ~ 0 ~ 0 ~le 0 ~ 2 ~ &ZE ~03 1 ~ 65E I45 4 ~rorbfi03 4 ~45f ~0r ~ o 0 ~ ~ o ~ o lo 6 ~tlf>0 ~ ~ o ~ o ~ o ~ o 6.33fiOS 6 ~ 24f 444 to 51E>Or 3 ~ 34E All t.rSE>or 3ollEAlr 3.94fi03 6.54ft45 lo 4 ~ 6rfi04 le 6 ~ 95ftlr 0 ~ ~ e ~ o ~ o 4 ~l ~ lo ~ e lo 4 ~ ~ o ~ e ~ o ~ e 0 ~ 3 '0E~43 6 ~ 54f <05 ~ o4rE ~ Or ~ e 44E ~ 46 0orlfi00 ~ o26f 000 2 '9E< F 4 3 '4f<F 4 tolSEA09 io3lEA04 5 ~ rSEAll 2'tEAlr io44EA09 2 '4EA10 2 '2E~09 1 ~ 32E>09 2 ~ &ZE>00 3 Otf<44 to 10E <ll 3 ~ 63E ~ l9 tor9f >09 0 ~ 4 ~ ~ ~ ~ ~ ~ o 0 ~ ~ ~ ~ e ~ ~ ~ ~ 0 ~ ~ o 0 ~ ~ e 0 ~ ~ ~ ~ ~ 4 ~ ~ ~ ~ el ~ 3e 94f ~ 03 6 54f ~ OS 3.45filr 3o 51E ~ 44 5.42E~01 9 ~ 52f ~0r t.rrfilr te ~ 0E~00 t-1ifi09
3. ZOE F40 4o 13E ~ 04 6o 66E ilr 1 '4E>09 3'9f~tl 4 ~ 0lf<lS 9e43E>05 1 ~ ttf~45 5o 46E ~ Ob 9'2E>0r 5'9E>06 1 ~ 36E<06 4'.-.0 OH 1 UGt/5 EC IIELfASE RA.f OF EACH 15010PE 1H AHD A VALUE 'OF 1 ~
FOR X/4. OEPLflf0 X/0 AHO RfLArlvf OEPOSlllOH
>>Il. -
1II: >>>>llS FGQ C --14 AHO H-- -3 AFE IIIlifII/VRPER UCl/CUo'IElERl 11/z5/r 9 ENVtRCtlHEN1AL FAT HttAV-OOSE GOtlVERS10N FAGlORS PAtllttAV FRESH AHO SlOREO FAUltS AHO VEGE3ADLES FOlt GASEOUS 01SCNARGES AGE GROUP GHlLO tiuCL10" 0 R G A H 0 0 S E F I G l 0 R 5 lSO Hclftt-HREH/VR Pf R UCl/SfC1 w 'pw&oo o &%oooo \\%\\Do& e% o+%%%%%o'%oooo SN-1?5 SN-126 50-1 2<< 59-1?5 lc 1?5tt lc 1? ltt lf. t?QH 1 -130 1--131 t--t 32 1-133 l--t3<< 1--135 CS 134 CS-136 CS 13l RA-140 CE-141 Cc-144 PR-t<<3 tiO-14l BONE le llf 15 6 '95~09 4.905 t Dl 2'4E ~ 04 3 ~ SOE ~ 40 3 'SECTOR 4'9fto ~ le6DfiD5 36ftob 2 ~ 26E ~ Ol 3'tft06 4othf-GS 1 e64Ee14 1 54ftt4 2 ~ 23c ~ Ol 201 F 11 ?e l65 tbb 6 ~ 21E >0'5 1 ~ 3tf <Do 3.4bftb4 lebtit04 L1VER Ze 14E" Gl te?Sf<00 1 ~ 60Et06 2.46E ~ Dr '1 ~ 5 0 Et or lent?E ~ 04 2'?Et ' 4 13ft05 t ~ 39f <00 6e45ftOt 4 ~ 46E t06 1 ~ 14E" 14 4.33f t04 2.59f~to bobof tor 2 ~2lftlo 2 ~ 54Et 15 3etbf>05 4 ~ tOE<or t.40ftc4 Ze46ft14 lttfRO10 2 ~ ?6E Ol 3 ~ 66E tol 2 ~ tSE>45 ?.Ioftir 9.44Etil 9 15E tir 2 ~rrft~ 4 6 ~ 0?E >Il 4 ~ 5?E t 10 l ~9lf>03 1 ~ obft09 1 ~4lf 02 5 ~6lf ~ 46 0-4 ~ 0 ~ ~ ~ 0 ~ ~ o 1 ~ 0 ~ KlOHEY 0 ~ 4 ~ ~ ~9.4lc tor 3'5Et04 to?6E t09 I ~ 43ftob l ~35ft05 ~.4bator 9o65ftot 2.6? fF06 to ~lf 14 6 ~ 49E 114 3 29f t09 4 ~ 90 E t or 2 ~ l?E t09 2 ~ 09f t04 4 '5E F 04 ro39ft06 4.03ft03 Ze 1lf ~ 04 LUHG ~ o 4 ~9tftol 6e90ftOr to 6?E tt ~ ~ o ~ o 0. 0 ~I~ 4 ~ 0 ~I ~ 5 ~ l5E-DZ 2 ~ 44E t 09 6ol?E t06 2 ~ 59ft09 t.44f ~ 05 ~ ~I ~I~ ~ o Gl LLl 4 ~ 5IE D6 4 ~ 33E t09 2 ~ 5?ft09 1 ~ 46ft09 3 ~ 3bf tb ~ le 4l f ~ 09 to 45E <09 ISE tiS 1 ~ 19E tIl 1 ~ 14ftit 1 eitf ~ 46 9'9E 0 ~ 4.05ft04 1 ~ 44E toi 1 ~ 40f >Ol ~ 1.34t ~ Oo 3 ~ 60E t ~I 3'9fto ~ 1 ~ 46Et ti to5?E>0 ~. 9 ~oiftir SXlH ~ e ~ eI ~I ~ ~ ~ ~ o ~ o ~ o 4 ~ ~ ~ 4 ~ 0 ~ ~ o ~ o ~ o ~ oI ~ 0 ~ ~ ~ ~ ~ 301AL 8001 4 ~ 21E Il Zo06E tbi 51f ~ ot 4.44foor 4 ~ 6r E ~Il 4.14E ~Il 1 ~ 34E t ob 1 ~ 46E405 1 05ftbb 2.15ftbt terSEt06 4'6E-DS 1 ~ 59E ~ 44 5'1f F 09 6 ~ 34E tol 3 ~ 29E F09 te 6?f ior 4e6?ft04 6o 9lf>06 1 ~ l?E ~ 43 3.40E F43 AttO A VALUE OF t FOR tt/Ot OcPLElf tlOlr - Tttc UtlllS FOP C---14 AtlO H - 3 ARE tNGE't/Ytt PER UCl/GUoHElfRl ot/z5/rs EHVlROHHENTAL PATH@AY-DOSE COHVERS10N FACTORS PATH>>>>AY - GROUND PLANE OEPOSCTlOH FOR GASEOUS OTSCNARGES AGE GROUP - LHFAHT t>>UCL LOE 0 R G A H 0 0 S E F A C T 0 R S LSO>>HETER HREH/YH PER UCl/SfCl ROHE LTVES TNYROTO KTOHEY L.UHG GI-LLl SKTH TOTAL 800Y I>>-- C-- L4 r---3Z CReect I".L-e 54 Fc--59 L'0 5r Ca Fh CO-eo Hl 63 zH--e5 >>'8-h6 SR--d9 R-Y---9L 1% -95 US--95 RU LOt LU Lbe AG 111H C9115'L 1 ~ 0 ~ 0 ~ 4>>ebf<<16 1 ~ 01K <<09 t e rSE<<04 1 ~ 09c<<14 IDE<<14 tet5t<LO 0 ~ r.43E ~ Db 9 ~ 1lf<<16
t. t rE<<04 5 ~ 35E<<16 tebdf<<16 5 ~ Dlf <<Ob t ~ 36f<<14 1 ~ LDE<<14 4 ~ 19E<<14 T ~ 54E<<09 1 ~
D ~ 0 ~ 0 ~ 4 'DE<<06 t>>3'<<09 ter5E<<0 ~ l>>89L F 04 3>>44F<<44 te 15E ~ 1 ~ 0 ~ r.43f <<01 9 ~ 0 1c<<16 tetrf<<14 5'5E<< 16 t ~ 1 ~ E<<06 5 ~ 0 1f <<bb 1 ~ 36E<<04 1 ~ 10E<<OD 4 ~ 19E<<4d 3>>54E<<19 0 ~ Oe D ~ 4 ~ 4 '0E<<16 1 ~ 34E <<09 t ~ 75E<<0 ~ 1 ~ 49E<<0 ~ 3 '0f<<44 t ~ 15E<<tl Io 7 ~ 43E ~ Dd 9 ~ Otf <<06 t.trE <<14 5 ~ 35E ~ 16 1 ~ 14E<<06 5 ~ 41E <<04 1 ~ 36E ~ 04 1 ~ 11E <<04 4 '9E<<04 3 'bf<<09 0 ~ 1 ~ 0 ~ 4 ~ 4>>ebf<<06 1.34E <<09 terSE<<0 ~ 1>>49E <<Dl 3'IE<<4 ~ t ~ 1SE <<1 ~ 0 ~ 7.43E <<0 ~ 9'tf>46 t trf<<04 5 '5E <<06 l>>OIE<<06 5.41E>0 ~ 1 ~ 36E<<0 ~ 1 ~tlf<<lb 4>>19' ~ 3 ~ Sbf <09 4 ~ 0 ~ 0 ~ ~ e 4 ~ ebf<<46 1 ~ 34E<<09 t ~ r5f<<04 1 l9E<<ll 3 ~ l4E ~I~ totSE<<t ~ ~ e r>>43E F 0 ~ 1E<<06 telrf<<04 5 ~ 35E <<06 1 ~ Olf<<06
5. ~lf<<04 1 ~ 36E<<4 ~
1 ~ 14E ~ 44 4>>19E ~ 40 3 ~ 5 ~E<<09 4 ~ 1 ~ ~ e ~ ~ 4 '4E<<06 1 ~ 34E t 09 ter5f <<04 i>>09f<<ll 3 ~ DOE <<44
t. 15E itD
~ e r>>43E << ~I 9 ~Ilf~ 16 tollE<<04 5'5f ~ l6 1 ~ DDE<<46 5 ~Itfcl~ 1 36E<<44 1 ~llf<<I~ 4 ~ 19E<<ll 3 ~ SIE<<09 ~ e 0 ~ 0 ~ ~ e 5>>53E ~ 06 1.etf<<09 3>>tlE<<4 ~ t ~Obf << ~I 4 ~ 45E <<ll t 5tf<<t4 0<< 4 ~ 54E<<bl t>>03E<<Dr 2 '1E ~ 44 6 ~ 33E <<46 1 ettf <<06 5.46E <<44 1 ~ 6tf<<0 ~ t ~ tbf<<44 5 '3f<<44 4>>trf<<49 0 ~ 1 ~ 4 ~ ~ ~ 4 '4c<<16 te3DE<<09 te r5E<<04 to 49E <<04 3>>44E ~ 4 ~ te 15E ~ ll 4 ~ r.43f <<01 9>> Dtf<<06 to 1rf ~ 04 5>> 35f ~ 06 1>>0bf<<06 5>>ltE<<04 1 ~ 36f <<04 1 ~ 1lf<<04 4 ~ t9E<<04 3'4E<<49 0 ~ 'Ac c>>>> 0>>l 1 UCl/ScC>>LELcASE L>>ATE OF EACH lSOTOPE 1H AHO A VALUE OF 1 ~ FOR X/0 ~ OEPLETFO X/0 AHO RfLATlVc OEPOSTTlOH OL/25/79 ES VLRQHHEHtAL FAtnHAT-OOSE COHVE KS10H FaCtOrS PATNHIl - GROUHO PLANE OEPOS11'loH FOR GASEOUS 01SCHAIKGES AGE GRr UP - tSFAHT s uCL toe 0 R G A IS 0 0 3 E F 4 C 1 0 R S LSOoNE TER-HLEH/'fl PCR UCt/SECI Sn-125 SH-5 ts Ltw SB-Lti tf 1250 t= LtrH 1= 529is 1--1 33 1--1 lt 1--132 1--133 1 -53w 1 -135 CS.13h CS-1 36 c -137 AA-LCO Ci-Lht Ci~thh PR" 545 HO-Lir OOHE 4 ~ S.L6c ~ LO 5 ~ 946 ~ Ob 2 ~ 50i ~ 09 1 ~ 55i ~ 46 ber9cta5 3 ~ 45E ~ 07 5 53ft06 lortct47 1.25fta& 2'4Eta6 4'oft45 2.5&fta6 6 99E ~ 49 1 ~ 49i ~ Ob
1. 4 lf~ Lo 1 64c ~ 44 1 ~ 37i F 07 1.13ftOI 0 ~I.hbftb&
L1VEr 0 ~ 5.1&Et 10 5 ~ 94Et44 te34ft09 1.55E ~ 06 ie79ct45 3.05ftor 5o53ftD& 1.72E ~ 47 1 ~ 25EtD& 2.CIA 06 4'ilft05 2.56Et06 6'9Eta9 1 e49f t Ob 1.43Etto 1,64Et ab 1 ~ 37c ~ 47 t.t3EtOI 4 ~4.44fto6 tssYR010 4 ~ 5 ~ 1&it14 5o9bf t44 2.3tft09 1.55E ~ 46 I 79f t05
3. ~ Sc ~ 07 5 53E ~ D6 1 ortctor 1 ~ 25'6 toC ~Eto6 4.50E ~ 05 2'&E~ 06 6'9ita9 1 '9'4 1 ~ 43c ~ Lil le&iftal t.37Etor 1.13E ~ 04 0 ~4.44ft46 KTOHEY 4 ~
5'6Etto So94Eta ~ 2 34ft09 1.55ft06 ~.79ct45
3. 05E ~ 07 5 ~53f ta&
1.72EtaT le25f, ~ ~ 6 2.40ft06 4 'OEt45 2.56E ~ 06 6 ~ 99E t09 LE 49E F 04 1 ~ 03E tll 1 60ctai 1 ~ 37ft47 1.13E toi 0 ~I Cef to& LUNG 0 ~ 5.1&Etio 5o9bctO ~ t 30E to9 t.55E ~ 06 lor9E tD5 3' SEtir 'ST 53Etl6 1 ~ 7tftlr lot5Et06 to4 ~Et06 4'aft45 2.56ft46 6 ~99f t09 1 ~ 49ftll 1 ~ 03E ~ LO 1.6iftlb t.3rEt ~ 7 lel3Etil ~ e ~.4 ~Etl& G1 LL1 4 ~ 5 ~ l&ctll 5 ~ 9IE t Ol te30ftD9 1 ~ 55E ~ 46 79ftD5 3'5Etlr 5 LEt46 1 ~ TtEt AT 1 ~ 25E ~ I& 2 ~ CIE t46 4 54E ~ 45 2'6E ~ 46 6 '9Et09 1 49E ~ 44 1 ~ 03E ~ll 1 ~ 64E tel 1 ~ 37Etlr 1 13E tol ~ o0.40'6 SK1H 1.3rfto& 5 ~ Tfftt ~ 6'4Eta ~ 2 59f tD9 2 13E ~ 46 9'4it05 4.52E ~ OT 6 '1'6 2'9ctor 1 oCTEtl6 3.01E t06 5.35Et05 2 ~ 99E tl6 ~ e15E tl9 1 ~ 69Eto ~ 1 ~ 2IEttl 1 90ftii 1.5CE F 07 1.31E tll ~ ~ 1 oitEtlr TOTAL OOOV 4 ~5ol6ctti 5.9ectl ~ 2o 34ft09 1 ~ 55Et06 bo79Et05 3.45'7 5 ~ 53E tl6 1 ~Ttf~ 07 t ~ 25ft06 2.4 ~ E ~ 46 4'aft45 2o5&ft46 6 ~ 99it09 1 ~ 49Et44
1. 43Et la 1 ~ 6lftel 1 ~ 37f t47 le 13Et44 4 ~lohifte&
~laSio OH 5 UC1/S:C RiLEASE RATE OF EACH 1SOTOPE 1H AHO A VALUE OF 1 ~ fOR X/4 ~ OEPLEYEO X/0 AHO RELATlVE OEPOS1110H 41/25/79 EHVtgOHsIEHlaL PAJHNaf OOSE COHVERSloH FACTORS Isa lHIIAV 1HsIALAl1 OH FOR Fsasfous 01SCHAPGE S Arsf CROUP 1HFAH7 HUG LEOS IICHE L1VER THORClo K10HEV OHrsaHOOSE FACTO R S EHREH/YR PER Ucl/CueHElf01 eeee&Q\\eeooeae\\oeeeeeeeeae\\eeee aaA LUHrs rs1 LL1 SK1H 107AL QOOV C - 14 P - lt re-St IsH e5ss F-59 CQ-57 CO 50 CO 6I Hl--43 7H-45 r t--s6 Se--09 Estee)4 gee<<91 7W--95 H9--95 au 143 fU-106 AGttOH CD 115H 4 ~ 5 '46143 Ze 3tfi05 Oe ~ ete46fi43 I ~ ~ e 0 ~ 7 56E<44 5 '7E~03 I ~ 4 ~ l1f ~ 44 1 ~ 3tfo97
5. IOEi44 t.IIEET 44 1 20!
1 69E F 02 9e 31E o43 09fi43 0 ~ 4 '0E<02. 4otIlt03 te 15EWI+ ~ e 6 '3E403 4'EII6 1 ~ 2tf402 telIE>IR I~ 4IE<02 5.49f t ~ 3 t ~Itf404 t.37E 104 I~ 0 ~ Oe 2.73fo43 5e75ft02 0 ~ 4 ~ 1 756>43 3'4E ~ 44 4e30E F42 4etIfi~ 3 ~ e1.04E~It ~ e ~ e ~ e ~ eI ~ ~ ~I~ ~ ~ ~ o ~ ~ ~ eI ~I ~I ~ 0 ~I ~I ~ t ~IIEtOR Se90E ~ 4t ~ e 3 ~ 99E F 00 t ~ 72E 403 ~ e ~ e ~ eI~I~t.2ifi04 I~ ~ eI~ ~ e 9'0E~03 1 ~ 3SE F03 1 ~ ~ Rft03 Re34f ~ 04 3e44E003 Re77E~04 4'0ft~ 2 4.ROE' 3 ~ e Ro52E>03 te45f ~ ~ 5 te70fi05 6e47E ~ 04 ~ e79E<IS 5 ~ 57E ~ 06 3 ~ 1RE F04 le53E iIS ~ e to31E >06 te53E407 2 63E ~06 1 ~ ~ 1E ~ 06 4.77E ~ ~ 5 Se66E ~ ~ 5 1 ~ SIE < ~ 7 ~ettf >05 2 '6E>05 4'01 ~ F 2 4 ~ ZIE403 te5lft04 5.0tf ~ 02 1 3$fi04 3 '9'4 5.5if F03 1 ~ ttf404 3.20fo04 t.34E ~ ~ 3 9 '5E> ~ 3 2 '1E4 ~ 3 6 00f <04 1 ~ 39E ~ IS 7'lfi04 1.4tf ~ 04 1 ~ttf404
i. SIE i04 t.76f F05 5.29fi ~ 4 6 ~ 72E 104 I ~
~ ~ ~ ~ ~ e ~ ~I ~ ~ e ~ ~I~I ~ ~ ~ ~ eI ~I ~ ~ ~ IeI ~ ~ ~ e ~ ~ ~ e 4 305 iOZ 4e ROE 103 ~ e70E~ ~ 3 1 ~ 75EOIt 1 ~ 10f ~ ~ 3 to 05E+03 tetOE<02 te60fiIZ 1 ~ t7E ~03 2.53E F 03 I~ 15E ~ 03 te ~ 3E<04 te24E~03 4' 6'E~05 1 ~ 64E ~ 03 1 ~ 95E~ ~ 3 3o 37fiIt 5'5E ~ 41 le 14E043 t ~ 04E ~ ~ 3 1 ~ 1if103 ,S-.q CH 1 uCl/SEC HELENA".E ISarE OF EaCH tSOlOPE lH AHD A VaLuE Of t. FOR X/4o OEPLflfo X/O AIIO RELA71VE OEPOSlilOH 01I?5/l9 EHV)RGHHEHfAL PAfHHAT Aa)SE COHVEHS)OH FACfORS Pi 3HNA'T )HHALA1 100 FOR GASEOUS 01SCHARGES AGE GROUP )hFAHf lluCLlul: 50HE L )VER )HTRO)0 K)AHET 0<GAH OOSE FACl 0 R S IHMiH/TR Pca UC)lCUo HE1cRI '0 %\\o o&o o% % 'o'o%% '%'o o% o %%&\\wooo o o A\\\\ LUHG G1 LL1 SK)ii )01AL 800Y . 0-l?3 50-3 26 <<0-1?C cist o5 1 c 125H )c ttlH l c 129H ) 130 ) --151. ) e~t 32 ) oat 33 1--13~ ) -t>$ CS-13C CS-1)c CS -13l AA th0 CE-1st Cc -tCC Fc-tC5 00-1 5 ~ ttcoCC ?o?tf ~ 05 5oCEct03 t.16ct?C C.5CE AD? 2 ?tEt03 t.3?c ~ 03 4'?ftit 3o63fo4C 2 ~ Qlct4?
1. )Cc ~ QC 1 ~ 13c ~ 0?
S ~ 14it42 C.eai F 05 6.05? ~ 43 6.eei ~ 0$ 5 ~ 14E t 03 2 52 o03 C ~ 64c ~ 05 1 ~ 6Cit03 9 ~ 2 3c ~ 0? 6,C5i ~ 02 5'5ft03
t. ~3Etit 1,25ft42 1 95Etit 9o43ft42 5oiifF 42 2 ~ 35ct43 C ~ ?lttie 5 ~littit 9)ft4C 3 02ct 02 1.??ft43 0.25ft05 2'6Et0C l 3tc ~ 65 s.?1 Et 04 1.55c ~ 03 1 42it il5 6o5lit02 1 ilft03 6.CSct0?
l.l2E ~ 03 .1 ~ 3?Etil le~ )Evil l ~5)f ~ Qt S.l5E ~it $. ~QEtit 3 ~ 4%ct4$ 1 etc'l l.6lf~ ~ C .C.66ft06 C.Q?EtQC 1.6si ~ 45 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 2 ~ ~ o 0 ~ 4 ~ 0 ~ 0 ~ tollft43 ~oilft~ 3 6olif~ 43 3'$ Et43 t.irftia 9o49ftit C.%SEE 43 Ioi?f ~ilt 1 ~ 95Et43 5 ~ QCE ~ QC 1 ~ SiftQC 3 '9<<tQC to93Etii 1 ~ lie t03 1 ~Cift4% 3.lif~ 42 6'3ftit 5 ~ 61E t46 1.6CE t46 Co 34i t ~ 5 3.i%Ed 45 Wo96ft4% 1.6'. ~ 4$ lo ~3ct46 4 ~ ~ o 4 ~ 4 ~ Il~ 4 ~loilf~ 05 tolift03 9.CSE ~ QV 1 6I E ~ 46 5.?CEt45 lotlEtil CD 9tftQW 3.4eitia 5 ~ '39f t4l 2 ~ 2)f t44 l.ttEtiC lo16ftQC 1.36f tQC ?.ftftQC 1.3?ftQC lo3$ E F 43 1 ~ Qlft43 l.ttEtil ?.tif ti3 toNE il 9 lictit 1 ~ 3lft ~ 3 2.4<ft43 l ~ 3?f ti3 3,44Eti3 toi6c ~ QC 1 6)ft0% 3 '4ftQC 3.4?EtiC 4 ~ ~ ~ 4 ~ 4 ~ 4 ~ ~ o 4 ~ ~ o 4 ~ ~ o ~ o ~ o 4 ~ ~ o ~ o ~ o 4 ~ 4 ~ 4 ~ ~ o 4 ~ 1.0?ft03 ~oC4ft43 2'lEt03 2 ~ 3?E ~ 43
6. 16ftil
?. lCE ~it to06ftit 9o?5E ~it to%)ft QC 2oi)c ~it 5 ~ilct03 1 ~ viftit C,Stftit l.3?Etio 1,95i ~ QC C ~ C1Et46 2 95Etit lo ~ lEt42 2 C')ED 4C io 11Et41 6 ~ 34<<til nl 1 u )TS 4 "':LEA'C Riff CF EACH )SOfDPf )H AHG 4 VALUC Of 1 ~ FOli X/4 OEPLEffO XIO illA RELA1)VE OEPOS)110ll 4 l/25 ct..V TRCOIHEHTAL FATtWAT-DOSE GOHVERS10H FaCTORS PATHIIAT COstS tslLst tCOHTAHlttalc9 FORAGE) FOR GASEOUS PTSCHAFsGES AGE GROUP - TNFAHT HUGL lOF tsCtif L lvER THTROTD ORGAH DOSE F ACT KTOHET 0 R S lSQ DIETER NREN/TR l.UHG Gl LL1 PE R UG1/SE G 1 St(TH TOTAL OOOT H -lo PCgrrft HH r>> 54 FE --59 CO 51 C)>> c) CO->>60 ttl--43 1tt 65 R9 rh6 S""49 cR--90 r>> >>91 th -95 tsS--95 t U-l>>3 ~U-tDb AG l 1 ilH CDll Stt D ~ 6>>55co45
l. Stf o 10 0 ~
0 ~ De l1=oD1 4 ~ Qe 4 ~ 1.16E. S9 1.46fo09 Ool.416 o l 4 le 65Eoll 0-ltEIOI 2 ltd 05 5'9E F 05 4 ~ TilfI C3 2.41 fI 05 6 ~ Elf ~ 41 3 ~
t. 31Eo43 6>>55EOOS l~ 14E ~ 09
~ o ~ e96E ol6 1'2E ~ 07 le 36fo46 2 ~ 55Eo 01 ~ 13fo01 4 ~ 91f ~ Oi 4 ~ 65Eo49 te11f oi9 0 ~ 0. 0 ~ 9.I. lfo04 2.41foOS 0 ~ 0 ~ 5.15E o 01 1.131 o06 315 Ill 6 SSEo45 4 ~t.ltfoos ~ o lo ~ o 0 ~ ~ o 4 ~ ~ o ~ ol~ 0 ~ ~ o ~ ~l ~ 0 ~ ~ e 0 ~ 0 ~ l ~ 44f ~ 03 1 ~ 156 o04 0 ~ 6 ~ltco03 2 ~btfo06 ~ o ~ o 0 ~ ~ e ~ oTottfo09 0 ~ 0 ~lo lo 1 ~ Dbto44 4'4to04 4 ~ 16E>>03 4 ~ 2 ~ E ~ 04 tol3E OD ~ t.05fo06 2.31E ool 6.55colS ~ e 4 ~ 04E ~ 04 ~ e 2e ~ 9E ~ 01 ~ o ~ o ~ o 0 ~ ~ o'o ~ ol ~ ~ o ~ ole ~ e ~ o ~ e 0 ~ 2 ~ 31E o03 6 ~ 55colS tol5fol9 66fol6 te14E oil to40foll 3.46fo F 1 6'0Eol1 tol6foil le04E Oli 2e93Eo09 5'5E ~ 0 ~ 2 ~ 1$E oil lo6tf o09' '1Eoll 1 ~ 41E oil l.o94E oil lol4fo0$ l ~ 56f ol6 2 '5E ~ll 5'lfo01 4 ~ ~ ~ 4 ~l ~ ~ o 0 ~ 0 ~ ~ ~lo 0 ~ ~ o 0 ~ ~ ~ 0 ~ 0 ~ ~ ~ ~ o ~ e ~ ~lo 0 ~ te 31EO43 6 ~ 55f o05 1'5fo ~ 4
3. DSEol4 le 1lEo 06 te 06E o 01 2 21fo46 6>>24fo01 2.09fo ~ 0 2 Islfo04 l~Eo09 lot9 o09 4.22E ~ 00 4e tlf~ll 2 ~ 16f ~ 03
5. 56Eo04 le 45fo05 2.46fo03 2.I6E ~ 04 3.42E ~ F 1 4.24'4 cQ 0.'I l ttCl/SEG tiELEASE RATE OF EACH TSOTOPE TH AttO A VALUE OF l ~
FOR X/0 ~ DEPLETED tt/0 AHD RELA11VE OEPOSTTTOti IIOT-: - Ttsf Utsll FOR G- -14 AHD H- -3 ARE lHA N/T4 P R UCl/CU stfTERI 41/25/ ,t<VgnOHttftilAL PAlnttAX-CNcf CONVE~S34n-FAC1ORS Pt<lnNA't CONf tt1LK ICOM1AnlHAlcl FOhAGE 1 FOR CiAStOUS 41SCMAI:C<ES AGE GkOUP 1MF ANY t<llCL 10c OOt<f L1VEC tnt RClO O R G A tt 3 C 5 E F A C 1 4 S IS4 nclftt-tU<fn/'fil PER UC1/SfCl e\\Q&\\ %%%>>o>>%>>%>>\\%>>%\\oo>>>>%>>oo>>ooo>>0\\woo ooo>>\\>>\\%%%%%%% FEONE w LUNG G1 LL1 SK1M 101At BOOL LN-123 6:i-1 za Eit-I <.'4 St)-125 lc 1 lGH litzln 1 c 129tt 1-1 50 1-- 1 ll 1- -1 lz 1--l 13 1--134'- 13S CS l 1>> C -1 la Cc-1 ll PA-t-4 Ci 141 Pi OO ter 0 ~1.75ioo9 Z. l5f~ Ol 3 '9cghr
1. 5li~ 4 ~
5 f5+cool S.itritott 4.54c PCS 2.59ft09
l. 1lf-01
3. rSc ~ Ol 4 ~l. 496 ~ 04 4 ~ 43c ~ l4 2 ~ llc ~ 04 D ~ >>Qf ~ l 4 2 '5'0 2 '5ct05 2 ~ 1 ~Etor 1 >>69i ~ 02 1 ~ 23ieoz 4 ~3.44ctor 5'9ci05 3.2rfeoh
5. 30itor.
t>>936 t 4l 2.02feol to 35cc Cih
3. ~ 9Eel9
>>o lhE ~ 1 5.40teol ~ o 3'4c ~ 04 9rcc 14 l.lotto<9 l ~ 2tf ~ 14 2 4rieOS t.hzce05 ~.29'6 6.loctot l>>19'2 0 1 ~ Oti tol 6.C>>i ~ 04 2'3c ~ a,6 5 ~ toe ~ Ol t oliftor zozli ~ Ol l.rlc ~ 00 9.94c ~ll 6.26fe ~ 1 1.3IE ~ 1 ~ 1 ~ 46c Oi 5-1SE ~ 06 I ~ ~ o ~ >> ~ >> 4 ~ ~ >>I ~ ~ o 0 ~ 0 ~ 0 ~ 3 ~ 96i ~ 06 r.oSctor 2 ~ 44t to ~ 2 rlfio~ 2>>09E 406 loltsf 4 ~I l>>5lf ol 1 ~29fclr 4 ~ 6.Zhfc04 4.65E ~ 09 6.ttfco ~ 3.66c ~ 09 t.zzfc04
9. l2E ~ 43 5 ~hrit05 3'2ftlt r.ztfclt 4 ~4>>9lieo6
2. 13Eill 2.43ft09 I ~
0 ~ lo ~ o ~ ~I~ 0 ~ ~ oo.ort-oz 9>>tZEt09 ~ 3ricor 0.69E ~ 49 1.5tf ~ 05 4 ~I ~ lo ~ ~ ~ otothic49 r.rlfio~ 2 ~ 43f toO l Srf>lr 3'4fcOO 3.5>>ceo ~ 1 o tSE noh l.thfc44 4>>93t 02 9.r4fc46 lo ti ~ t<tf ~ ~ 4 1 ~ 94E < 40 1 ~ 25f cO ~ t >>46EC04 i>>lit~ 06 l ~ Irf<ll l>>66EFIO r.4tf>05 5.63fo0$ I ~ I>> ~ ~ ~ ~ I>> I>>I ~ ~ ~I ~ ~ o lo' ~lo 4 ~ 0 ~ ~ ~ ~ o ~ ~lo ~ o ~ ~ I~ 5 ~ 256 ~ ol 1 ~ 09t ~or 6>>62Etih 2>> 1 of ~4l lo 30ic46 ~.95fclr 5 ~ 29f t05 1 ~ 41Et l9 1 ~ 69c ~ 1 1.66E ior 0 ~ 1 ~ 44E t04 6 rSft09 lo 'lOE ~ 00 4.tcft09 1 ~ 2lE ~ 4l 1 ~ 90fcoti 1 ~ t3ie06 0>>t<ofeoo lo ~tf~ 40 'ts t'Ott 1 UC1/SLC "ct 1 A i HArE Of ESCn 1SOtOPE 1H ANO I VALUE Of 1 ~ FOR X/4 OEPLElEO X/4 A!IO RELA11VE OEPOS31141< 1 t - lw= untl'Oi C---14 Ati0 n----3 ARE tnfiil/TR PcR UC1/CU nffcRl PAIHAAV - ULbCHAK4i ~ANAL SHUKLLH= ukPu~fI~ Auc GKOul' ) kcNAQCg NQ~Lluf gamma 3 Pmm m 32 GR5L IlN--50 fk--bb Fi--59 oil '-Sd l'0--bIl 7N--o5 Kli-do SR--Sg iit 9U 'fmmw9j LR--9i N--91 Ni--95 NQ--99 fcU-104 RU-Lub AI lluN Sd-12'G-145 fc14>tl IcL4lll. IfL4$N "lf13LN Ic-132 lLii iii-LSD l;S-13o CS-L37 dA-lou LA-LQU I'c-Lv1 I.'i-1v ~ I'i-LQS NP-43.l oONk 4 ~ Uo 2 ~ u6ctuo 6'Qct62 0 ~ lo21Etu4 L.blft02 gov5ftu3 3.4lc,tu2 Slf+u4 9.~Itf-u3 2 ~ Sbftuu w.llc-DL 4 ~ 41E t02 2 victUQ bo uiftii1 2.bactOO Sed5itUL 1 ~ d5<<.t 42 1 ~ 5dkt03 4'0ft04 Loulftu3
o. dbc.-ui 3e Slr.-ul lelliftuL v.b9ituO 4'SctIll l 59<<.t00 1-u9EtUU 3 Ddftu3 b ~Slitul s.54ctu3 3dc.t ul d ~ QoctuD PE U4ctuu 1 ~ U2ctuu 4 'gctUL I ~ ~4c-u l LiVER il ~
4 ~ 2 '6ktDU b e U gktIl2 0 ~le 41E t42 1 blE+02 g.w5c.tQS 3 ~ 2lc,t42 3 ~ Qlh.tu0 .9. oaE.-03 2e36Etilil w ~ llh.-QL 2 Z>ft02 .2 ~ Slf tUQ bouiftill 2.DDEtGQ y ~ SSEt01 SSk tu2 1.58itW 2 ~ DIektu 2
i. Ulkt03 o
SSE-DL 3 ~ 5 1E-u 1 l lUk+01 4 obGCtUB 2 ~ 4>ct01 l ygftUJ 1.ugk+DD 4 ~ udE,tDj b.5lktOL s.ovf tu3 l.adktul d ~ Wbh tIlu o 04itUU 7-ukhtuLI o 9+tDL l.b4E-U1 Ok Ci fHfk010 0 ~ Il ~ 2 ~ Gbk+QQ 6.49E tu4 Il ~ L ~2lftU2 1 6lft04 go~Sf t03 3 ~2lc t02 3 ~9lftoil 9o5%k-03 2.86f tUU llE-01 2 21kt02 2 'LftGQ 6 ~ ULEtDL 2 bQEt00 0 ~dSEtoi L od5E+02 1 ~ SSktud 2 6vft42 L.OLEtu3 b.deaf-DL S-Slf-OL L.lDk t.OL S.bgct04 2 USkt41 l bgf t04 1 DgE+UQ 3.0SE tu3 b.Sic tOL v 50c!43 l Sdktol d e4ok tIJU b ~ UZE tDU l.ucw tdu 99k. td' e52r.-41 N Il U S c KlONc'0 U ~ ue 2 ~ ubc tuu bo ugi:tu4 0 ~leClctu2 1.6lft42 go 05E tIli 3e 4lr.tU4 3 ~ 9lit4u 9o 54c. U3 2 36E+uu 4 ~ llf-01 2o 4lc. tUC 2 ~ QlctuU 6 ulit01 2 ~ 6IlctilU 4 ~ Si= t01 1 ~ dik tsl2 1 SSE tIl3 2 ~ bitt U2 ioDLct04 6 deaf-UL 4o Slh',-Ui lOitul It ~ 6)kt UU 2o uSE t01 leogftuu lo UgctGU Se IldCtUO bo &lktul we blitu3 l ~ dditda Se 4sf tUQ be aJZC tuU 1 ~ UCc. 4 4u Qadi t Ul e' >CL.-UL Kk N l I.Uhti U ~ 0 ~ 4 ~ uoftuu ao4 Jktu4 u ~ lo 4lctu4 1 oblftu2 viEt03 3.2lft02 S ~llctu0 gobhf-U3 4 ~ Jbct40 0 ollf-01 4'lctU4 2 ~ Wiktuu bo 0LEt4l 4 ~ 6UC+UU 0 ~ 55c.t01 lod5ft42 L.oSft04 2 ~ chct04 l.ULEt03
o. Sw E.-OL J ~ Slf-II1 le lDitul vobQEtUQ 2 ~ QSE tU1 le 58ctuO 1 DgctUD 3'dft63 oo Slctul vebvh,+il3 I 3dr.t Ill 4 ~ voftuD be 02k thou leu4ctuu v sdc t41
/ ~ 52c-ul Gl-a.Li u ~ U ~ 2 ~ Dbctuu beugctu2 4 ~ 1 ~2lr.tu2 S ~ DlCtII2 9 ~Qbitu3. >.4IEtOc 3 ~glftuu 9o JOE U4 4ek6ftQu 0 ~ )lf-01 2 ~21i tu2 4 'lktUu o ~Illft'ai 2 ~ 60r. ~ u 4 'a ~ S5E tIll lod5E t42 1 eSdktU3 2eovf tU2 leulk t03 boSWk-UL 3odlC-Ill l4E t01 ogituo 4 ~ uSc tul loD9C tUU 1 Dgftuu S.udkt03 o.&iftu 1 9 ~ >4E tub 1 ~ 3dftel 6 ~ Woc t00 0 ~ U4h t'u U loUCEtUO y~bgc tu 1 I ~ JZc. 41 SCLN U ~ 0 ~ 2 '3ctu4 l ~ Lokt48 0 ~ 1 e44E til2 1 ~ 9bf tU2 lollbtUQ 4 olbftu4 0 ~ b4C ~ UU l.llf-u2 2 o l9r.tuil
So3oc, OL 4 ebSctu2 2 ~ S2E too l o Qlc t.u 1 4'Qctuu SebDCtQL 2 ~ 21E t u2 1 ~ Sect&j 3 'lvftu2 1 e LwctuS s
3SE,>>Ga .0 ~ 29i; U 1 iogdctuL 2 ~ 05:-tu2 4 ~ WLEtul g ~ 24i t uu LoMEtuU 8 ~59ctu3 l o4%t tU1 o ~ 2gc t 48 de4octuL 9 ~ 5)ttuu o olgftuu. 1 loktuU 5 ~ Zoktul d ~ )Lc uL lu)AL Q4>Y 0 ~ U ~ 4 ~ Uoc. tuU 6 U9ctIlg 0 ~ lo 2lc t02 1 ~ 6lc t U2 9.w~ft03 Oe 2lE tIl4 3 ~ 9lc. tgu 9.5sf-u4 c ~ 3oftUQ lt ~ llC, 04 2.2LEtQR c, ~ Wikt00 boulftUL 4 ~ 6uc t00 4 ~ doc tQL 1 ~ S&ct ll2 1 ~ Slct43 2 ~ bItc t42 le uic tu4
6. SSE-0l=-
3o Slf-ul 1 ~ lUkt41 4e ogc til0 2 ~ USc tug lo 59E tUIl le Ugc. tuU 3 ~ QSEtg)
b. 5lc t01 0 ~ Jvi til3 le 3oc, tUL d ~ QbctUU 6 ~ u2E tuu 1 ~ 02ctu4 v ~ 'J4c t41 I~ >4c Ul
UUzi I AU1 kalb t assa I. 1 IJISI U Ul ouIIAIIGCU usahLU Uu 1 ULC IH KCCLASC ISF Casiili lu41ISI'i. IH Ulbi IIAKGL FI.UU QF 1 Iai'II 4jill IIU aIUJS ILUIIAL IsLCUI lUH I'AIIIUIIU bALl KAICII F cCN A4C 4HUUI'CCIsaaukH ssuik LUC UK4 HOOUC liiutill sl o I'-t-Jc I II--SL llH--4 Is 1k--54 ik--t9 I.as- -b 4 uu -uu Cai ua KO ub 44 oC--94 I---QL cl--Ot CC--91 ilU--43 slil-KU-LVS ~.il-lua ss 1 lail oal-L2II Jp LC7 1 t. 1 CSii It.121H Ic.li9ll ICLJLII IE-lJc -13l l--lJ3 aao 1 JII 46-Lou I'3 1 JC u4-Lvu a.i-lvls vc.- 1 VL UL lvJ us. 1 'I ~ lua-C Ju ~IUKC U ~ V ~ I'.9C ~ 41 U ~ 4 ~ 1 ~ a>uk t u5 LE 43ctub u ~ ueI ~Iuc.t isis 4 ~I ~ 34ct4J 1 41EtuS 3 ~ 09ct41 9eClct41 a.L3ttu ~ 1 ~Ils.tu 3 L.VLE.-42 aea2c ~ 40 )eb3CtoL v Clsitu3 4'istt42 I~ lAEt02 Jeuvctu2 5'2ctuC 1 JLE ~ JJ 1 ~ 41E t 42 C v5c. ~ OC Is ~ llc. ~ uC I 39ktul 2 ~ >9c tubs le 99EtaJ JevVctuls C ~ Loc ~ u3 veoJC-OL 9 ~ ucc Isl LeaCC 41 5 ~I'Sc' as L I ~ JIc u c c.LVC0 IeoIC-VL C ~ out ~ 4o Ue C e IS CC. t 4 V b 13ktua C ~ Vail.t45 1 90E ~ UC C ~ 2CC t43 c e Isll. ~ US L.Jak ~ 03 4 ~ 0 ~ li ~ 3 ~ 9uc. t41 1 ~ 54c. ~ 00 L.uJc.tOJ 2 ~ IUC ~ 02 4 ~ 4 ~ 3 9CEtuJ l.a9E t01 4 ~ uui ~ 40 1.09k ~ UC JJC ~ UC ouija U2 I Ilk'l leOUC ~ OC ae uLEtuC 1 ~ C>t. t4 2 aeCvt tuv I.ossktu 3 v ~ a3c ~ Ut C ~ Iac.t44 r ~ C tk-uL aeuuc IIL 5 VJLtuc CD Joc.til Iec4L 4J 1HI'ltUlU I. bIL.-Ul 4 ~ v ~99C tu4 U ~ 4 ~ 0 ~ 4 ~ U ~ 0 ~ = 4 ~ 0 ~ 4 ~ 4 ~ ~ e 0 ~ U ~ 4 ~ ~ e 4 ~ ~ e C ~ LIIEtu4 Oebssk-QL 0,54EtOL 1 bSE ~ 42 0 'ute 02 1 15kt4v 4.93Et03 l.o4k ~ 4> 2 '0ttUis 0 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 0 ~ 4 ~ <<luuiI j~ lilt. Ol 0 ~ 1 ~ 4t=t 44 aeuUctOJ 0 ~ 4 ~ 4 ~ 0 ~ 1 ~ bSctuS U ~ 0 ~ 4 ~ 0 ~ b ~ VlctUL 1 ~ Alct04 ~ e llct02 be Littu2 le 60E,t01 le CStt02 I ~ 10ct4J 0 ~ ~ C. luctuu ~eb6ct42 C ~ CSE ~ 03 3'9ituJ sse39t,t02 le UUit43 I.S3c tUC 1 ~ 50k ~ 4C 1 ~ Sbk t04 ts ~ JhctUJ le Lect UU oeoLEouL U ~ Ce JLc ul 4 ~ CIC UC 9 ~llc tu4 CeCOc-02 I.olc-ul 4 ~ L. Llctul ueI ~ IUC 'sua O ~ IdkI ulS U ~ 4 ~ 4 ~ 4 ~ 4 ~ 1 ~ ICc. ~ u J 4 ~ 4 ~ IS ~ 4 ~ 1 ~ 9tk-VC 4 ~ 4 ~ 0 ~6.9Jktuu Cev4ktOII 4 ~ Ue V ~ 4 ~ 4 ~ Ue 4 ~ y>itUJ 4 ~ 94ctOC oe LvctU3 leIUCtJV U ~ IS ~ 4 ~ 4 ~ 4 ~ 6L-ca.'1 IeaIC-UL IS ~ aCF.tub C. luE tu J I.LUtto<< CeolEt JS 0 ~ 00ct45 1 eOIctuv cebaE ~ ub 1 ~ >bctUS CeahCt4C I 9CE ~ VC uebvctU3 1 e hilktub LeCSktuS o.u3ttuv v ~ RLEtuo a.SLEtu2 Is ~J9ctuC Is ~ 36E ~ 4J Leauctua 2eSJt t0i ae JJEtuJ 4.>UEt02 2.alE ~ UJ 4.5IE tu3 JeUUEtOJ SeCLCtoJ 1 ~ LOE ~ 4C 9.14ttul lec0c,t JC . ~ eULE ~ 42 a<<LUC tuC oeb0Ct43 LE Cbctuls 1 ~ 44Et43 C.>>JCtOJ c ~ JVEtJII l ~ VvE tUJ UClH 4 ~ ~ e 4 ~ 4 ~ IS ~ 4 ~ ls ~ U ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ U ~ U ~ 0 ~ 4 ~ 4 ~ 0 ~ Il ~ 4 ~ ~ ~ ~I ~ 4 ~ IS ~ 4 ~ 0 ~ 0 ~ 4 ~ Is ~ U ~ IS ~ as ~ is ~ 4 ~ IS ~ al ~ luluc Uncut I col c-4L l ~ Isoc t44 0 ~ Jtt t4U ge 45CtuJ le IIC ~ 43 9 ~ Jlc. tu ~ c ~ Uuc tut 0 ~ Sac ~ J3 l ~ LCc tot
a. JJC tJC C ~ 4)= t UC 4 ~ LJC t Vis 1 ~ 4vs. ~ 44 2 ~ Sec tui 5 ~ atk UL be0a.E t JC at s9c tQL c ~ 5lc.t 40 l ~ clc. t Ui C ~ Jtct4$
3 ~ SJC ~ u2 leISVC tuC v ~ Uvs. t Ul ae ulC ~ uo C ~ 612 t42 aebtCtbL 1 ~ Is'Sa. t u2 J ~ Isa t uc 3 ~ Uac. t4i L ~ 9LC tuo >eoisc to 3 leaa.s. tuV 1 ~ J tc ~ 42 a ~ uSt Jc Ie bee 4c leulc-UC oe ulk taJ J ~ 9cc-41 e Table 3-8 REPZREam XETZOROuKY g~ggg R~~~ DEPOSITION ~TE 9 2 g/q are annie averag ed f ctors representing the fraction of a )))ized mode afgbornk re ease, rom gabe lease, from the Turkey Point RIant vhich is deposited on a square aeter're)L o an f land at a given distance and direction. from the Plant, Period of Record: Ol/OL/76 to 12/31/77 BASK DISTANCE IN NIL.ES / KII.OYSTERS AFTO OES I%I SECT DIST HI NNK 0 ~ HK 0 ~ KHK 0 ~. K Oo ESK 0>> SE Oo SSK 0>>. S Oo SSM Oo SM 0 ~ 'ASM 0 ~ k 0 ~ 4NM Do NM Oo HN8 0>> M 0 ~ 6>>4K-09 3>>SE 09 Ze8E-09 " Zo7K-09 &E 09 So3E-09 2 'E>>OS le2E-08 Z 3E 09 Io)K<8 2 '2-08 Se7E>>08 4olE-08 2 'K>>08 I ~ ZE-08 So8K 09 loSK 09 4o7E 10 8>>7K 10 2>>8E 10 5 ~ IK LO Z ~ IE 10 &o6K 10 Zo4K 10 4 ZE-10 I 9E 10 I ZE 09 3>>7K 10 5'E-0'9 ) ~ QK-09 2 lE-09 6'E 10 7'K-)0 Zo4C 10 2 7K 09 ) ~ QE 09 5 DE-09 USE 09 I ZE 08 3e~K 09 9o&F.-O9 Z ~ 7K-09 6 ~ ZE-09 I ~ TK-09 3>>OK 09 9,SF IO I ~ &E 09 4oRK 10 oZS ~ 75 I 50 ~40 ) oZI Z>>41 ZoSO 4>>02 Z ~ OK-10 2E 10 7e&K-LI I ~ IK 10. 7o7E 11 6 10 6>>BK-10 3 DE 10 ).ZE>>to 4 ~ 3K-10 6elE-10 l.4K-09 l~OK 09 &oIK-10 3'K lo le8K 10 9o IK>>)) 6>>4K ll 4e IK>>lI 5 8K-ll 4oaK-1I 9'K ll 35K I Z.aK-IO 5 ~ 3" 11 Z ~ 3'K 10 3'K )0 7e&E 10 5'E LO 3 ~ IK 10 2 ~ DK 10 9o5K II S>>SE LI 4>>3K li 2o9E II 3 7E 2 7K-LI 5>>4K ll 2eSK 10 1 BK-LO 4oeo 'I I loZK-lo ZeOK-LO 4o9K-)0 3>>4E 10 I o8K LO ) ~ )E>>IA 5>>BC 1'>>lK II 2 5E ll l ~9f-}I ZoSE L.SE-Il 4>>ZE>>IL )>>BE'IO 9o IK>>$ 1 2 8E-II 9>>6E l ~ 4E-10 3o3K-10 Zo 4E-l 0 ).3E-LO 7-SE I') OK 3>>SO 4>>SO 5>>SO So&3 Te24 8e85 7e00 II>>26 2>>7K-gl 1.7K-II I eZE I) ) o&E-II 1 o)IK Ze9E-I )' .QK )0 5.8E-I) ZoOE II 5.5=11 8 5- \\) 2 IE )0 le4K>>10 8-5"--)I 4 'K>>1'eSK-ll BASK DISTANCE IN HII.ES cc KILONK)FBS AFTO DESIGN SECT DIST 9ooa ll~ 00 ~ 79 5 ~ OO I ~ 00 l4[ )4>>48 17o70 1 ~ 27 8 ~ 04' o61 2eDO Zoc5 3>>22 . 4o42 4e30 6'2, NNK Oo NK Oo KWK 0 ~ Oe KSK 0 SK 0 ~ SSK 0 S Oo SSQ Oo S'8 Oo MS@ Oe 'H 0 ~ 'kNM 0 ~ N9 Oo'Hi40 o N Oo Io&E 11 9 9K-12. BolK IZ I ~ DK ll 75K )Z I ~ SE 11 6o&E II 3 4E loDE 11 -3eSE li 5>>SE ll
l. ZE>>LO 8 ~ GE-LI
.4oSE>>I) 2 SE-11 I ~ 7K 11 9o3K IZ bo2E 12 SeZK 12 6 &E-12 5 RK 12 13K I) 4oSK II Ze3E 11 &e&E-12 2 2E ll 3 fiE-II 8'K Il )c'-II 3 Z~-II ) ~ 9c-I) ) ~ IE-I L Ie4K 09 4 ~ 7K I) Ae )K>>IO 3>>ZE ) I SoOK 10 Ze3E-)) 5 9K }0 3'K-LL 4ol". 10 2 Z-I) I ~ IE 09 4 7E-i) 4 9E 09 2 )E-)0 1.9K-09 lea -10 6 ~ 7K>>IO 3 AD &5-1) 2oSK-09 ) ~ )E-)0 4 &E-09 )e&K-)0 I ~ IE-09 3e 9= 10 8 ~ 7E 09 2 ~ 8E 10 5 6E-09 ) ~ SK-)0 2'K 09 BoBK-LI I ~ 4E 0'9 4o8 }) 9e&K )0 5.&E-IO 3e&K-10 4o3K )0 3'E 10 7.)K-)O 3cE 09 I 4 -0'9 4.SE-)a 1.9E-09 3>>2E-09 7'K-09 5 7E 09 3'E-09 I ~ BK>>09 l OK-09 Zo&K-)0 I 8E-10 I ZE-10 I SE-)0 I oZK>>LO Z ~ 3E-)'0 I )K-09 4o.".E-I0 I ~ 7- -I0 6 ~ 3E )0 9'K-'0 Ze?K-09 I ~ &E 09 9 ~ 5-10 5 4K LO 2 ~ 7K-)0 leSE 10 le)E 10 6,4K>>ll 8 ~ 8K-II boSK II Io3K-10 5'E )0 2'K-)0 9 ~ 7E>> I ) 3 ~ &E I 0 4 'K-IO ) ~ 2E"09 9'E 10 5 ~ DK-10 3 ~ DK )O ) ASK-)0 6 ZK-II 3'=-1) 3 9'-) I 2 8i-LI 6 ~ O'= I) Ze&K )0-1.3K-)a 4 ~ 8K-' ) I ~ 4K-LO 2 ZK-)0 5 ~ QE )0 3 8"-)0 2 ~ CK )0 I ~ ZK- '.0 rK Nl)'48KB'F NUHUER OF'ut~HEROF N:)HBKR OF VAl.IO OGSE)RVAT IOHS a INVA).IO OBSERVATIONS = CA).~S (.O'ER
DEVEL, CAl.<tS VPPER L.EVE). ~
16538 )006 )95 383 0 0 slUUL t A4IJ cu l UK L 1 aIUI 0 Ulo4IIAKuch u<<FLU 0'i UL/fK KCL'ASC Uf LAI tl lCUI aIPC LII ULS4NAliut tLUII Uf l s I'H Ullll IIU <<UULILUKAL die.ulluH rAIIIUAU -.ALI KAlcK 4IIELL ftSK ssuc ukuui' LCEIIAGLK
IUCLLuk UUNC Ltuck Ilk G 1 iilk010 II UUSC KlUIlt.u l Il ll k II LUNG Cl-LLl SKLII lilltas. ULIUI H
I ta--bt IIII--hV fc--eb rc--59 s.'0--54 00 u4 CII--ub Ku--Ou 44 0'4 UU I 91 Cta--9t c0--41 lou 'lu IIU--99 KU I LI3 KU lssu IIItL LIII od ltv 4D 12e 1c 1 CSII li 1 c10 let CUII If1jill Ia.- L)C L--L~L 1-- 1jj 4e-Ljv 04 lhD ah-L j1 IIA-Lvu LA-114 a:k-Lvt 4I.-LWj I'c-Lvs ~II tJJ I ~ Lousce 41 Oo 4 ~ c ~jfct UU 1 eujftIS 4 ~ 0 ~ 1ouZE t45 4 ~ 1 ~ 13c,tu1 3 ~Jlf ~ 45 3 ~ 1ui euC bob>ct40 louie.-UL. 1 ~ jefeCU lee1c ut veySitOC 1oe3kt43 l ~ Glceuj teeSctbt C ~jLLeIIL 1 23k F 42 1 jlfe43 jolCE ~ uj 2 Clf ~ u2 Seh1a.e4C Is ~ 44a.e42 uo10Ctul j.UIEe43 C.USC ~ vC 5 ~ 1li~ 03 > ~ Ltceuj Vo~gft44 1 ~1lcsul a ~ 4Cc.eu4 uoCSC ~ VC 1 ~ 4)c UC Louuk-UL e elk ~05 0 ~ 3oeOCeOj L.V1keue 3 4Leui l ~ UOk t03 Soi1E ~ 43 L.vtktOe eouslftut ~ o U ~ 4 ~L.suft ~ 0 C.u5koOt ~.Lul.-ul 4 vtkeul U ~ 4 ~ 9 jut.eUC 5 ~ vOL,-QL 0 ~ Otc-ul C ~ UuceUC 1.54keuc
l. Lefeuj LojALeut 3 ~ uucevC I vufeut Levies ut 9.ceteuj 1 o luc ~ 4 3 6 '4>.evj 1.jufeuz c
L1a ~ U4 u vuc ~ 44 A.vSLeot 3 ~ ~4LeslC 5 'GE vj 1.40E -ul 0 ~ 5 ~ 92E. ~ 40 I ~ U ~ 0 ~ 0 ~I ~I~ 0 ~ ~ o 0 ~I~ ~ o 4 ~ ~ o 0 ~ 4 ~ ~ o 0 ~ e o11E-02 5 o3 3k Ol C u1ke02 j.11'2 9.91ceut 1 jeEtu1 4.u1keuj 1.99c, tu5 C.1uc eu1 V ~ Qo U ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 2 30k-UL 0 ~ to L9ct ~I lo LI1Ct U3 U ~ ~ o ~ o 0 ~ 9o OLCtUS ~ e ~ o ~ o U ~ 2 ~ 3lsc tuu 3 ~ Utf 02 0 ~ 1tc-ul l ~ 11E till lo j3ct03 le Olc, ~ ~I lo 03ct03 0 ~ S ~ 19i t4U 2.IIEET 03 S. 2\\i ~ u 3 9 uOEeuj
9. Otktuc C Sli ~ 43
~. 91E ~ Ot 1 ~ ult.tait 29ftdj 4e 11ctUC 1.11c, ~Ij 51E ~ Uu LI ~ 4 jvct44 ho COk OL 1 ~ 34k ~ OC 1 ~ CIt -Ll3 1 ~ uut. U 1 4 ~ 1 ~ jtt,e01 I~ L.Cjkeu4 1 ~ 401. t ub 4 ~I~ 0 ~ 4 ~ 4 ~ lou1ktula 4 ~ 4 ~I~ 0 ~t.jtc-ut 0 ~ 4 ~ 4 ~ C ~ 46t.t ul t ~ 2Ccevj 4 ~ 4 ~ 4 ~ ~ o 4 ~ 4 ~ 4o LoLCctuj 4.01L t v 1 4 ~ lta. t lac votCctuu U ~ 4 ~ 4 ~ u ~ 4 ~ 1 ~ UOC 4l L ~ LUE ~ ilb to19feUj Lou1Ctv1 1 ~ 1 ok e4$ 1 cOk ~ 01 C ~ 53k t41 ee32ktue 9e21C ~ OS 1 juftuC L.UOEt43 5oSSEt41 levtktUS 1olCc.tuj ~.U)ktu3 4 ~jjce43 1.11t.t4C 3.11E. t UI 3'5Et0$ jeOOEtOS 1 51EtUC 1 9jEe02 CD UCt,tOj D.elf tu3 L.U9E e41 4ou lctil4 L.tjkF 41 L ~ ALE~Ut 1 ~ 00t,t4C l 41t,eIC 1 Atkt4t 4 ~Llctut e o43C tu1 1oc4E ~ 4S te41kev1 Aoeec cue L.9vf ~ 44 joVLE~ UC 4 ~ 0 ~ 4 ~ LI ~ 4 ~ 4 ~ 4 ~ ~ eI ~ 4 ~ 4 ~ U ~I ~ Ll ~ Sl ~ 4 ~ 4 ~ 0 ~ 4 ~ Ll ~ 4 ~ 4 ~ ~ ~ ~ ~ 4 ~ LI ~ U ~ sl ~ II ~ tl ~ U ~ 0 ~ 4 ~ 4 ~ 4 ~ II ~ 4 ~ v ~ uua.-41 1 ~ 44c t45 Mo 9lc t alu uoateC tug co uuc. ~ Ut 1 ~ 11a.t ui I~ C1ctuj
l. CUc t vv 4ou1ct45 JovuctUC 1'1feut 9.ucc. F 01 Uo ulk ~ 44
l. 32E t44
9. jjc-uj voutc-UL l ~ CUC tul Lou9ctuC 9.54ctOt 5 ~ 5 jc tQC Louek eUL IobCCeuu
'cohue catt 1 aca. ~ 42 1 ~ Ovc tut lo vvc ~ ut 4 '4C.t4C 1 ~ laa.tQ2 1 ~ Suc tvl 1 ~ 4s.c t Ll3 uo jUI. eua, Caves. ~ U3 j~ C JLtzc t ~ 1eLova l ~ ttuc ~ a4 a ~ etc ul 1 ~ juc s41 1 ~ Dac Itj 4 PA jJJHA Y - ULCC JJAKCC LANAI htlUKLLA= uEPlilI~ lIuc ~KUul UCJL I.JJ AU~J lUr. 0 R C 4 QJJSt i.zotel li----S P---~C CX--51 HIl--i4 FE--s~ FE-->9 CO--5$ Cll 64 SH--bS RQ--Sb Sx--$ 9 N--Su V-91 Zx--JS Lk--9) Hd"-9i clO--99 - RU-LOS RU-Lu6 AGLLUN SIS-124 Sll-12' EL25JJ IEL kin lELR9N liLSLN ft-132 1LSL 1--LSS I ~-134 CS-LS6 CS-LSl uA-144 LA-!v U I C-J4L ~L-Lvh Cc.-14>> Hl'-Cky JJONc 4 ~ U ~ 4 ~ S tlf-ll1 1 ~ C let llR ll ~ ? ei3ctuL SebOttUL l.Vlft03 6 ~ d4Etili d o29i-01 1 99E-u3 4 '3E-01 9 ~ Jof-ll2 4oo2Etui 5 ~ 03E-01 1.26ct41 5 ~ 43E-Il 1 1.01E tui S.$ 6E tGL 3o29r.tuC 5 ~ 5Li till 2 LLit42 1 e 43E-41 $ ~ U9C-iJZ S 54Etll0 9'lGE-ui It ~ 2$ct40 lo59ftuQ 2 2SE-DL u 43ftUC L.Slttul 9.4$ tt42 1 ~ 54ctul )lttuO L.C6ttuu c.LSc-bl 44ctul L.ulc-ul ciUci4 0 ~ 4 ~ 4 ~ SOt-ul 1.2lftOC U ~ C ~ idctu1 3.50ttul 1 ~ 9lctUS 6 d4ct01 JJ ~ 29t-41 1 ~ 9%-03 4 ~ 93t-ll1 9 ~ 96E"02 4 bdftlli 5 03E-01 iocottill 5e43t-Ill 1 ~ UILEtOL 3 JJ6E tdi 3.c9E t02 5.51E tDL R. Litt02 1 43t-ul JJ ~ u9E-U2 3 ~ >4f tQU -9 ~ $ 0t-UL 4 ~ CSE tOU 1 ~ 59r tllIl Cdf-01 o ~ 4St t&2 . 1 ~ SlCtGL sdct02 1 ~ i4ct01 1 Ilttuu 1 cof tUU C. LSC-DL
l. uac'. t0L L ~ u)t UL (JlfKOLO U ~
lJ ~ 4 ~ Suc UL 1oClE t4C ll ~ ZeoStt01 S.50ct01 9lft US 6 d4E tul $ ~29E-Ul 1 '9E-OS 4.SSt-DL 9o9bE-U2 4.o2E t01 5.0St-ol 1.26f tOL 5 ~43E-01 1 ~ OLEtuL 3.$ 66,tOL 3.29ftuZ 5 ~ 51E t01 Collftu2 $ ~ 434-OL $ ~ 09t-UZ S.54E t00 9'0E-Ui 4 'SEtGO 1.5attll0 2.2dt-OL 6'3ct02 1 SlctUL 9 ~ WuttU2 1 54ct41 L.llctu0 L.coE,tu0 C ~ lSC,-ul leu lttUL L.5)k.'-U L KLtloc 0' ~ U ~ 4 >Oc-ul 1 ~ Clct42 0 ~ Co iSctUL S ~ 50c tul 1 ~ Jlitu3 oo $4itbi $ C9c-Ul 1 ~ 99c-uh 4 ~ 9Sc Ul 9e9ai-UZ Wo OZCt 4L 5 ~ udt-Oi 1 ~ Coitul 5o43c-ul le lliftUL 3 ~ Sbctul 3o ZC9ct UC
5. 5ic t Ul 2o llctUZ le4Sc-41 Seudc-02 3 ~ 54itu4 9 Sllc-uL 4o 20ctlJU Lo 59ctuu C ~ 2SE 01 6o 4SCtuC 3lct 1
9 4uit UC
l. 04t tul 1 ~ lj7ctUV 1 26r t40 2 ~ LSE-4L
- Le 44ctVL
l. >) r.-ul a.Uwle U ~
4 ~ 4 ~ Slit ul AC)Ctu2 U ~ 2 ~ 536 tul S ~ ouE.tul LE Vlctu3 be d4Etul ¹ 29t-ui 1 ~ 99E" OS 4 ~ Jhf Ul le Mof-42 4oo2ttul o ~ USE Ul g ~ 2of tuL 5 ~ 4SC GL 1 ~ Ulc.tUl Sedof tul ST 29Etu2 5'Lttui 2o Llftu2 1 ~ WSc 41 do AE 42 S ~ 54t tuO 9 ~ Suk-GL 4'$ ctu0 lo59ituu C ~ Cdf lJL oo4Stt42 L.S)Etul S ~ 44Ctu2 1 u>>t toL L ~ )lct4u L ~ 266 tu4 2 ~ l~c-ol 44t tul 1 ~i)t-ul 41 "l.l 1 IJ ~ 4' s ~ 3Uc-ul i.Zlct42 4 ~ 2 63ctui Sebuctul LE QlctUS o $4E tG 1 do29E-uL 1 o 99C-uS 4.93c-01 9 ~ 9bc, 4C 4ou2t tul Seu3E-OL 1 ~ 2bt tUl b ~ 4Sr. U1 loulCtul S oSoc t01 3oc9E t02 >.51t tul C. Llitu 2 LewSC-ul o.u9E-OC se54ttUU '9 o d lJC 4 L voZJJE tu4 1 ~ 59c tuu c ~ cUE u1 oe43i tu2 L ~ 47C tll1 oo4$ ctU2 1 i4Etul 1ollr.tuu 1 ~ C6c tuu C.L3c-ul l ~ 04t tUL l ~ olc"uL 4 ~ U ~ b ~ U9c uL 1 ~ 49c't UC 0 ~ 2 ~ 9UE tul 4 ~ Luctul Re~CI tuS l ~¹lct 4 1 J o4)c-uL C 3LE-OS 5 ~ SSr. 'oi L ~ 12t-Ol 'i ~34it Ul 0 ~ Sdc II 1 1 ~4dctuL b ~ Zlr 41 1 oloEtul uooSctul S ~ S4ctuC o ~ 3bct Ul 2 eSQttu2 1 ~ 9QC 44 o o 9) c-42 w ~ luct UQ s ~ ZUCtUi 5 ouSEt44 1 ~ 9Sr. t44 2 ~l)c-ul ) ~ iUi~ OC l ~Suctui 1 ~ 1ict 43 1 o lSC tuL 2 ~ uuc. tuu L ~ WCc tuD c ~ 4cc UL 1 ~ Cuotul 1 ~ $2i-UL (ugAL. JJ00$ 4 ~ ue 4 ~ cut-OL
l. c)E tuc U ~
2 ~ Sec taL 3 ~ buct4j 1 ~ 9)t tu3
o. $4E tOL
$ ~ 29E-4 1 1 ~ 99c-llS
w. 9>c-UL we &of-UC 4 ~ ocE tilL
o. 08c-QL 1 ~ 2oitul i~ 4~E-uL Le ulE tlJL
3. So= tUL oo 29c tIl2 oobactui Ce jLCt42 le +~E-OL JJ ~ 09C-ug o ~ i4c t Ilu
9. $4t-ui 4 ~ 2SE tuJ L ~ 5&ctUg C ~ Cac IJL u ~ 43'42 le Slr.tlip J ~ 4Oc tll2 L. ioc tOL 1 (le<DO L~ coc tuIJ chloe-QL 1 ~ V>>C tOL 1 ~ o) C-4$
UUSL f AI I JsCS fII<< LLIIULU IILSGNAKGch uAbcU II% l 4}elk KFC=ASL Uf EAVN LS4}UVL LIS QLSGHAk4L FLUK Uf L 4VN UllN IIQ AU<i}ILU.IAL UlI.U}lIIII
PALNlAY,
>>ALL KA}ck fliN A4L GKUUP o uNLLU I>>UCI.lUE I} K (s A K UOSE l Nk t N } ~I 4K-bl ISN--54 FL--uo t c--i9 a 0--So a U--44 oK--4i <<u-44 oII-U9 ek--94 Ca--95 ck--92 ~Id Ui Nal <<U-LV4 KU-llo A4lluN >u-Ltv ou L ~ 3 ILLCtN lcatlN lclC9N ICL3LN lf-L38 I--l4l L--L4~ uS-l4v I'>-L44 ~ I 4-LSl UA-lvu Le-Lvu <<l.-lvl Gc-LvJ <<c lvv <<r-Cot UOKE 4 ~ LE 4sctul 4 ~ 4 ~ 4>>VbctuV 'ittuv 4 ~ 4 ~ 4 ~ 4hctuV 0 ~ 9>>'Isvtt 44 le L9ct05 O ~Ultt IIL L.llE~ Ut C>>4IILtul le 49ctU4 i >>94ftul L ~ Cbt ~ 4t l>>43ctu4 4.4bctut 4.LUEtvt 4 ~4Lctut C %let>>2 Leolctu4 he92ctul 2 ~ 12C ~ 42 5 ~ LlctuC 4 ~ 49ctUL 4 ~ill~ u4 4 >>LC ~ Ut - V>>43ctuV C ~llft>>3 Qeluc Vl l>>c4C ~ 4U 4>>oRL<<02 1 vUCtuL 4>>LML-Vt LLULK o ~ 4VL ul L cot tlo 0 ~ Uel4c.t44 2 90t t>>5 le U6ttui o >5cthc l l9tt44 l 4lc.t45 a ~ Uitt0t 0 ~ 0 ~ U ~4.4gtt4L 4 ~ VIE. ll v9c.tlt Le Llf~ UC 4 ~ u ~l e 496 ~ U4 l ~ Cltt44
4. 4Ã.t 44 44ttvC leill.tll v ~ ovftut 5
CSc ~ll levtt tuC 4 ~ 4lft DC LE Lbtt42 beo4ttDt 4 '>>a. ~ 44 v ~ LQ.tlv C v4c ~ U4 Co utt-4l 4>> o IIC. 4 l c ~ 46L ~ 4l C ~ oCLtvl 4 ~ luI.-44 lNUKOLO o 4vt-ul ~ e 2 L5E tUU I}~ ~ o 4 ~ 4>> 4 ~ 4 ~ 0 ~ 0 ~le ~ e 4 ~ 4 ~ 0 ~ le U ~ 0 ~ 9 ~4lt Ul S.Stt-4L l ~llt~ 02 4 UCE ~ Ul 5'lt alt l >>llft04 t.cStt44 l ~ (4E t45 C ~l42 t04 4 ~ 0 ~ 4 ~ U ~ U ~ 4 ~ U ~ U>> ile ILLUKET Ve lit-Ul 0 ~1.9at-UL 2.Sic 44 U ~ I}~ 0 ~ ~ el Ltftu4 ~ e l}e Ue 4 ~ Le lIIt~ Ul l.44E-ill 4>>54ctlt C ~ 44c.tUZ le C4E ~ 40 5>>5tf tUL 4.4tf t44 0 ~ 9>> VSL ll 4>> l4ftUC 9>>40f.tUC l>>63ctl4 lel9ct42 4.4lftlt 4.2i=t>>C 4>> 04E t>>l 6>>oift03 L~ alt t44 4 ~ lie tl4 telic-Ul ~ e 9.9>>L-UZ L>>At-02 v ~ l'9ctUU 9>> v9i 44 LUN4 O ~ 44t ul 4 ~ v>>l>>ct4U 4 ~ 4>> luftuS t>>94tt>>v 4 ~ 4 ~ 4 ~le 4 ~ 0 ~ 4 ~ 0 ~ U ~ 0 ~ U>>VLL-u4 4 ~ 0 ~ U ~ 2>> 94ttuc 4 C4tt>>% 0 ~ 4 ~ 4 ~ II~ 4 ~ 4 ~ 4 ~ '5 ~ Ucct>>4 2 ~ 5>>ctvc 4 ~ Ulft>>4 L.vcl. ~ 4U 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4l-LI.L o>>4%E ->>L Cevlctlu 9.>>SL ~ 42 C o4ct04 L L4ft4S 4.VUct>>S 4 ~llctl4 9>>9tft04 ~ llc,t44 lelict42 4>>52ct42 mulct>>4 4>>44E t44 v>>59E t 04 C.95ft44 L vlftu4 CtUULt42 l ~Utt t4C L.92tt44 AU>>itUS le 49tt44 2 l4Et>>4 4 llttlt le+4ct44 C e&4E ~ 04 LE 4IICt44 c.clttl4 veiSL ~ Ul velUEtul ce ~4Etut 4.44ct42 c ~ >>5ctUC 4 ~ U>>ct44 b>>14ct44 >>eulctuc L ~ 49L t>>4 u>>VCc.t>>4 o>>CUE D>>2 u ~ 4 ~ 4 ~ U ~ U ~ U ~ 4 ~ 4 ~ >> ~ u ~ 0 ~ U ~ u ~ 0 ~ 4 ~ U ~ 4 ~ 4 ~ ~ e U ~ 4 ~ 0 ~ 0 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ il ~ 0 ~ ~I ~ 4 ~ u ~ 4 ~ 0 ~ u ~ 4 ~ SULK. lulac UDUr 4.4VC-UL ( ~ loctui 3 4uc ~ 44 L o4ct>>4 le 4CC. t44 v.ucf ~ us l ~ uac t>>4 > ~ 3gctu 4 4 ~ ucc tuII 2 ~llc t uC c>> l>>c ~ 4c 4 Ucttui L ~ 4%i tut c ~ l4c. t ul CovvE-ul 4 ~ COL IUC 2 ~ 2IILt>>a C.awc t44 L ~ ovctll L~ uuc t 44 L ~ sCL ~ 4 C oe Ccf tul 5 ~ >>'.lt tul 4 ~ Lct tul to usc t42 v>> >>4C t4L L ~ 5>>c t42 v ~ ulq tuc v>>5ot tul L ~ Llctuv C ~ II~a.t44 o>>C>>c ~ V4 L ~ olc toe 0>> VCc -Ilt 9>>5tc va v ~ asc-us 4 ~ Qvc tu4 l>> osc-4t 0 aWvc I svl JKe I aUa LlUVL4 alle4ll<<K4L+ u~<<L4 Via GlcsK kLL <<SL uF cc4al L~allul'C. Lll UL~LII<<K4c I LU4 Uf L ural acclal aaaI huui llJIILL uli.ULLUII raLN<<wr - <<LLl uclL4 Oil<<LL FL<<II <<ec IacuuP - 4IILLU DU>>LLUc. IIr---st a IC -al hie <<Ia FL--)t Lal <<4 LU ou CK--a<< Ku--Db ~k--04 uu c>>--9L lu ck--91 Iiu--45 ILIL--98 AU-LOS KU-LO<< <<CLluN Su Ltie Oil-ltb lclC5N ILL21N L c L2'III Ic.l SlN li-LSC l--lSL L--LSS CO-L4v 4>-L4<< ul-lSI ua-Llau L1-L vu I:a.-lVL a.L-Lv 3 ~L lac% au>>-C4 t IIUI4L 4 ~v>>llcti,a l ~ Q<<c. ~ U5 1.SQEtul 4 ~ 4 ~2>>Dict U<< 4 ~ 4>>SSctuta g.ul Etu5 vowed ut 7>>uOE ~ u0 50c loa3itUO 1 II9t-03 5 ~ DuctU2 LE OCEtull v.<<OE ~ Qt L9L~ Ol L.COLtva 4>>b3C ~ ut ueU1t.t42 VALI Etu3 l,clEt ut 1 ~llc. t ut fi ~ Suctuc L ~ L&tt42 142 ~ uS a atEtuc ueaua tv3 u.a9E ~ uS << ~ 1lc.t QU l ~ 49c. t u l lSE.- aaa l ~ 49i ~ U3 a ~ cuc. ec Lluak Loulc. DL c ~ UDE.t05 4 ~l.ubi.tuS Ii ~ lbc tub a.14'US l ~ 5 1c ~ 0 3 v oatceuS D ~ 5ac.tQS Co USE e42 uo Q ~l ebSLtU4
9. LIC.-OS a o <<1L-4l c.ulE ~ul 4 ~
U ~ CI ~ Liat ~42 t.cali.-ua 1 ~ DLE-0l C ~ 4lt,tOC c uuLt42 l ~ Lat.t43 4.>Lout ST 34LtQC a 55Et02 l o iaSt. t 0 2 4 ~ 4<<L tUS .5.clt. tut uolaaE ~ OS a ~ 4DLt04 L ~ 99L tv4 9 ~ aaaac tv 4 3 ~ Idc. tv t c ~ I CL-uS U K 4 liltKULIL l blE-UL U ~ 2>>b5L ~ 44 0 ~ u ~ U ~ 0 ~ 0 ~ U ~ 0 ~ ~ o ~ o 0 ~ ~ o Il ~ 0 ~ 4 ~ 0 ~ 4 ~ U ~te ~IL-ut 5 ~ UOE-Ul 2 ~ IOEtut a9ttut L.SILE 43 l.vSL. ~ SU 3>>uuc,t43 2.LSEeOS SevliEeull 4 ~ 4 ~ 0 ~ 0 ~ 4 ~ 0 ~ 0 ~ ai ~ 4 ~ UU OL tt LOMEI lo ulc.-ul 4 ~ 'J ~ 1 4c. 0l u o bile.t uC II~ 0 ~ 0 ~ U ~ II~ 39ce45 U ~ 0 ~ Uo U ~ le USctOU a.31E-Ut 2'1E-Ol b>>SIICeua b ~ 9ec cut boovE ~ OS Uo LOEe42 ~ o 2>>SLcevu 9>>Cuitut 2.35ceuS II~ QSE ~ 44 C>>39i ~ OC ae L2EeuS Il>>UOceut 0>>4UC. ~ Ol loutctUS C>>9lc.euC 1>>9tc F 42 1 ~ USc-UL ~ e le vu ~ UU 4>> Slc Ul Luc ~ ul So 2!E-44 L II R c II L Lual4 L>>DLC. 4L U ~ 5 ~ 44Lt44 aI ~ <<o<<Cct45 VS 4lc.iaaf 4 ~ 4 ~ 4 ~ U ~ ~ 4 ~ u ~ 0 ~ 4 ~ 4 ~ Uo l>>UVC ut 4 ~ 4 ~ 4 ~ IJ ~ tLLtuu 4 ~ 'Actut Uo 4 ~ 4 ~ U ~ 4 ~ 4 ~ al ~ 4 ~ 'J4ctuc S. Slceua I o<<DEeut 3 ~ <<4'u 4 ~ 4 ~ 4 ~ 4 ~ U ~ 4L-LLl ceblE-4l <<.Suct0<< l ~ act. ~ OS v.11ctuS le 4DLtv5 << ~ 12l. ~ 05 9 'lEtU4 C ~ iavttuli aa ~lSc ~ ub' ~ Ucctvl ~ ebuctvc c >>13c tuv b>>5act4% l ~ 1lE,euS c ~14Ee03 L.tLEtvS 1 SLEeva Leb4ce4I le SOLtu5 l>>1UE tv5 S.cbce02 4>>bIIEeua 4>>c9ctuk 3.21c tOS %>>89L ~ QS, II~ USE ~ 03 <<obSce43 <<ebLCeua S ~ 19E.e4) v>>45ceul b 4aceua k>>9Scetl c>>1vceub 5 bSceuli LE LOctuv leblaE ~ 4% 4>><<4Etvv c ~53ctvt SILL N il ~ U ~ al ~ Q ~ 4 ~ 4 ~ al ~ 4 ~ U ~ 4 ~ 4 ~ 0 ~ 0 ~ 4 ~ ~ o 4 ~ ~ o U ~ 4 ~ 4 ~ 0 ~ II~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~ al ~ 4 ~ 0 ~ 4 ~ al ~ 4 ~ aI ~ 4 ~ aI ~ U ~ 4 ~ LUL<<L 4UUl l ~ ale. -4c L ~ DCa. taa<< v ~ v4L t44 C ~ <<4L t iaa. L>> Cuc. t05 0 ~ Duc tUc V ~ ICctua L ~ 4CC tuV c ~ UILtut l ~ 34L tut a I bc. ~ 4t I'<<c ~ 41 l ~ Scctua L ~ 'Act 4v v ~ l4c, 43 5 ~ Lcc-UL 'U ~ 1VC ~ 44 , ce Svc tut l ~ cac tQJ 2 ~ vhc t4C II ~ aui t vu C ~ Cect<<4 l~ cuc. tQC 1>>bect4C D ~ 'aliL ~ vt u>>15L tul 3 ~ ucctuC V ~ 'ALt vc << ~ alc. ~ QL l ~ Ilct43 3 ~ I<<Lt asC 9>> acL tuc 3 ~ 'Jtc taaC D>>Ict-ua L ~ Iaac taau 5 I<<L <<o 44c ~ vL I ~ ulc 4c 0 45/25/l'I =IIVlSONHENlAL PAfHHAT AOSE COHVEFSlON FAGfORS PA fHEAT - COAtS HlLK ICONfIili'Iff0 FORAGE l. FOR GASEOUS OfSCHA&GES AGE GROUP >> fffNAGER I JCLlD= 'IOiif LlVER 7IITROfO KlOHET ORGAN U 0 S E F A C f 0 R S lSO HEfER-HREH/TR PcR UCl/SfCl e>>>>e>>>>e>>>>>>>>>>>>>>>> LUNG Gl LLl SKlN fOfAL ROOT Hr.---l4 P>>>>!2 CR--ct ieie>>54 F e>>59 CO -Sl CO 50 CQ 64 Iil--63 lN -65 RQ>>>>A6 5'?-- 5l S+>>>>90 'T>>>>>>91 Ze>>>>95 t"i 95 FU 143 SU 146 >>G 1 1GH CO 1 1 SH 4 ~ le 251 igS tehSE F 14 I~ 4 ~4.99fi45 4 ~ ie 1.44c ~ 49 2.13f o 44 4 ~
5. Alfi49 l.l4cit1 te45fi43 5e l4f 1 4 3 1
CATE>44 2 ~ 45E ~42 4'9f ~ 43 9 ~ 44E106 D ~ te03E>03 1 ~ 25E ~ 05 le666409 le le 30f ~ 06 t.t9fi06 te90fc05 'iel2E ~ 45 3 ~ 2IE>46 le23Eill 6el6Eiii 4'tf<44 I~ D ~ D ~!,4 tfo 43 I~ 96E F 43 4 ~ 4 ~ 36tt46 E ~ 5 2 ~ 0 5E 443 1.25E F 05 ~ et.hSEi03 ~ eI ~ ~ e ~ ~ ~ ~ ~ e ~ eI ~Ie 0 ~ 0 ~ ~ e ~ ~ 0 ~I ~ 0 ~I ~ te56fi43 9.39E O04 I~ 9,fitlit 3ellftl5 ~ e Oe ~ e Ie le 4'tfco ~ ~ e ~ eI ~ ~ et.fof<03 f.ISfc03 6.05folt 6.ttfo03 te64E ill te53E~DS 2 03fg03 let5E ~ 05 le5elIE ~ 43 ~ e 3e29ct05 Ie le ~ e ~ ele le ~ e CAN Sfi05 ~ ~ ~ e 0 ~ ~ e ~ eI~ ge 2 ~ 03E'<ll 25f ~ DS 2 e9IE >09 1 ~ 1tE >46 3'9E ~l6 3 91E >06 Sellf >06 le 3lf50l ~ 3 ~ 93E ~ Ol te5tf>lf C ~ 2CE~DI le 93E Oil 6 ~3lf~00 3'IE ~ l9 lettfcIS le3IEilf 3 ~ CCE all le 54E >04 teIIE505 3'tf<09 ~ettf ~06 I ~ ~ ele ~ e. ~ e Ie ~ eI ~ ~ ~ ~ e IeIeI ~I ~I ~ ~ ~ ~ e ~ e 0 ~ ~ ~ ~ e 2'3c~43 1.25ci05 1 ~ GSE ~ 49 4 ~ Ctf <03 2.49fi45 4 '5E~DS 3e!If~ 45 te 22E > 06
l. C.ifi46
) ~ 49E ~4l
3. 46Ei4I teIIE~DI 1 ~ 69E~ 00 4 ~3lftti 4 ~ 94flit 1 ~ 93f ~ ~ 3
5. 45E i ~ 3 9
04E ~ll Se lif~ 42 4 9ff~46 6 llf>03 I V L"E OF 1 ~ FOI? </O OEPLEfcO X/0 AIIQ RfLAflVE OEPOSfflOI, UNlf5 FG>> C l'i ANO H " 3 ARl lHpcq/Tq Pfg UCg/CU HfffRI 4 1/2 5/19 HV1ROHI>>fHfAL FA1HHAV-OOSE COHVEFSlOH FACCOPS PA1HHAV - GOA1S HlLK 1COH1AH1Hilfo FORAGE1 F0$ i GASfOUS 01SCHAIICES AGE GROUP - TEEHAGER HUCI. 105 ORGAH OOSE F A C 1 0 R S (SO>>Hf ffP. HREH/VR PER UC1/SECl SH-123 SH 126 S9-ttv SO 125 1E 125H lf12tH lE 1tlH 1 134 1-111 1 tM 113 1--114 1 ISS CS 134 CS 136 CS -1%i BA 140 Cf -141 Cf -144 Pce 143 HO-1st QClif 0 ~ 2 ~ 546 <0 ~ 4.04f ~ ~ 6 4>> t 49 ~ 06 3 ~ &tf~0& 2 ~ 23Eo 06 1.355 ~ 07 6>>hlf >05 6>>15f>>04
2. 59f-01 S.29'6
~ o Z ~ 1)1<04 2 43E>>14 1 Itfol9 1 ~ Ivf~ 1 ~ 5 ~ Slf ~ 46 6.0&f~ 03 4'tE ~ 05 2 ~ 4&EIIt 1>> 296 ~ 41 L1VER 0 ~ 5 ~ 45EA46 7 ~ 54E 404 tetSfils t>>29' 6 Z.SZE ~ 06 Seltf ~ 06 1 ~ 9&E ~ I6 ~e&lfi4~ 6 92E 41 1.49Eill ~ e 5 ~ 73f ~ 44 6>> S3EA 1 ~ 3>>99ft09 S.t&fit~ l.t4E~03 4.0tf ~ 43 Ze ~ Zf~ 05 9>>90fi00 t.l3ftlt 1HY%010 ~ e t>>44E>06 9>>66E ~ 03 6.06E~ F 4
t. ~Zf F06 1 ~ 9tE ~I6 4 ~ 34E406 2 ~ 49Eill 2 ~50fttt 9>> 1tEill 2eltfil9 1 ~ 55E 09 2 ~49ft06
~ ele ~ o ~ e ~ e ~ ~I ~ 0 ~ K1OHE Y 0 ~ ~ eI~S.trf F05 1 ~ ~ 3E ~it 2>>92E ill 3.9ZE ~lt 3.04E il& 1 ~ 13E >09 1 ~tlftl~ t>>IIEill ~ e 9>>tIE~04 ~ 1.69E ~tl Zettf ~ 09 1 ~ 33E>10 1ellfil3 1 ~4tf> ~ 3 ~ >>Z4E ~ 04 S.rlfila lelsfill LUHG 0 ~ l>>23E> ~ 5 3 ~ llE~ 06 4>>ttf>ll ~ ~ le ~ ~I~ le ~ ~ le ~ e 2 ~ 94Eell ~ettf ~09
3. ~5fill 6>> ~ SE All Ie ~ TIE403 le
~ eI~I~ Gl LL1 ~ o te&9f>00 1 ~ 13E ~I~ 3 ~ S4E ill 1 ~Itf~lt 3>>63E4IT 4>>ttftll 1 ~6lf~l6 t>>64f 400 1 ~3lf Il 1 ~Ilf>ll 0 ~ 6>>4tf~l4
t. ~Ifil~
4 ~54fill 6.00E>00 1 e llE406 t e tlf<<lt 1 ~tlfill tellfiIS ~etlf 404 0 ~ ~ e ~ eI ~I ~I ~loleloI ~ ~ e ~ eI ~ ~ e ~ e ~ e ~ ~ ~ ~ ~ eI ~le SK1N 101AL AOOY 4 ~ &4ff06 t>>50E il6 0.19E ~ 05 4>> tlf+IS 0 9vf~05 2>>13E406 t>> 69E t II5 Settle 0 ' '6E- ~ 1 4 ~ 59E>06 I~ llfi04
3. 19E~ ll 2 ~Ilf4 09 1 ~ 4tf 010 3.r3E~05 4.6&f>>02 2 ~ &tf<04 lettfF00 1 ~ 14E ~ 00
'll&cO OH 1 UC1/SEC RELEASE Rill OF EACH 1SC10PE 1H AHP i VALUE OF l. FOR M/O. OEPLETEO X/4 AHO PELAtlvf OEPOStl'10> IIOff lNI UlltlS FOR C"-"14 AHO H 3 A+f 1HIEH/WR PER UC1/CU>>HE1EP1 41/25/7.9 ctIV1<UtttIiHl AL FA7HIIAT OOSE COtlVE~SlOH fACTORS PA7HIIAT 6707 EO FRUllS AttO VEGElAIILES fOR GASEOUS OlSCHARGES AGE GROUP - GHlLO ttUCL19'OHE OR G LlVER A H 0 0 S E f A G I 0 RS lSO ~ HE7ER MliEH/TR cue eeeee e \\ e e a+e e e THTROlO KlONET LUNG Gl"LLl PER UGl/SEG1 SKlN 70 7AL SOOT Italy 3 G---14 P -3Z GQee51 Ht 54 fi 59 CO 57 GQ 54 GO -64 Nl -6l 7tt --65 38 d6 5%--%9 Sw--94 T 91 7k )5 H8--95 cu-101 PU-ebb AG 1 1dtt rollSII Oe 6 146135 3 ~ 67E~II 4. 0 ~ 9'6ft97 0 ~ 4o 4 ~ do 956 ~ 99 2 '7' ~ 4 ~ 3 ~ Zbfill 1 lb' 12 1 ~ Alf~ 07 3 ~ 74f o06 2 9$ E ~ 45 1 ~ 2'll ~ 47 7.05foOA A ~ 92f ~ 46 4 ~ 3'3E~03 6 ~ 14E t45 Zel ~ EC07 0 ~ 2'4ftbb Ze15c ill 9o45ft06 5'3E F 07 3'6fibb 6oZltt4 ~ I 46ftb ~
9. 0lf~ 07 4 ~
0 ~ 4 ~ '1 ~ 93f t 45 1 ~ ZSE t 05 4 ~ 4 ~I 25fi46 3 ~ 64E t07 3 73E t03 6 ~ 14Etl5 ~ e 1 e63E ~ Ov leI ~I ~loI ~ ~ ~ ~ ~I ~I ~I ~ ~ o 4 ~ ~ ole ~ ~ ~ ~ 0 ~ 2 ~ 46E t03 1eSSEAIS le 6e03E>43 7el6E ~ 07 I~ ~ e ~ e ~ ele 5 ~66f F44 ~ e lele ~ e 5 'ZE<05 5 ~ 15E F04 1 ~ Zbfil7
3. 15E tbb 1 62f ~ 07 Ze49f il7 3'3E F 03 6 ~ 14E tbS le 3 ~ 63E il4
~ o S ~ 976 t ~ 7 leI~ ~ e ~ e ~ e ~ e le lole ~ eI~ 4 ~ ~ e ~ e 0 ~ 3 ~ 73t' 43 6 ~ 34E t45
4. 13E ~ ~ 7 6 ~ 07E <l6 lel9E ~ I~
7 ~llftlb Z ~SIEAII 3 'ifts I le92ft09 1 ~ 29E ~ ~I S 33Etll 1 ~ 7lf ~ 47 l ~ ZZE i49 2'9f>ll Zo 140 ~ l9 1 ~ 21E tl9 Z ~ l6ftlb 3 ~ ZZE>lb l ~ llE ~ 1 ~ 3 '7E~09 1 ~ 53f F09 0 ~ ~ eI ~ ~ ele ~ ~ ~ ~ ~ e ~ e ~ eI ~I ~ ~ e ~ eI ~le ~ e ~ e 0 ~I ~I ~ 3o 73E ~ ~ 3 6e 14E ~ 45 1 ~ 42E< ~ 7 Zo 73EAI4 5 ~ 44E4 ~ 7 4e'1 bf + 47 1 ~ 64E>47 1 ~ 79E ebb 1 ~ 44t' 49 3 ~ OOE ebb 43ft44 4 ~ ZIE ~ 07 9e34E400 2 ~ 99E < 1 1 ao34f t05 0 55ft05 9e 17E ~ 04 4 '95E F 06
b. 77f ~ 47 4 ~ 91E 106 1 ~ 16E ~ l6 0
OH 1 UCl/S.C WELfASE "Alf OF tACH 1SO70PE lN ANO A VALUE OF 1 FOit X/O OEPLEIEO X/O AIIO RELATlVf OEPOSl7lOt.' Il at/Zs/r9 EtlVLWGt:HLNLlL FALHttlv 003E COltVERSLOH FACLORS PALHttlv SLOFEO FPULLS ANO VLGELAOLES FOR GASEOUS 01SCHAFGES lGE GROUP - CHLLO i UCLLOE 0 R G A N 0 0 S f F A C i 0 R S 150 ~ HELER (%EH/VR PEF UCL/SEC) %%\\% % %% \\%'\\ % '%%%%%%%% Stt-1 23 Sot 126 SS 124 Sn-tzs Lc lZSH c LZrH lft29tt 1--t lo 1-151 132 1--1 33 L--}34 -135 CS 134 CS 136 CS 13l OA too CE-t~t Cf-t~w PR-143 it0 ~l-l nnttf 0 ~sootft09 robbftor 2%CREE ~I ~ 09c F 00 2'6ftob r.}zcio~ 4 ~ L. Lrfior 0 ~ C ~ 4 ~5.14f-ol, 1.44'0 bzf ~ Ge 2.54ftto 1 ~ 06Etob 5 F 04'5 1 ~ 22f F 0 'lf o04 6o19E ~ 04 L }VENAL 4 ~ L ~ Lbf>00 }.49ft06 Zo 79E ~il ~ol~ ECOr L.OZfi04 }o9IEWOI I~ }%ROE ~Il.; ~ o ~o' ~ 4 ~ l4E 01 2.CREE LO 3%4bftbr Roil f ~li 9,r9fto4 2'2E<05
3. 01E ~ ol 6.06fi03 L.oef ~ o4 IHVROLO 0 ~
3%44ftor 1')E ~ 05 2 ollftor I ~eif ~Il ~ o34E tir 2 ~ 21ftii I ~ 3 ~ 90E <09 I ~I ~ ~ ojo ~ o 0 ~ ~ ~I ~ 0 ~ ~ ~ 0 ~ 4 ~ K10NE v I~ ~ o. ~ o 9 26E40r 2 ~ 96E tol }.LSEt09 eo9RE ~ ~I I ~ 1 o 336406 ~ o 0 ~I ~ 1%44E Ol 3 Iifo09 }.9CE ~ 01 2'SE F 09 1 ~ Ltf>04 3'4fw04 e.irf ~ 06 3%49EC03 1 ~ 33f ~ 04 LUNG 4 ~ 4 ~ l3E >ol 6 ~ llEt4r L ~szfit ~ ~ o ~ oI ~ ~ o ~ o ~ oI~ ~ ~ 5o40E-02 2 ~ 69f t ~ 9 R.eef F06 2 ~ 43E t ~ 'I 5 ~ SRE~04 0 ~ ~ o ~ o ~ o G1-LLL 0 ~ ro99Et09 2 R3E ~ 09 L ~ 3rf409 2 ~ 9IE ~ ~I 1ollf~09 ~ osrf ~0 ~ ~ o}.03ft06 ~ oI ~ ~ o 1 ~ llE 02 1 ~ 31E ~I~
3. 96f ~ 06 t ~ 26E ~ Ol 1 ~ 5RfiI~
3. }If~ 04 9 ~ 09f ~ 09 6.60E i~l 3 ~ 1'9f ~Il SKLN 0 ~
0 ~I ~ ~ ~ ~ ~ ~ o ~ o ~ oI ~I ~I ~io ~ ~ ~ ~ ~ oI ~ ~ ~I ~ ~ ~ ~ ~ ~ ~ 301AL aOOV 0 ~ L ~ 94cqo ~ 3o 1 1 f ~ Ol 4 oRLE<Or 4 ~ Lzf>01
3. lrf ~ Or 1 ~ LOEtI~
I ~ 9'5fo06 0 ~ 0 ~ ~ o Ro 1 1E 01 5 ~ t5Et09 Zostf tor
3. 09f ~ 09 6.ROE~06 3 ~ l5fig4 6%4 'D 46 r.49E ~ OZ 2%49ft03 "Asc3 0't 1 UCL/S 'C ABELE ASE ollf CF A
H E CF EACH LSOLOPE LN AHO l VALUE OF 1 ~ fOR X/Oo QfPLEL 0 X/0 ANO RELAVLVE 0 POS1310tl 4 41/RS/79 EHVlROHHEHYAL FAYHMAY OOSE COhVER$ 1ON FACYORS PAYHMAV FRESH FRU1YS AHO VEGEYARLES FOR GASEOUS 01SGHAPGES AGE GROUP CH1LO HUCL lnf SOME ORG LlVEM AN OOSE YHYROlO F A G Y 0 R S YSO HEYER HREH/YR PER UCl/SEG1 AW%% %&e%o'\\% A%e&& '$%%% X1ONEY LUNG Gl LLl SKYH lOYAL SOOV H-- C -14 P---3R GR -51 HH c4 Ff--59 CO-57 GO 5 ~ Ca-60 Hl 63 Rs--65 FO -46 4--09 cFaa94 ee91 RR ls 68 -95 FU 143 RU 106 Ar 110H CO115H 0 ~ 4e04f ~ 44 4 ORRED 44 -0 ~ 0 ~ ~ 1 ~ Cdc ~47 0 ~ 0 ~ 5e 5'0E ~ 44 R ~ ilfi47 0 ~ 4 '4E<09 7.79'0 R 1RE ~ 06 4'6fi45 heRDE ~ 04 R ~ RCEo06 so19fi07 6 '7E F 05 4 ~ Ro476>IR 4 ~ 04ft04 R.64E~IT ~ o 1 ~ 9 ~f>ll 3 ~ 51 f~ ~ 7 7'3E<IS 6.94EIIC Ro33fi07 4'9fi07 6.59EAil seR ~ E>07 0 ~ 4 ~ 4 ~ 9 ~ blf<04 R 64ft44 0 ~ 0 ~ he5hf i05 6eRDE446 RE 47E44R 4 ~ ~ 4E ~ 44 ~ ~ 4.64E ~ 43 4 ~ ~ o ~ o 0 ~I ~ ~ o ~ oloI ~ ~ o ~ ~ 4 ~ 0 ~ 0 ~ ~ ~ 0 ~ 4 ~ 1 ~ 63E<DR 1 ~ IRE ~ 44 ~ o lo73E>03 5 ~ 09E F06 ~ o ~ oI~I~I~ 4'1E<47 ~ o 0 ~lo lo 6'7E444 1 ~ 09E F 04 R ~ 3CE <06 Ro3RE>07 1 ARSES 06 4 ~ 9RE F06 RE 47E <OR ICE ~ 04 ~ o 1-04E>04 I~ 9olSE F 06 ~ ~I~ ~ o ~ o-I~ ~ oI ~ ~ olo ~ o lo ~ o ~ o ~ o R ~ ATE ~ ~ R 4 e ~Cff04 4 ~ lCfi~ 7 1 ~ 97E 406 6 ~IlfAil 1 ~ lhfill 1 ~ 91E F07 4 ~llf~ 07 I ~ R9fiii ~.53Eoi6 Co lsfill 1 ~ 04f 407 lellf>I~ 1 ~ SRE tl'1 R ~ IREiii tollftl0 4 ~Sifill 5 ~IlfAll ~ollftI~ R ~ S9E ~ I~ R ~ 61Eiii ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ oI ~ ~ o ~ o ~ o ~ o ~ o 4 ~ ~ o ~ oI ~I ~I ~ ~ eI ~I ~ RE 47E~4R" 4 ~ OCEANIC 63E ~Il 7 ~ 45f o ~ 3 5 Tlfi06 1 ~ 34f >47 1 ~ RSE ~ 06 RE 09E~IT 6 ~ 9IE> ~ 7 1 ~ 9af F47 Ro9lf i07 Ro46E F 07 1 ~ 39E>04 1 ~ 94E F 14 5'5'f< ~ 4 bo ~lf~04 1 ~ 94E~IC 9.05fiiS he Chf t06 3 ~ 7 ~ Et05 1 ~ 94E~45 ~'a =.9 OH 1 UCl/SEG RELEASE RAYE GF EACH 1SOYOPf lH ANO A VALUE'F 1 FOR X/Oo OEPLE'YEO X/4"AHO RfL'AY1Vf OFPOS171PN 01/?5/79 cllVtRCtlHENlAL'AjH4AY-DOSE GOtlVE RS10(t FAGjORS +AjHliAY FH-EH FRUIjS AND VEGElABLES FOP GASEOUS 01SCHAFGES AGE GROUP CH1LO NUCLtof 0 R G A tl 0 0 S E F A C 1 0 R 5 tSO Hfjf0 H>EH/YR PER UC1/SEGl 5't-1?3 Stt-126 50-12 SB 1?S lE t?SH l t?7H lf 129H 1-130 l--l11 lee)32 1 113 1--114 1-1]5 CS 134 CS 136 CS 137 BA-1vo Cj-141 Cf -t44 Pe. 141 tID 1 c7 ROHE 1 ~ 71 f.-45 1.47E ~ 04 1 4?fe07 1 22E ~ 07 4et?fi07 ?.44E F 07 1 ~ 5&E ~ 4 '.&if ~ O5 t ~ 244 o44 2.2&fiot-3 ~6ti ~ 16 ve tof-45 1 ~ &4j044 97cool 1 35ft47 te4tfoog te74E444 let7fi05 ?3E ~ 06 1 ~ 97f ~ov t.<?f ~ 44 L1VER ? 14E 47 7e64fi06 le93f >45 6 ~ggf ~ 05 t.t?fi07 9.9 ~f146 4.35f a 47 4 73E405 te?7fi44 6.05filt 4'6E ~ 46 le 14E 04 4 ~ 33Eo44 t.&0fi49 5.3?fi07 1 ~ 37f>09 1.5&fi05 5.44ii44 ?e49E406 7.49ti03 te39fi44 jHYR010 2 ~ ?6E 47 2.?SE~O& 2 ~ 47E 444 6 ~ 2?f405 16E 407 ~ o ~gf>46 4'9ft~ 7 6 ~ ~?f< ~ 7 4 ~ 13f ~li 7e97Ei03 1 ~ 04E F 09 le47E- ~ 2 5o&7E ~ 46 0 4 ~ ~ o ~ o 0 ~ ) ~ 4 ~ 0 ~ XtONEY 0 ~ ~ o lo 2 ~ 09E to& 3.94ft07 tottf<0~ 1-5tfir~ 7.35E F05 7'5ft07 9o&5E' ll 2'?f406 1 ~llf-l4 6.4gf i04 ?ot4E>0 ~ 2'6E 107 lo64E F 0 '.74E F 04 9'3ft~ 3 ST??E t05 4'4E443 F 4?f<03 LUHG 4 ~ 1 ~ 75f t 46 7 ~ 93f io& t.04filg lo ~ o ~ o ~ o ~ o lo ~ o ~ o 3 ~5lf ~ 3 1 ~ 7E o ~ 4 4 ~ 0&f106 1 60fi~ 0 0 ~ ~7fi04 ~ o ~ o ~ o ~ o G1 LL1 ~ e50feo& 3'4E F 0' '9E~40 9 ~ 0?f ~ 07 3'7E< ~ 7 1 ~ &Sf>0 ~ 1.lofts ~ 0 4.05fi05 1 ~ l9E ~07 1.14fill 1 ~lfi06 gol9E-0 ~ 4 '5E4 ~ 4 9 ~ 4 ~ Et 0& 6 ~ 05E ~ 06 le 34f >06 2ellE ~ 0 ~ 7 ~ 33f t ~ 7 7 Stfall ~ ~6lf~07 6 ~6tft ~ 7 0 ~ 0 ~ ~ o 0 ~ 0 ~ ~ ~ ~ o ~ ~ ~ ~ ~ o ~ ~ ~ olol ~ ~ ~lo 0 ~lo ~ ~ ~ o ~ o SXtH jOYAL BODY 4e?1E-47 'o tgfi 07 4 F 04'6 2.29E ~ 46 5'9E ~ 06 3 ~ 67fi 46 ?e4tfi07 1 ~ 06E ~ 05 9 ~ 54f <07 ?e 15Eill 1 ~ 75f t06 4 ~ ~6f-45 1.59j F 04 3 ~ 57f ~ 04 3 ~ 43ct ~ 7 2 ~ 04E~00 9e 9&f~ 46 ~ o69f F 03 4 '?ED 45 9'5E<42 go4 ~ E~o? OA -'t ug 1 UC1/SEC 'tfLEASE PAjf OF EACH jSOjOPE ltl ANO A VALUE OF 1 ~ FOR X/4 DCPLElEO X/0 AtlO RcLAllVE OEPOS1Y10tt 0 41/25/l9 EtlVTRCIItlEHTAL FATHiIAV OOSE COHVEI'STOH FACTORS PATHNAV GOATS tlTLK ICOHTAtITHATEO FOR AGE I FOR GASEOUS 01SCHARGf S AGE GPOUP CHTLO HUG L lOE 0 R G A H 0 0 S E F A C T 0 R S ISO.IIETER-HREH/VR Pfr UCT/SfCl H -3 Creel>> P %2 Ck cl tltt" 54 FE 59 CO 57 C0--53 CO -60 H1 61 Ztt--65 lt8 AC c(aa)9 SR 90 T---91 FR 95 ttn--a5 Fu-103 rU-146 AG114H COllltl OCHE 4o 3.IIEET 05 2-19E<<l ~ Oo ~ o 4 ~ 12E<<45 Oo 0 ~I~ lo60E ~ 44 1ol6E<<4 ~ lo 45E ~ 14 Z.SFE<<lt 4.56E<<43 lotlf<<44 lo3OE<<44 4o 296 ~ 42 I ~ 13E<<44 lo>>5E ~ 06 4 ~ L1VER 3 t4E<<43 3ollE<<05 1 ~ Ttf<<09 lo lo ~ ~ E ~ 46 9ot ~ E<<45 1 F6%EGOS loSIE<<$ 6 5o ~ 6E<<IC 5 '6E<<07 5 ~ Slf<< ~I T ~ Ttf<<00 4 ~I~ 4 ~ 5 'TE<<43 1 ~ 41E<<44 ~ o 0 ~ 6'0E<<06 1.59E<<05 THYR010 3 ~ 24E ~ 03 3olIE ~ 45 I~ 2 ~ 19E <<01 ~ o ~ ~I ~ ~ o ~ o ~ oI ~I ~ ~ ~ 4 ~ 0 ~ ~ ~ ~ ~ 4 ~ 4 ~ ~ olo KTOHEV to 1lf<<03 2 ~ TSE<<0to 0 ~I ~ 41f ~ 02 3otlE<<05 ~ o ~ ololo ~ ~3.23f << ~I ~ olo ~ o lo 2 '3L<<03 Sollf<<43 It~ 99E<<lt 5 '%E<<03 1 ~ 36E ~Il loZCE<<05 LUIIG 3o24E<< ~ 3 3 ~ 4E<< ~ 5 ~ o ls ~ ~ 5E<<03 ~ otoltf<<05 ~ o ~ o ~ o ~ o ~ o ~ o ~ o ~ o ~ o ~ o lo ~ oI ~ ~ o ~ o GT LL1 3 ~tlf~ 03 3 ~llf<<45 2 ~ LCE<<09 9ol9E<<IS 3 '9E<<06 3'3E<<06 Co 15E<<06 ~ o9IE<<IC ZollE<<02 1 o ZCE ~ 02 3.511 <<ll 6'CE<< ~ F 5'3E ~I~ 3 16f <<l9 6 'CE ~ IS 9 ~ ZZE ~ IC Zo%4E<<02 lotCE<<04 tolSE<<05 Zollf<<09 Collf<<06 SKTH ~ o 0 ~I ~ ~ ~ ~ ~I ~ ~ ~ ~ o ~ ~ ~ ~ ~ ~ ~ ~lo ~ o ~ ~ ~ oI ~ ~ ~ ~ ~ ~ ~ ~ o TOTAL SOOT 3'4E<< ~ 3. 3 ~Ilf<<05 I~ 46E<<4 ~ 3 ~ 66f << ~ 3 2 ~ 5E<<IS Ttf<<05 2 ~ltf~ 05 4o5lf ~ 06 lo 52E <<IT 2 ~Ilf<<IF 2 Stf<<ll 1 o 55f <<00 4 ~ 16f <<00 6o ~ ZE <<ll 1 ~ 22E<<lt 3'6E<< ~ 3 1 ~ 04f ~ ~ ls 1 ~ 94E <<02 1 ~4lf<<~ 3 4 ~ llf~ 06 5 '9E<<03 a1510 CH 1 UC1/SEC RELEASE FATE OF EACH 1 OTOPE ltl AIID I VALUE OF 1 FOR X/0<<QEPLETEP X/0 AttO RELATTV OEPOSTTTOH IIOT Till UIITTS FOR C 1>> AIID H 3 AFE 1tIC tt/YR PER UC1/CUo'IE TERT 0 1/25/ l9 cHVIHOHUEHYAL PAYHNAV-DOSE GOHvffS10H FAGIORS PAYHMAY - GOAYS HlLK ICOH1AHlHAIEO FOFAGEI FOI GeASEOUS 01SCHA>GES AGf GROUP Cli1LO HUGL IOE 0 R G A H 0 0 S E F A C 1 0 R S ISO ~ HEIER HREH/YFL PfR UC1/SEGI SH-1Z-I SH-I?6 S~ 124 ES l?5 1 c IZS'l II 121M lf I29H 130 1--I 31 1--132 1 133 1--134 1--135 CS 114 CS -156 CS -tll QAet 40 Cf 141 CE -144 PR-tv 3 HO 14l OGHE 0 ~ 2.1OE ~ 00
5. 30E ~ 06 I ~ lSE<<46 Ieb5E F 06
6. ZtfF 06 3 ~ 3ZE ~ Ol 5 '5E<<05 I ~ 40E ~ 09 Zot)E 01 2.146 all 4 ~t ~ 790<<04 6 ~ 54E<<14 Oe 34E<<40 9 ~ 21c<<10 I ~ 40E<<0l I. 49E <<04 I ~ 20E<<06 2 F 03'1 5.41E ~ C I L1VER 4 ~4ellE F 06 6 ~ ZZE<<04 I lit<<05 t 40E<<06 2.14E ~ 06 9 ~ 2lE <<46 1.61E ~ 06 1.52E<<09 Se lIE-Ot 64f <<Ol 4 ~
4 ~l2E<<04 to 14E<<11 3 ~ 29E ~ 09 ie9lf<<le 1 23f<<44 l.46E<<03 3 ~ leE<<05 0.16f <<00 le42f<<OI THVR010 0 ~ 22E<<06 l ~ 9lc <<03 1 o43E <<OS 2.49c ~ 06
1. lSE ~ 06 I6E <<Ol 2 ~ ~Sf ~ ~I 4.94E ~ 11 l ~ 51E <<01 6'6f ~ 09 I ~ Zl= 49 6.1 ~ E ~ 06
~ ~ 4 ~ ~ ~I ~II ~ ~ o KlOHEY 0 ~ 4 ~ 4 ~
4. l6E <<05
~ o46E<<06 to4IE <<Ol le Z3E <<Ol Z.SIE<<06 9etic<<II 9etlf Ot leSSE <<ll I ~l~ 51E <<04 to39j<<t ~ t,l3E ~ 09 }.10E ~ 14 1 ~4lf<<43 1 ~ llE << ~ 3 6eiif <<04 4ollf<<00 %.66E<<ED LUHG 4 ~ 5 ~ 9lE ~ ~ 5 2 '6E<<06 3 ~ 4IE << ~ 4 I~ ~ o lo ~ e 4 ~ ~ o 4 ' 4 ~ 2 ~ 426 01 t ~ ZZE<<l ~ 2'if~ I'el5f ~tl le 31E ~ 43 ~ e ~ o . ~ o ~ o Gl-LL1 0 ~t.40E F 00 9 ~ 33E ~ 4l t ~ 92E ~Il ~ o54f F 06 3 ~ 50 E ~Il 4.04f <<Il lollf<<06 lollf~I~ 1 ~llf ~ 1 lellf<<ll ~ e 5 '9'4 ST 92E<<00 lo l4E <<I~ S.44E<<00 9 clif<<05 9.l6f <<06 9.llE ~Il ~ol9f ~ 04 lelSE <<04 SKIH 0 ~ 4 ~lo ~ eI ~ ~ o ~ o ~ oI ~ ~ oI ~I ~ 0 ~ ~ e ~ ~loI ~ ~ ~I ~ ~ o ~ o IOYAL Oooo 0 ~ 6 ~ YOE <<46 le 30E<<06 lo 19E <<45 le IIE<<06
l. 92f ~ 45 5 ~ 15E <<06
6. 35E ~ 05 I ~ 15f <<09 2o03E 41 I ~ 04E<<ll
~ o lellf<<04 2.33f <<1 ~ 2e 3lf<<49 1 ~ 33E<<ll 4 ~ ZIE<<05 io 1lE<< ~ 3
6. 41E ~ 04 1 ~ IIE ~ ~ 4
9. 50E-Ot
~AScO OH I UCI/ScC MELcASE KAIE OF EACH lSOIOPE 1H AHO A VALUE OF t. FOR X/0<<OEPLflfo X/0 AHO RELAllVE OEPOS1110u 005 1HI UH11S FOR G-- 14 AHO H-- -3 AI'f IHI EA/VR PER UC1/CUeHE1CRI =IIV190!INEIITAL FATHltAY OOSE COttVEI(S10tt FACTORS PATHNAY GOATS tllLK ICOHTAN1HATED FOf AGEI FOR GASfOUS OlSCHASGES AGE CROUP 1NFAH1 NUGL 10i OOZE LlVf.R THV9ola ORGAH OOSE FACTOIIS ISO @LONEY LUHG Gl LL1 SKlN ~Nfelf0-NPEN/YR PER UG1/SECI TOTAL OOOV H----3 F --32 CR--51 NN 5% Fc -59 CO -57 CO -54 CO--aO t<1--t 3 rv>>-eS SR 49 St 90 v 14 95 H9--95 i'U-143 RU 1)e AGISIN CQ 11 Stl 0>> 6 '5'5 2 ~ 19E ~ 14 OeI~ ~. IZE ~ oS I~ 0 ~ 4 ~ 4 ~ &OE ~ 04 1.76EI ~I Ge 3 ~ 09ftlo }e~&L~11 9.7ifi03 2 ~ 54f 404 6.59f ~ oh 9.9&foot R.~lfiOS 7 ~ 45itoe 0 ~ 4>>hbfi43 6>>55fc05 1>>3rf ~ 49. 0. 1 ~ 04Eio6. 9 74E ~ 45 1>>etof ~ 45 3 ~ 4&E>46 l>>ISE ior 5 ~ 96E ~ 07 5>>STEt40 'I ~ Ttf~ ~I 4 ~ 0 ~ 0 ~ .1>>13f o Oa R.srfioi 4 ~ 4 ~ 6>>94fiO& 1 '9E>45 i.osft43 6 ~ SSE t05 ~ et.19'3 ~ ~ ~ oI ~ ~ e ~ o ~ o ~ ~ ~ ~ 4 ~ ~ eI ~ 4 ~ 4 ~ 0. ~ o ~ o ~ o 2 ~ 11E ~43 r>>TSE ioe ~ e 4 ITE>02 3>>tot f05 4 ~ 4 ~ 0 ~ 0 ~ 0 ~ 3 ~ 73E400 ~ e ~ oI~I~ t>>23E F03 5 ~ ~lf443 to>>99E ~ ~ R 5 ~ ~tof 103 1.36'ar let6f F05 S.oif i43 6>>SSEi05 ~ o h ~ ISE4 ~ 3 ~ e RE TREt4S I~ ~ olo 4 ~ 0 ~ ~ ~ ~ oI ~ ~ oI ~ ~ ~I~I~ ~ o ~ o Lo&f~ 43 & ~ 55E ~ ~ 5 R.LCE ~ 49 9 ~ 19E~IS 3>>29fiDC 3 '3'6 e ~ 15f ~06 7 ~9tf toe 2 >> 59E ~ 01 l>>RSECIT 3 ~ Slf ~ I~ 6 ~ Stof clr S.Trails 3 ~ 3%E a 09 6 ~ t>>SE >05 I ~ 9SE F06 t>>37E >lr 1-taf boa 1 ~lrfF05 2 ~Ilfil9 6 ~ Tlf>46 0 ~ ~ eI ~ ~ oI ~ ~ o ~ ~ ~ oI ~I ~I ~ ~ e ~ o ~ o ~ ~ 4 ~ ~ e ~ ~I ~I ~I ~ o>> ~ Ibf~ 43 b>>SSE445 4'&E~I~ 3 66ft43 to OSE F45 3.TRELLIS 2 ~ Ttfil5 7 ~ t>>9f >46 R ~ Slf oor 2>>IIE+IT 2 ~ SRE~ ~I 1 ~ SSE>4 ~ 4>> ~Tfill 4 ~ 43f ~ 1 ~ t>>EIE~ ~ 2 6>>67fi03 1.7SEioa 3 ~ t 3E~IR 2 ~ 96E > 43 e>>1OE446 5'9E ~ ~ 3 <AScO Qtt I UGI/ScG RfLE ASE ttATE OF fAGH 1 5 OTOFE 1H AHO I VALUf, OF 1 ~ FOR X/Oo PEPLETEO X/O AHO Rf LA11VE OfPOSl 11ON tOTE - lHE UtilTS FOR C - Ia AttO H-3 AFE INFE'I/'fit PER UGl/CU>>NETERI 0 0)/25/79
t.V1>>rcrttr Err 1AL PA 3 trtrAV-riOSE a;OHVc hst Ort FAC10RS PA 1HllAV GOA)S rlLK Icor)TA')1 trAtiO FOR AGc )
FOR rASEOUS ntSCHAAGES AGE GROUP 1trF AN7 trUCL )0 rlulrc L1Vf.R THVROli) K10HEV OPGAt)00scFAC70 k S )SO.HE1ER-t)RcH/VR PER ucl/SEC) ee e ee ee e ee e LUtle GleLL1 SK1H 101AL OOOV 'w-) 23 cA-) 26 58-)2w S0-125 lc )2ck li )27tl lc )29H 1-130 1--13) 1 )32 1-113 1-e) 4 1-135 Cs-t SC cs -1 se CS -1 )7 8A }eo CE-)cl rc-)C-Pe-)it liu l>>7 0 ~ 2 ~ )OE ~ OO 3 ~ SOE ~ ee u>> Stcam 4& ).Ogi ~ 47 6>>euE F 06 7'5c ~ 47 5>>45E ~ 05 3 ~ 1) Etog 2 ~ ) li-0) C.ioi ~ 07 4>> 1 ~ 7gi>or>>
l. 33E ~ 11 0 ~ Ssi ~ C4
).93Et)t 2.95c ~ 07 3.)7i ~ OC 2 52E F 06 2.03E F 01 l.vli~ 0) 4 ~C.)7ttoe 6>>22E ~ OC 5 ~ 92E ~ il5 6 F 36'6 2.3)Ei46 2 ~ C2E 107 1 ~ 61E ~ Oe 3 ~ 70ccog F 716 41 6.57Ec07 4 ~ C.7 2c ~ Or>> 2.39Eitt 3 ~ 2gitog 2.)eE ~ tt 2 '&E4OC 1.95E ~ OC 9'5it05 O.)6Ecoo 1 ~ C2C ~ Ol 0 ~ 1 ~ 22E ~ oe 7.97ii05 3.52Ee05 6 2)Eeoc 2 ~ 15E ~ 46 2.66= F 07 2'5i ~ ~ 0 1 ~ lgi ~ 12 7.5)Etot 1 ~ 556cto 1 ~ 27Eeog 6.local 06 4 ~ 0 ~a. ~ >> 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ v>> l&E~ 05 4.~&EtOe 2 CDct47 3.23E c07 2 5)Eeoc 9 20Er00 9>>tlE 41 1.55'7 ~ >> 7.5)EcDC 5.39E ito 1.03i ~ 09 1 ~ 14cc)4 l>>C7E f43 t>>)7Et03
6. ~DEioc 74E 140 0 ~ 66c co ~
0 ~ 5.97Et05 2 ~ 56E c0& 3>>uDE44l 4 ~ 0 ~ 0 ~ ~ >> 0 ~ ~ >> ~ >> ~ >> 2>>C2teO) 2 'CE ~li 2.5)E ~ ~ 0 F 6)E<t ~ t>>0)E ~ DC 0>> 0>> ~ >> ~ ~ 4 ~ 1 ~ COE ~ 4 ~ 9 '3Et07 2 '2E047 9'9E ~ 4& 3 ~ DDEt47 C>>25E ~ ~ 7 )>>34Eile 1 ~ 39E F 00 1 ~ ~7Eeil 1 ~ t7Etl7 4 ~ 5 '9EcOC 5 '9E44 ~ 3 ~ 7CE ~ll 5'9E F 0 '9 76Ec05 9'CEcoe 1 ~ DCEt00 0 ~ 49E iDC
6. 75EiDC 0 ~
4 ~ ~ >> 0 ~ ~ ~ ~ >> 0 ~ ~ ~ 0 ~ ~ >> ~ >> ~ >> ~ 0 ~ 4 ~ 0 ~ ~ ~ 0 ~ 0 ~ 4>> 4 ~ ~ ~ O. 6>>34E>06 1 ~ 34Eio& 7.9CE ~ 05
2. 52E ~ 06 0
~ 5E ~ il5
1. ~ 74 ~ 47 6 '5E~il5 2 )7E<49 2>> 03E-Dl 1 ggito7 t ~ 73EtoC 2>>4ZE<to
2. 37E ~ 49 t;24E~)0 1 ~ 52Eioe 2.2OE F 43 1 ~ 3&t ~ 05.
1>> olE ~ 4 ~
9. 3OE-Ol r;Act urt
) UCl/S C kELcASE hA3E Or'ACH 1 010PE IH AHO A VALUE OF 1 ~ FOR X/0 OEPLE1EO X/0 AMU Rf LA71Vc OEPOS1110lr r, lC - 1>>.- utttle FO C-)C AHO tr-e3 ArC )HfEt)/VR PER ucl/Cu.t)E1ER) Ot/25/19
hvlQOHIIEHtAL PAtHIIAY-OOSE COHVEHSlOH FACtORS PA t HIIAt - 6 tOPE 0 FQU1 tS AHO V EGi tABLES FOP GAScOUS OlSCHAPGES AGE GROUP ACULt HUCL 101 UONE LlVER tHVR010 K1OHET ORGAN OOSE FACt 0 R
S 154eHEtff HPEH/YR rrrrrr LUHG IQ1 LL1 PER UC1/Sic I SKlH 10tAL OOOO II-3 C 14 prr CR St HH-5>> gl re 59 CQ 52 CO 5 ~ CO -66 tit--I) 18 "65 Nr"05 cgrr09 c0--90 -r9t 'l5 IO -'l5 FU 103 IU 106 ~ Gt 10'I 031 I'H ll~leZZi ~ 05 3 ~ &lf~ 4 ~ Oo 0 ~ 9 06EIOt 5 ~ Oe 9 ~ 0 ~ 95E>09 2 ~ 67 0 >04 0 ~ le %4E ~ 09 5 ~ 22E ~ 1 t 3 ~ 00E446
l. 11E ~ 06 9e 35f >04 3'4E ~ 06 1 ~ 6$ fF00 0 ~ 92E~OE Oo 2'&fi33 1 55ft05 Zo3 ~ E ~ Ol
~ o te&4E400 2'5E> ~ 4 9 45E106 Ze39E ~ Ol 1 44f<0 ~ 6 ~ 21E ~ 0 ~ 4 4biI04 9 'OEiOZ 0 ~ 0 ~ ~ o 4 ~ 04C045 5 19EI04 0 ~ 0 ~ 0 ~ 25ft06 l~ 64f Iot 2 '6E F 03 1 ~ 55f F 05 0 ~ 1 ~ 63f I04 ~ o 0 ~ 0 ~ ~ o ~ o ~ o ~ o 0 ~ ~ e ~ o ~ o ~ e 4 ~ 0 ~ 0 ~ 4 ~ Ze46E ~ 43 1 ~ 55E ~05 ~ e 6'3EI03 loOCE ~ Ot ~ o 0 ~ 0 ~ ~ o ~ ~ 5'bf<00 0 ~ 4 ~ ~ o ~ oSettf ~ 05 Set5E ~ 04 1 ~ ZOE ~ 07 3 ~ 151 IO ~ 1 ~btf 007 to49it0t Ze46E~ ~ 3 le55E F 05 ~ o 3'3E~04 Oo 5 ~9tf ~ Ot 0 ~ 0 ~ ~ o Oo ~ ~ ~ o ~ o ~ e ~ ~ 4 ~ ~ e ~ o ~ o 0 ~ ~ o 2'6fi03 to55E105 4 ~ 131>0t &o ~Tf406 0 ~ 09ft0 ~ 7 olOE i0~ t.50E F00 4 '4E~O ~ 2 ~ 69f ~09 1 ~ 29EI00 5 ~ 33EI ~ 0 totOE+Ot t ~ ltfi09 1 ~ 40f ~10 to 14E i 09 1 ~ 59E ~ 09 3 ~ 15E 1 ~ 0 3'0fi0~ 1 ~ 0&f~t~ 3'tf>09 1 ~ 53E ~ 09 0 ~ ~ e ~ o Oe ~ ~ 0 ~ 0 ~ 0 ~ 0 ~ 0 ~ ~ ~ 0 ~ ~ o ~ o 0 ~ 0 ~ 0 ~ ~ ~ ~ ~ ~ o 0 ~ 2e 46E103 1 ~ %5E 105 1 o 42'E ~ Ot
2. 73E F04 5'4fi0t 0 ~ t &6I 07 1 ~ &4E~OZ 5 ~ 3&fiOZ 3.16'0 3oOOEo04 3'3E F 00 4'Ofo ~ Z ZolOE F 08 loZ4ftll te04cyO 2 '2E<05 2 F 04'4 te44ft06 2o06E ~ 0F 4 ~ 91E ~ 06
t. t&fF06 oIAS:Il Og 1 Url/ScC
%1L:ASE RAtf OF EACH 1SOtOP 1H AHO A VALUE OF 1 ~ FOR X/Oo OEPLEtfO X/0 AHO RELAtlVE OEPOSlttOII 0 t Vayu>>riqlat Fal>>MAT-OUSE 'CO>>VctSLOU tauloaS r -.>>ataV a:.0-:0 Ftul lS a>>i VEG=laOLCS Fus GAScOUS Ol SC>>ai Gi S AGE Ga OUP AGULl >>UCL lf = RClsf Gl-LLl Kloof' lvir. LUNG 1>>'lst 050 SKltt 0 et G a H 0 0 3 i F A C l 0 Pt S ISO ttilfG tuf>>/Yk PEA UCl/SECI aaa\\aaaa aaaaaaaaa\\aaaaaaaaaaaaaaaaaaaaa lulai 0003 1 '.'ta 1 26
U-12c 1'>-125 I a 12itl l: 12ltl 1 c
$2cd I-al 5u ) a-1$ 1 5 aa152 5-al ll 5--1 lc 5-at 55 CS 13C CSa136 aS ill Oa-tiu Lcalct fi lcc FR ti3 >>r -l.r 5.slftu9 l.tli~ Ol 1 cali ~ 44 l.2li~ Ol 2 42Eoii 1 ~ c5c ~ CD u ~ 2 ~ 't'ti ~ 46 Oe 0 ~ 0 ~5olif-ut 3.992 '9 4'2i F 36 5ohtf ~ 09 2 ~ 64c ~ ul 1.26i ~ 05
2. lic~ 4l 1 ~ 51E ~ Oh 6e19
>oh 4 ~t.tOE ~ Ga t.c9i ~ u6 9,4hitof 2 ~icitir 9 Alitil 6.20ftil ~ e he24i t46 ~ o ~ o Oec.lci-at 9'0c ~ 09 3 a OEt4l l.ciEtu9 3'5ft4h 4.5oftch 1 ~ 16Etil 6 ~ ~ 6ft03 1 ~ 46ft44 4 ~ 3occc ~ Ol 1 ~90ft45 6 99ft46 2 ~ 19 t4l lect'l 5e l2E til 0 ~tecoct04 ~ o 4 ~ ~ o 0 ~ 0 ~ 0 ~ 4 ~ ~ o 4 ~ 0 ~ ~ ~ ~ o 4 ~ 0 ~ 0 ~9.26i tOl 2o96it44 1 ~ t5E tfi9 6 ~ 92iti~ 0 ~ le 33'46 ~ o ~ e ~ o 1 ~ 40E 01 3'0ft09 $.9hftil 2.5SEt09 tellctils 3.9hftih 6,41Etif 3'9ft03 to 33ftih 0 ~ h ~llfoOl 6eltfoul 1 ~ 52Etli ~ e 4 ~ io 4 ~ 0 ~ 4 ~ 0 ~ 0 ~ 5ohOca42 te42ct49 2.66ft46 ~ ohhEtii t ~olctih 4 ~ 0 ~ 0 ~ ~ o 4 ~ lo995 t49 2'$ c ~ 09 1 ~ 3lft49 2'46 ~ F 4 1 ~ 24ft09 ~ ~ 32Et ~ 0 ~ otottft46 0 ~ ~ o ~ ~ 1 ~ 11E 42 1 ~66ftoi 3 ~ 96f ~ 46 1 ~hhft40 1 ~ 09Et40 3 ~ 2hf ~ 04 9'lft09 6 64E ail 0 ~ 19Etil 4 ~ 0 ~ 4 ~ ~ e 4 ~ 0 ~ 0 ~ 4 ~ 0 ~ 4 ~ ~ o 0 ~ ~ o ~ ~ ~ o ~ ~ ~ ~ ~ e 0 ~io 4 ~ 1 ~ 9cfto ~ lo tlE ~ 4l 3 23Etol-
9. lhft06 3.cof til 2o 63E ~ ul
~ o 2oh5ct46 ~ o 0 ~ io2eltE Ot
l. l6Et 09 2 ~ 5tEtil h.9lf F 09 l.llEti&
9 63Et ~ 3 1.%9f t46 l.c9E F 02 2oh9Et03 ia 50 t >> 1 uCl/ " OCLfaSE taalf OF EACH lSOlOFE lH ASO A VALuC OF 1 ~ FOR S/4 ~ OCPLflf4 X/0 AHG KELAllVE OCFOS5150ta 4 01/25/19 ctlV1ROIIIIEII1AL PilriIAT OOS-CO)IVERS1OII FAC1ORS PAIIIIIAT FRESH FRU11S ANO VcGEFABLES FOR GAcEOUS 01SCIIAliGES AGE GROUP AOUL1 tIUCL 1Oc 'ICUE ORGA II ~ &a a L1VER 0 0 S E F A C 1 0 R S ISO ~ IIEfER IIP>>EII/TR PER UC1/SECI e e &Wee \\ % e ee ee '%%'% ee \\e ewe 'e e G1-LL1 LUNG 1IITRO10 KEOIIET SKlh 101 AL SOOT r----3 C 14 32 C+ 51 IlH 54 Ff eec9 CO Sl CD 4 CO -60 tt1 -eh 1 Zs-"c5 F9--46 cR--39 94 T 4! li 95 IIII--45 FU-143 cU-1il AG I 1 OII CO 1 1 SII 4 ~ 1.25f o 45 1>>Deft 49 4. I>> 3 64E ~ Ol I~ 0 ~ O. 1 cSE>09 ST llci41 0>> 2 ~ El= ~ 49 Iev9E 4 14 1 ~ Z6 o06 2 ~ 93f ~ 45 4 ~ llc ~ 44 1>>54%~46 2 ~ 95E I 47 1 ~ 69E ~ 46 4 ~ 4 ~ DZE F02 t>>Sofa 04 6.51 ftol ~ e 4 ~ olf4 Ol I~ 64E 4ll 1 ISEI06 6 ~ l9E ~ 06 2 3 ~EtDl 1>> 01E ~ D4 1 ~ 62E<04 l ~ 3 ~ E ~ OI ~ oI ~ ~ >> 9.421 ~ 04 Z>> ill~44 D ~ 0 ~ 1 ~ 56fo46 1 ~ 53E
03 1 ~ 4SE ~01 ~ o ~ o ~ o 0 ~io l>>09E>OS lo ~ o ~ elo 1 ~ 49E<OS 2'4E>04 5 ~l5E ~ 46 5 oil fall 3 ~ DIE >06 lotlf~ Ol 4>>42fiQZ 2.54fi04 I~ 2 ~ 56f >04 0 ~ 2 ~ 40f >Ol lo ~ o lo ~ ~ lolo ~ o ~ oI~ ~ o ~ o ~ o 0 ~ lo lo 4 ~ IZE ~02 2 ~ SIE ~ ~ 4 1 ~llf< ~I 4 ~ ISE ~ 06 1 ~ 49E ~I~ 2.054 F 00 4.roftol 1 ~ 4 ~ E ~ ~I 4 '6E F 0 'ollf~ ~l 1 ~ ~ ZE>0 ~ 2.56ftll 4.26fioo 2.14f ~ 09 6'2E< F 0 3'4ftlo 1.64f ~ ~I 1 >>16f < ~I 1 ~ 9lf<09 6.3IE ~I~ 6 'ZECH I 0 ~I ~ 0 ~ ~ ~loI ~ 0 ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ o ~ o ~ ~ ~ ~ ~ ~ 0 ~ ~ ~ 4 ~ ~ o C>>OZE~OZ 2.54E ~ 44 C ~ Otf<47 1 ~ 93E>44 9>> 3lf ~ 46 3>> 29E 4 ol 3>>DOE <06 1 ~ 54f >ol 5 ~ 23E>01 4 ~ 4lE ~Il l~ 34E ~Il f ~ 06foDl l.6CE ~ Dl 2>>Olf>l~
3. 3lE ~ Ic 6'8E ~ 44 1 ~ 46E ~44 E.C9fteS 3 ~ lCEo 46
l. 30E i45 4 ~ IIEt 45
'9 PI 1 UC1 / EC liCLI ASE RilE CF EACII 1SO1OPf ltl AIIO I VALUE OF 1 ~ FOR X/O ~ OEPLE 1EO X/O AIIO RfL AYlvf Of POS1 1 1 Otl vt/25/1't cttVtiCllitrNlAL FllNHIV OOS CohVi&SlON FACTORS ~liNMAY - Fr.iltt FRUllS Attf VcGETAOLES Fut>> GA c EOUS 01 SCNAt Gf S AGE GROUP ACULl r Uoutui 0 P G A N 0 0 S 6 F I C l 0 R 5 1SO>>NflER ttlaEN/VR PCR UC1/SECI >>%>>oooo o'So\\Do ooo%oo 'oooo%'p not;c L1VE~ tttfdolu rlONcr LLJNG Gl LLl "rttt lOlAL OOOO c~l tt 126 5 ]-12'V-125 littett littrtt i= 12sd 1--134 l--t.lt l--1 12 1--1 13 1--ltd 1 -155 CS-1 lh CS -13u CS -1 ll Rl-1 wD Ci-1st C: -the PN-thl tta t~l 1 ~iii 45 4>>5?i ~ 44 2 ~ 52E ~ ul 2>> 54i ~ 01 2>> 54E ~ll
6. 15'1 4.95ii41 5 ~ 9lf>05 1>> lic ~ Ol 5'rc F 01 2 13i ~ 46 1 '5E-Dh h>>Owi ~ 44
6. 42=t04 5.5?=ter 4 '4it44 1
Olfe 44 1 ~ 16ft04 5>>t9ie06 Owio44 3.sif ~ Oh Fbf 01 49fo01 4>>15it 05 1.23E F05 4.65'6 2>>36E>01 3,34ie01 1 16E ~ 06 1 ~ l?ED 44 49foD? 3>>69fi06 t>>l9E-Os
1. 0lE ~ 05 t>>6?fe09 1 3tct0 ~
t>>ttfi09 1>>35E ~ 45 4 ~ 45E ~ 44
2. 5lfi06 1 9hft44 3.4 3E ~ 44 1>>htE 41 5 ~ Ewfe06 6.04ci4>>
4>>05fe45 lotrfolo torrf ~ Or 3 ~ 64ftlr 1.44'4 3>>65'4 1.96'4 1 ~ttfcl ~ 3'3E- ~ 2 1 hOE441 D ~ 4 ~lo ~ o 0 ~ 4 ~ 0 ~ 4 ~ 0>> D ~ 5 ~ lhc t46 9 69E 441 ?.llfi0~ 3>>13E 004 1.4tfi06 1.9lc ~ 04 2 ~ 3 ~ E ~ Ot 6.44E i06 4.45c 04
t. 10E i05
5. t6f ~ Ol l 29c ~ Ol 4.14EIO ~
4'9c F 04 2 ~ 25f 104 t.?9f iOE t.t?ED 44 2>>ilE 144 4 ~4.3tfioe 5.95fi01 2-56E~49. 4 ~ 4 ~ 4 ~ lo ~ o 4 ~ ~ o i>>65E 03 t.rhfi4~ 9.99E ~ 46 1.3rfo44 r.34E t44 lolo ~ o lo 2 ihi 05 46'4 1 >>12c <0 ~ ?>>22i F 44 StctOr 3 ~ Oefo44 h>>49' ~ 9 ~ 94E o l5 2-94E ~ Or 2 ~ Oifelt 3.?l f ~ 46 2 ~ 43E ll 1 ~ t9fi45 t>>44f all t>>49ftlr 2.34f cor 6 '5E>44 1>>4SE ~ 44 t.15'9 2 ~ ttlc0 ~ t>>63f>4 ~ 0 ~ 0 ~ 4 ~ 4 ~ 4 ~ 4 ~ 4 ~lo 4 0 ~ ~ ol ~ ~ o 4 ~ ~ o ~ ~ ~ o ~ ~lo ~ o ~ o 2>> 45E-41 .2>>94ci41 9.94f F 06 5 ~ 10E ~ le 3'9E>46 ~>>3?ft46 t.htfeor 4 ~ 54E+05 6>> 34f ~ Ol 5.29E ~ 4t t.tlf~ 46 9'9E-05 3 ~ 91c tih t>>33E 149 9.43E ~lr r>>94fa04 6>>llfF46 5 49E i03 ?.rife05 2 ~ 44c ~ 43 ?o?hlt43 E C t 1SGrOP ltt AHO I VALUC OF 1 FOR X/0 OEPI flea X/0 ANa RCLArlVL OEPOSltlotl dI'.0 Gw 1 ucl/SEC RELcASE NAlf OF EAClt 1SGtOPi ltt Att =Iev st:OIIttcitlAL FA lIIIIAT-OIISc COI VE IISlOII FAIelORS PA1IItIAT - GOAIS nlLK ICOIIlA:IllAl=O FOtAGEI FOR GASEOU'lSCIIAhGES AGE GIGUP - ACULl IIUCI. eUC ICI'6 Llvfr. 'lIITIIC5 O KlOIIET Of GAM ~ BOSE FACl O 4 S ISO.IIETfh-IIIEII/rh LUUG Gl LLl PER ucl/Sf CI fKlH lOlAL IIOOT j C---Ii F ---52 C~-51 II I e eg C3 -5l CO--54 CO-Ei Itl -63 lu--65 i u-esi eF--n9 St -14 T---VI l~ - )5 I 3.--s5 t Uelol I u-146 AS I IJtl C3 lI -.tI De 5eb lc ~ 45 2'5E F 14 4 ~ . il~1.4ri ~ 45 II~ 4 ~ 0 ~ 4eUrf too Ie65E ~ )4 0 ~ 5 ~ 46- ~ 49 ale t 14 1 ~ II3Eto3 4?i ~ ~ 3 9 ~ 92ct03 I ~ 83f ~ D2 2.<5:-to3 l Ooit46 3 ~ 99i t U3 l.20itoi 1 ~ 2'Ii~ 09 4 ~ I ~ 4lctC6
9. 14E ~ D5 1 ~ 54E ~ D5 5eilc ~ 45 I ~ 94ct46 5 60ctil 5.2t E ~ 0 ~
3e 121 t 06 4 ~ ~ e
2. I 4E ~ 43 5'1E ~ 43 0 ~
4 ~ 6et af ~ 46 1.5oEto5 le99ft43 l.20E ~ os 0 ~ 2'5Et43 ~ ~ ~ ~ 0 ~ 4 ~ ~ ~ ~ ~ ~ e ~ e 4 ~ 4 ~ 4 ~ 4 ~ 0 ~ ~ ~ ~ e ~ e ~ ~ I ~99ft43 re2actOIe 0 ~ le54E ~ 42 3.00Et05 ~ e 4 ~ ~ e 0 ~ 0 ~ 3'oit4 ~ ~ e ~ e 0 ~ 0 ~ 2e 14E ~ 03 5 COE ~ 03 II.690 ~ 02 I.r3E tC3 le 2lE ~ al 1.19c tiS 1e99E t43 re2aftoto 0 ~ Ice 56Et03 0 ~ 2'5ft05 0 ~ 0 ~ ~ ~ ~ e ~ e ~ e ~ ~ ~ e 0 ~ 0 ~ 0 ~ 0 ~ ~ eie ~ e 1 ~ 99E t 43 r e 2af ~ ate 2 ~ 31E t09 ~ e6LE ~ D5 3'9E F 06 3 ~ ~lf~ 46 3.90ft06 1 ~ 15f ~il 3 e laE ~ Dl I.llftat 3.3 ~ E ~ Oi 6 ~ 15ftil AD 09f F 0 ' ~ 32'I9 5.60E ~ 05 1.26E ~il 3e3itf gal 1 ~ItaftaII 1 ~ 50E ~ 05 2 '%E ~ 09 6'9Et06 4 ~ ~ ~ 4 ~ ~ ~ 0 ~ 0 ~ 0 ~ 4 ~ ~ ~ ~ ~ ao ~ e ~ ~ ~ e 0 ~ ~ e 0 ~ ~ o ~ ~ ~ e ~ o I ~ 99ct43 l 24E ~ii re9tefto ~ 3ete3E ~ 43 I ~ 93ct45 3'4E ~ 05 2.55E ~ 45 1 ~ 2lEt06 II~ '5tef t 06
2. llEt ol
2. 3lE ~ 44 1.~5ft 0 ~
4. l6fIol 2 ~ telft 10
2. llft 41
~. 3sft02 2e 1lft03 5e 30Et41 3 ~ 10Et02 3 ~ 05E ~ 06 heraft ~ 3 ~I '.I GII l U 1/ cC RcLcASE RAlf OF EACII lSOtOPE lti ANO A VALUE OF 1 ~ FOR X/Ot QEPLEEEO X/O AIIO DELAllVE OEPOSlllOII tIi:c - llI-UII51S FOil C---1% AUO N-- -3 Ali IIIEilI/TR PER UCl/CuelIElERI e ot/25/r9 cHV 1.OHHElltAL PA)MHAY OOSE COMVERS)OH FAC)ORS PAIHVAY - GOA)S H)LK fCOMtAH)HAlfO FOPAGEi FOR GASEOUS O)SCHAFGES AGE GROUP AOUL! IIJCL )OE IOHf L)VER )HVRO)O X)DHEV ORGAH OOSE FaCt 0 R S fS4 ~ HE)ER HPEHIYQ PcR UC)ISECI eeeeeaaeaeaeeaaaeaaaeeaae aaeaeea LUHG GleLL) SX)H tO)AL. IOOV SH 1Z3 SN 126 SAef Zg SO-125 TE 125'f Tf ttril fcj29H 1 130 ) aal )t )ee132 )--1 33 ) a-1 3V !-al 35 CS f>w CS 136 Cl-jfl BA jbo Ci-3 st Ci-f<% F. te'3 tlil 1@i Oet.9rc O;. ~ 3e 1 of 006 3 ~ 16E ~ 06 1.9efile 5 ~ 5lff )6 l ~ Zlf ~ 06 5 ~ltf~ 05 3e5ef ~ 44 2 3E-41 ~.oofy 06 4o le el 6 ~ 4% 1 rIE ufo le obf >Oh Z.ZZE ~f4 3.235 '6 3.<9'3 2.SAN 45 le91E ~ 41 fo39fiof ~ e 3 92fwoe 5.05ftob le 2 ~ft OC rotlfi05 lo 9CE i 46 tel tf 406 toSZE> ~ 6 5 ~tifto ~ 5o36f Ol I~ 3tft06 I~ eobhf oOQ 4 ~ Obf>ji 3e09E F 09 3.03tifl 0.05ft03 to36tt ~ 3 1.Oiled 05 l.elf~ii t ~ 34ftot 0 ~1.15f F 46 r.49' 3 3.50'~ 5 ~ 09E 4 ~ 5 t,wrf o ~ 6 teStf406 1 ~93f40 ~ 1 ~6lftt1 l~06filt 1 EIE409 fotif 09 5 ~Ilfioi IeI ~I ~ 0 ~ 4 ~ 0 ~ 0 ~ 0 ~ ~ o ~ oI~ I ~ Qrf >05 lo95E406 Zotefilr 3.ICE~Or Zo36f 406 ~oltf400 I~ SSf Il toCSEtlr ~ o leiSE to% to3tiit~ to ltf109 lo ~3ftf~ 1 ~ 3 ~ E >03 1 ~lif103 6 ~ 39E >I% 6 ~4tf tO ~ - ~.13fiO ~ 0 ~ 5 ~elf ~ 05 2 ~ 0 ~ E ~ 06 3ot9fil0 ~ o io ~ o ~ o ~ ~ Io ~ o ~ e 2e20E 01 Ce )if>> ~I 2'6f~ll 3 ~ CZE~I9 2'2E403 I~I~ lo lo ~ o 1 ~ 31E >4 ~ ~ llE~Il Z.ref~Or leilf< ~ 6 2 ~ Stf t ~l 3'5E>ll to 30E F06 t.34fill 1 ~Ilf-I1 lo32E F 06 lo bo9lf~ll loief ~ ~I 3 ~ 52f ~ ~I So ~3E~I ~ eolbf 406 9o ~Zf>IC ~ortfior 0.35f ale 6'5fili 0 ~ e I ~ ~ ~ ~ o ~ ~I ~I ~ ~ ~ ~ o ~ ~I ~ ~ ~ ~ ~ ~ oI~ 0 ~ ~ o ~ o ~ ~ ~ ~I ~ ~ o 5 ~ 9tf ~06 1 ~ Ztf>06 Ce 29'E i05 2 ~ Ctf~IS Co 46f ~IS 1 ~ tSE>06 5 ~ 96E~IS 2' 9ZE ~ OI 1 ~ 9lfait 2 Safile I~ 1 ~ 63E ~ 06 3 'ifer 2'3E F 09 te99fiti 2 ~ 13E ~ 45 2 ~ 60f 4 ~ 2 1 ~ 30E<IC 9'rf-ot ie Ilfeit 'AecO ON 1 UC)/SEC RELcASE RAtf OF EACH )SO)O+E )H AKO A VALUE OF 1 FOR X/4 OEPLE)EO X/4 AHD kfLA)JVE OEPO-lt)OH HCtc !He UHltS FOR C 1 0 AHO H 3 APE 1 HFEHIVR PER UC)/CUeHEtfii 01/Z5/19 EilVJROtlHEHTAL PATHIIAV-OOSE CotlVEFSJOH FACTORS PAltINAV STOF'EO FPUL TS AHO VEGElAOLES FoR GASEoUS olscHAIIGES. AGE GROUP lffHAGER tIUCLlof L JVEQ 1HYROL0 ORGAH OOSE F A C 1 0 R S TSOoHETER-tlREH/VR 'eeaeA&ao&\\a&a eoe\\eou& a KLOHEY i LUHG GL-LLJ PER UCJ/SECl SKLH % % e\\&'o &W iOTAL ttOOV H Comets P -SZ CR 51 tltteo5ls FE 59 Ca-51 Co 5 ~ CO f4 tll 6) Ztt-S5 ~9 36 fq ~09 SR -94 I aw91 74-95 Ha-95 tU tol FU 106 AG 1 1 0'I ColtfH 4 ~ Z ~ 49E ~ 45 4ovSE<<40 Io ~ o 1 ~ lOE<<4 ~ Ie 4o 4o 1 ~ OOE<<10 S.ZSE<<0 ~ Io le 3ZE ~ 10 4 ~ 6%E<<ll bo54E<<06 1 Elf<<46 1 ~ 3ZE<<45 5ot9E F 05 t ~ 5>f<<04 1 ilOE ~ 01 I~ .Z ~ 364 ~ 03 Ze%9E<<05 Z.19E<<41 lo Seta'<<00 Z-6lf <<I ~ 1 ~ 19E <<01 8o ISE ~ 01 Z.ZI E<<00 7.5ZE<<00 1 ~ I SE ~ 09 tol9E<<ll I~ ~ o 0 ~ '..ztf<<o5 1 93f<<04 4 ~I~ tooOE<<01 Ioototf<<01 Z.36E<< ~ 3 Z ~ t 9E<<05 ~ e to93E F 09 ~ e ~ o ~ o ~ o 0 ~I ~ 4 ~I ~I ~ ~ o ~ oI ~ 0 ~ ~ o ~ ~I ~ 4 ~ Z ~ 94E<<03 tollf<< ~ 5 ~ o 1 ~ 31E <<03 9 ~ SZE<<41 ~ oI ~ ~ oloI~ 6 ~ 46E ~ 04 ~ olololo CD 9ZE<<05 6 ~ Za E<< ~ C te55E<<01 S.ltf <<00 1.91 f<<01 3 ~ 50E <<01 Zo 36E ~ 03 tol9E<<45 ~ e ho%of <<lb ~ o 1.ZSE<<41 lo ~ o 0 ~ie ~ o lo ~ o 3 ~ 1ZE ~ ~ 9 lo lo ~ o le ~ o lo ~ o Z ~ 36f <<03 te69E<<05 5 ~ IIE<<01 ~ elSE ~ 06 9.40E<<ol ~ o60E<<4 ~ 3olSE<<40 SotlE F 00 Z ~ 69E <<l9 1 ~ 51E <<I~ 6'6E<<00 to 1$E<< ~ 1 toiLE<<09 Z ~ Tbf <<ll Z ~ Slf<<09 1 ~ 61f <<09 3otlf~ 00 Io ~ ISE <<I~ 1 ~ 30'E ~ 1 ~ Coolf <<09 1.06f <<09 I ~ ~ e ~ o ~ e ~ e loI ~ ~ elo 0 ~I ~I~ ~ oI ~ ~ ~ ~ o ~ ~I ~ ~ o ~ ~ ~ o Zo 366'<<43 69E<<05 1 ~ 1ZE <<01 3 ~ 31 f ~ ~ Io 6eltf<< ~ 1 9o91E<< ~ 1 1 ~ 99f <<01 ~.14E ~ 01 5o llf<<04 3 ~ 6% 4 ~ 40 I.CI f ~ 00 5 ~ 09E<<01 So OIE <<00 Z. tt E<<tl 1 TSE<<0$ I ~ 1 ~ E<<05 t ~ Iolf<<II teSZE<<lb
3. 61 f ~ ~ 1 5.95E <<IC t.~tf<<06
~>A -I'. OH l UCT/SEC ItcL.ASE RATE OF EACH LSOTOFE Ltt Atto A VALUE OF 1 ~ FOR E/O ~ OEPLETEO >/O ANO RELAllVE OEPDSJTJDtt 5 0 il'Vow litlCNYAL. FAYNllAV GOSE Cot VEF SYON FACYOliS PAYHgAy e SYOf fo flullS AtQ VCG-YA9LC Fof CASEOUS 01SCHALCES AGE Cguup - YcENAGER uuCL loc dCLLE Llvfi YtiVROYJ O a G L N O O S KYONEV LuNG Gl-LL1 E F A C Y 0 R S LSO ~tlfYER NRENIYA Pfi uCYXSLCL oeo\\e&eoeeo ooo SKYN lOYAL OOOV N $ 25 SN-$ 2o 5 8-L?4 'O-I 25 1='tiN Yi 1? lil Y = 129ll l --150 1--$ 51 1--$ 52 1--1 53 1--1 14 1 155 CS-L Yv CS-$ 36 Lo $ $ 7 CA-Lva Ci Ci-Lv4 Pk-$ 45 ti)-lvl 0 ~ loL&cF 49 9 '5c jul 2 ~ 15i ~ 04 L ~ 26iou4 3 ~ 43c ~ 04 2'0c ~ 04 0 ~ 4 '5'6 4 ~ 0 ~ Qo 6 ~ ?31 Ol 6'6ita9 1 ~ Oli~ 41 4 9af ~ 49 4 'SE F 07 2.55EL05 ~ ~ 97:407
l. 43ft04 7 ~ 5 Lte 44
.4 ~ 1 ~ 42it ail leSaC ~ 06 1 ~ 6oi ~ 41 4o50c ~ 41 1 2$ E ~ 04 1 ~ 07E<4 ~ 0 ~ 6'5E ~ 06 0 ~ 4 ~ 0 ~ 5 ~ 75E 0$ $ ~ 5$ ie$ 0 4,22ft07 1 ~ toctlo 5 loc ~ O4 1 ~ 37fl 05 2 ~ Ovfial lo35f<43 $.29fiav 0 ~ vo llc ~ Ol 2.3$ ii05 1.13E lal 3 '5c ~ 47 9 ~ 09f ~ Ol 9 ~ 2lc ~ Ol 0 ~ 1 ~ 9zf i a9 ~ o 0 ~ ~ e ~ o 0 ~ ~ o 0 ~ 0 ~ 0 ~ 4 ~ 0 ~ ~ o 0 ~ 4e 0 ~
1. Ltftui 3.54E ta ~
le34E F 09 4o34ft4 ~ D ~ 4o 44C ~ 06 D ~ 0 ~ 4 ~toff-OL 3.73E ta9 te35ct07 3.00EA49 $.34ft04 vollf~44 ~ e33it06
v. 23f ~ 43 1 ~ 6$ ft04 0 ~5.73raal l.41f ~ Ol 1 ~ 4vft$ 0 0 ~
~ o 4 ~ 0 ~ ~ o le ~ o ~ o 6o55E-02 l.~ 3f F49 3ettf 446 le59f t49 5 ~ 6$ E404 ~ ~ Do ~ o ~ o ~ o9.67ft09 2 70EL09 1 67ft09 3'2ctl4 le llf~ 49 L.DLEi09 a. ~ 1 ~ 3ac ~ 46 De ~ o ~ o 1 ~ 34c 42 lel4ft04 79E i06 1 ~ 60E ~ 0 ~ 1.15E ~ 0 ~ 3.72E iD~ 1 ~ 17E ill ~. ODE ~ 41 3 ~ 06E ~ 07 0 ~ ~ o 0 ~ o ~ ~ 4 ~ ~ ~ 0 ~ ~ ~ D ~ ~ ~ ~ o ~ ~ 0 ~ ~ o ~ ~ ~ ~ 4 ~lo ~ ~ ~ ~ 0 ~ te 15ft04 3ellfF07 4 ~ 06E F07 1 61Et ll 4-26ftll 4.56E F 07 ~ o li~ oaft06 D ~ 0 ~ De 2 55E-OL leD4c ~ 09 3 ~ ~ 4E ~il 4otof t09 2 42E ~ 46 le 54f t 44
2. 64E ~ 06 9o 07Etot 3'3E ~ 03 HL'Lo Otl 1
UCLI LC elicfclif I AYE QF EACH YSOYOPE YN ANO 4 vALuE of l. foR xio, OcPLEYco xio ANo RELAYYvf oEPoSYYYON 41/ZS/79 EttVlROtttlEHKAL PAKHttAl DOSE COI(VERSlOtl FAC10RS PAKHttA~ - FRESH fautYS AHO VEGEKAQLES FOR GASEOUS 01SCHARGfS AGE GROUP 1EENAGER HUCL lOE $0ttf ORGAH DOS aaaaaaaaa L1VER THYR010 r1OHEV LUHG E F A C 1 0 R S KS4 NEKER tlkEH/VR PER UC1/Sfcl aaaaaaaaaaaaaaaaaleaa Gl LL1 SKEH 101AL SDOY t>>a aal Caaal4 F -32 CR El tlHease FE 59 CO -57 CO-- 4 CO 60 H1 -63 lH--65 f9 -W6 Syaa09 P--90 lR -95 ttd 95 OU 10) K U-1D6 AG11OH CD115>>t 0 ~ 14E>>Dte 6ellE>>00 4 ~ 2 ~ 39E ~ Dl 0 ~ 0 ~ 0 ~ 9 ~ stf. F 00 le 35f >>47 0 ~ 616>>09 7 ~ 61E>>10 le 15E>>06 Zo 156 ~ 05 K.ltf>>D~ letlE>>D& Zed(f>>07 1 ~ Kff~ 0& 0 ~ 2.09E>>02 Zel ~ f>> ~ & betlf>>07 le 3.20E>>07 5.67 f>>ll lettf>>06 6 ~llft06 2.41E>>ll 6,61E>> Dl le06f>>04 ~.52E>>07 I~I~ 0 ~I 19E>>0>> 2 24sf>>Dte 0 ~ 0 ~ 1 ~ 036 AD& 1 l4f ~ Ol 2 ~ 49E ~ Ot tellftlt>> ~ el.S&fF 03 le ~ e ~ ele ~ ~ 0 ~le ~ e 4 ~ ~ e 0 ~ 4 ~ 0 ~ 0 ~ 0 ~I ~I ~ to&if>>02 1 '4f>>0% le 2 ~79f >>03 9 ~ SZE ~ 06 ~ e le ~ e ~ olelelZE>>ll I~ ~ ele le Se010 >>DO 1 ~ l6E tlat 3 llE>>06 3elSE ~Il ZeltE>>46 le90E >>06 Ze09gtOZ Zellf>>0% le ~ 1 ~ 60E >>0>>o I~ 1 ~ 57E>>07 ~ e ~ e ~ eI~ le ~ eleZ.elf >>40 ~ e ~ e 4 ~ lelole D ~ Z ~ 09E>>lt 2.10E>>IW 7 o66E tll 3ellf>>46 9ellf>>ll 1ellftll 3el9E t4l Ie ltE ~ll 2 Alf>>00 1 ~ 30E ~ 07 I~ llEt47 1 ~ EOE ~ 07 to ~lf~ ~I 2 31E>>09 a-&if~ 00 le9tf>>ll Se lt>>f>>ll 9 ~llf ~ Ol lotlE>>09 &~ 19E >>ll tootlf ~ Ol I~ 0 ~I ~I ~I ~ ~ e ~ e ~ e ~ ~I ~ ~ ~ ~ eI ~I ~ ~ ~leleI ~ ~ eI ~I~ Ze09E>>lt Ze 10E>>DW 2'>> E>>07 1 ~ 27E>>DKI 6e llft 46 te16E>>07 te ~ZE>>06 1 ~ 3lE>> ~ 7 I'4E>>07 3e19f t Ol 4 ~ ~Zftll F 3'7E>>07 7 ~ telf ~ll 1 ~ 44E>>ll 3 ~ 06f.t I& 5 ~6lf>>OE 1 ~ Z&f>> ~ te 5.66E F 05 3 ~ svf ~ l6 6 ~ 1DE>>45
3. ZDE>>05 A Ui OF 1 ~
FOR tt/4 ~ OEPLETEO tt/0 AttO RELA11VE OEPOS1110tt ~ASib 0>t 1 UCl/SEC RLLEASE RAKE OF EACH 1S010PE 1H AHD A VALUi OF 1 ~ =lsVls.i'Ht:cttllL FAltsssar OJSi COtiVEHSlOH,FAClOkS "A tliiar F'";ti FRUllS AHC viGcfaaiiS FOR GAScOU. GlSCtiA(.GiS AGE Gs'CUP llcUAGER t'UCLsui 0 F G A tl 0 O S = F A C l 0 R S, ISO ~Nilfrs HFEH/rk Pft'cl/SECl 90!if L1VEt'HTRClD KlDHEV LUHG Gl-LL1 SKlh lOlAL SOOT 'si-t? 5 SH-l so est =n-5 5 1 1 5 25't lc 527it lc 12 in J--1 lu 5--l 55 l -532 I--155 1--) 54 1--155 C 5.154 CS-l 5S CS-l lr I A-1 ail C Ci -1 i4 fa-ts5 t'O-147
s. 2%c-OS be25c
~ 44 le 65f ~ s57
l. 7 5E ~ 07 2 '3E ~ 07 e.isct47 4 ~ 46'7 2 '4ct05 6 ~ 44itu7 5 ~ c5E ~ 41 1 ~ 94it06 o.75i-05
).E5fo04 5 '9E ~ 40 2o54i ~ 47 7 ~ ii3it04 9e 5stf ~ 07 6 ~ 52i ~ 04 5 ~ Olft46 5 17i ~ 4is 2e24E ~ 44 1.5 5E-V7 1 ~ 24it47 3 ~ 52ct05 5.97ct35 7e99E ~ 06 1 ~ 55ct07 3.14E F 07 7'4Et05 9'6c ~ 47 9'7ft01 3 ~ 36E F 46 1 ~ blc 04 7 ~ 44E ~ 44 1.441 ~ 49 ~ 60it47 1 ~ 45E t 49 5 ~ 25it45 4 ~ 24it Ols 2 ~ 06E ~ 46 1.24E ~ 44 2o26ct04 1 ~22i 47 3oe4E F 06 3 '9E ~ 44 5.44i ~ 45 os 30c ~ 46 1 ~ 10c t47 2 'lce47 9'2ct ~ 7 2'9E ~ 10 1 ~ 29i>44 6 ~ 10c ~ 4 ~ 2 '4c-42 9 ~ 15E ~ Oo 4 ~ 4o 4 ~ 0 ~ 0 ~ 0 ~ 4 ~ 4 ~ 4 ~ 0 ~ 0 ~ 3'4c t06 6'6E <07 5 ~ OOE<04 2'5c ~ 00 le 19i t 06 5 ~ 25ft00 5 ~ 56ft02 4'3ft46 2o92fe44 5 ~llft05 3'5itO ~ 4 '0ct07 2'2ft0~ 2'4ft04 5 ~47ft04 4 43E ~ 45 7'4Et ~ 3 1 ~ 36E t44 4 ~ 2'3c F 06 loaf>07 1 ~60ft09 Oo Oe ~ o Oo Oo ~ o 0 ~ Oo 5'7E 03 1 ~ 69E<4 ~ 6e56E ~ 06 1 ~ 40ftO ~ 7'3it04 Oo Ilo 0. ~ e 1 ~ 33E-45 5 '5E F 0' '7ft0 ~ 1 ~ 45E<04 6 '4E ~ 07 2'3ftfi4 2 '5it40 6'5Et45 le ~ 3E ~ 07 le ~4ft ~ 1 2.ls4ft06 1 ~ EOE 07 7 '4Et44 1 ~ 61f t07 9 77f t06 1 ~ 45E>07 3e 19E ~ 04 5 ~ 55ft0 ~ 1 ~ 59ft09 5 ~ 39ft ~ 4 5 ~ 06ft00 4 ~ 0 ~ 0 ~ Oo 0 ~ 0 ~ ~ o Oo Il ~ ~ o 0 ~ 0 ~ ~ o Il ~ Oo ~ ~ ~ ~ ~ o ~ ~ 0 ~ 4 ~ 2'4E 17 1 ~ 94it07 6o53f tOS 3.44ft06 2'6ft06 5'5E<06 1 ~ 33f t47 le ~ Of 4 05 5.76E t,07 3 ~ 47f >41 1 ~ 44ft06 6o56f-05
2. 57ft44 6o52E ~ 4'
~ 59f 407 3o70f t ~ 0 6o04fi06 4 ~ 06ft43 2o 67f ~ 05 1 ~ 54Et03 5 ~ 47E ~03 ~ a=; s Ok 1 ui'l/SEC RALEASE sialf OF EACtl 1SDIOPE lN AND A VALUi OF 1 FOR X/Oo DiPLiliD N/O Attrs RELAllVE DEPOSlllON APPEHDTX D Technical Bases for A ff eff Overview The evaluation of doses due to releases of radioactive material to the atmosphere can be simplified by the use of'ffective dose transfer factors instead of using dose factors which are radionuclide specific These effective factors~ which are based on the typical radionuclide distribution in the releases> can be applied to the total radioactivity released to approximate the dose in the environment> ie> instead of having to sum the isotopic distribution multiplied by the isotope specific dose factor only a single multiplication (A times the total quantity of radioactive material released) would be needed. This approach provides a reasonable estimate of the actual dose while. eliminating the need for a detailed calculational technique Determination of A ff The effective dose transfer factor is based on past operating data. The radioactive effluent distribution for the past years can be used'o derive a single effective factor by the following equation. Aff Ai'i i where A f< ~ the effective dose transfer factor eff A ~ the dose transfer factor for radionuclide i . f ~ the fractional abundance of radionuclide i in the radioactive effluents This equation yields a single dose factor> weighted by the typical radionuclide distribution. 0 To determine the appropriate effective factox to be used and to evaluate the degree of variability~ the atmospheric radioactive effluents for the past-3 years have been evaluated. An effective dose transfer factor has been detexmined for the gaseous effluents for all pathways of interest. Tables D-1 and D-2 present the results of this evaluation. For the radioiodines and particulates with half-lives greater than 8 days, the effective dose transfer factor is based solely on the radioiodines (I-131> 133> and 13S). This approach was selected because the radioiodines contribute essentially all of the dose to the infant's thyroid via the cow-milk pathway. The infant's thyroid and the cow-milk pathway are the critical organ and controlling pathway> respectively, for the releases of radioiodine and particulates. All othex'articuLates contribute less than LX of the dose. The effective dose txansfer factox is determined by applying equation D-1 to the radioiodines. However, indetermining the dose> this effective dose transfer factor should be applied to the total release of all radioiodines and to particulates with half Lives greater than 8 days. .This uniform application is conservative in pxoviding reasonable assuxance that the actual dose will not be underestimated by the use of this simpLified method. The determination of A was limited to the past three years eff ( 1978> 1979> and 1980) because of the changes that have occurx'ed in the waste processing system. A demineralizer system replaced the previously used evaporator in the Liquid waste processing system. As can be seen from Tables D-1 and D-2> the effective dose transfer factor varies little from yeax to year. The maximum observed variability from the avexage value is 13K for the noble gases and 25K for the radioiodines This variability is minor considering other areas. of uncertainty and conservatism inherent in the environmentaL dose calculational models. To provide an additional degree of conservatism> a factor of 0 ~ 8 is introduced into the dose calculational process vhen the effective dose. transfer fa'ctor is used. This added conservatism provides additional assurance that the evaluation of doses by the use of a single effective factor vi11 not significantly underestimate any actual doses in the "environment. Table D-l Effective Dose Transfer Factors Noble Gases Air Dose 1978 1.979 1980 Average eff mrad i. sec/m 3 1.3 x 10 1.3 x 1.0 16x10 1.4 x 10 A8eff mrad i. sec/m 3 34x10 3.4 x 10 3.4'x 1.0 34x10 4, Table D-2 Effective Dose Transfer Factor for Air-Grass-CowWilk-Infant-Th roid Pathwa Radionuclide Annual Fraction Airborne Release (Ci) Dose a Factor mrem/ ~i/(m . sec) 2 Weighted Dose Factor mrem/ i/(m . sec) 2 I-131 I-133 I-135
0. 381 0 129
0. 044 Year 1978-0.688 0 233 0 079 9.9E11 1 3E10 S.2E6'.9E11 I-131 I-133 I-13S Year 1979 0.0188 0 520 0 0156 0 432 0 0018 0.048 9.9E11 1.3E10 5.2E6 5 2Ell I-131 I-133 I-135
0. 0518
0. 0124 0 0043 Year 1980 0 756
0. 181
0. 063 9'Ell
1. 3E10 S ~ 2E6 b
avg
7. SE11
6. SEll a air-grass-cow-milk-infant-thyroid dose transfer factor b Effective dose commitment transfer factor is the average of weighted dose transfer factor over three years.
APPBNOIX E RhDIOLOGIChL ENVlRONMEÃfhLSURVHlUANCE TURKEY POINT PLhNT Key to Sample Loc'runs It is the policy of Florida Power and Light Company (FPL) that the Turkey Point 3 and 0 and St. Lucie l and 2 Radiological Environmental Monitoring R'ograms are conducted by the State of Florida Department of Health and Rehabilitative Services (OHRS), pursuant to an Agreement between FPL and OHRS and; that coordination of the Radiological Environmental Monitoring Programs with DHRS and compliance with the Radiological Environmental Monitoring Program Technical Specifications are the responsibility of the 'uclear Enenp'ervices Department 0 RAOIOLOG IC AL ENVIRONHENTAL SURVEILLAN'E TURKEY POINT PLANT Key to Sample Locations Pathway Location Description amp e Col lection Approximate . Direction Samples Col lected Frequency Oi stance (miles) Sector DIRECT RADIATION N-1 Convoy Point TLO quarterly 'N 0 IRECT RAD IATION N-5 North of Hoody Dr. TLO quarterly DIRECT RAD IATION N-10 Old Cutler Rd. at S.Q. 87th Ave. TLD quarterly 12 DIRECT RADIATION NNW-1 Turkey Point Entrance Road TLD quarterly NNW 0 IRECT RADIATION NNW-10 Burr Rd. at Hainlin Hill Or. TLD quarterly NNQ 0 IRECT RAD IATION NW/WNW-I Turkey Point Entrance Road TLD quarterly DIRECT RADIATION NW-5 Dolan's Fana on King 's Highway TLD ~ quarterly D IRECT RAO IATION NW-10 Intersection of Fans Life Rd. and Coconut Palm Dr. TLO quarterly OXM RADIOLOGICAL ENVIRONMENTAL SURVEILLAN:E TURKEY POINT PLANT Key to Sample Locations Path~ay Location Description Sample Col lection Approximate Direction Samples Collected Frequency Distance (miles) Sector DIRECT RADIATION M/MNM-5 Palm Drive at Tallahassee Rd. TLO quarterly D IRECT RAD IATION MNW-10 Homestead near vehicle inspection station TLD quarterly MNW DIRECT RAD IATION On site near cooling tower TLD quarterly D IRECT RAD IATION M-10 Florida City near fire tower quarterly lu D IRECT RAD IATION MSM-10 Old Hawk missile site south of Florida City TLD quarterly MSM DIRECT RADIATION SW/SSM-1 On site near land util izai ton offices TLO quarterly D IRECT RAD IATION SM-10 U.S. 1 south of Fl orida C i ty TLO quarter ly DIRECT BAD IATION SSM/SM-5 On site, southeast corner of cooling canals TLO quarterly SSM ~ RAO IOL'OG ICAL ENVIRONHENTAL SURVE ILLAtCE TURKEY POINT PLANT Key to Sample Locations Pathway Location Description amp e Col lection Approximate 'irection Samples Collected Frequency Distance (miles) Sector D IRECT RAO IATION SSM-10 At Card Sound Bridge TLO quarterly 10 SSM DIRECT RAD IATION S-5 Onsite, south end of cooling canals TLO quarterly D IRECT RAD IATION S-10 Card Sound Rd. at Steamboat Creek TLO I)uarterly 10 D IRECT RAOI ATION SSE/S-I .Turtle Point TLO Quarter ly SSE DIRECT RADIATION SSE-10 Ocean Reef TLD quarterly SSE AIRBORNE T51 Homestead Bayfront Park Radioiodine and particulates Meekly AIRBORNE T57 Tree Nursery 316th Street Radi oiodi ne and particulates Meekly AIRBORNE T58 Turkey Point Entrance Rd. Radi oiodi ne and particulates Meekly ~ ox~ RADIOLOG ICAL ENVIRONHENT'AL SURVEILLACE TURKEY POINT PLANT Key to Sample Locations Pathway Location Description amp e Col lection Approximate Direction Sampl es Col lected Frequency Distance (mi1 es) Sector AIRBORNE T64* Natoma Substation Radioiodine and particulates Weekly 22 NNE AIRBORNE T72 Turkey Point Boy Scout Camp Radioiodine and particulates Weekly WSM WATERBORNE T42 Biscayne,Bay, at Turkey Point Surface water Honthly Sediment fraa Semi-shore line annually ONE WATERBORNE T67* Bi scayne
Bay, vicinity of Cutler Plant, north to Hatheson Haauaock Park Sediment frau shoreline Saai-annually Sur face water Honthly 13-18 Ns NNE WATERBORNE T81 Card Sound, near mouth of old di scharge canal Surface water Honthly Sediment frau Semi-shoreline annually
~ Denotes control sample. 4 XN RADIOLOGICAL ENVIRONHENTAL SURVEILLANCE TuRKEY POINT PLANT Key to Sample Locations Pathway Location Description Samp e Collection Samples Collected Frequency Approximate Direction Distance (miles) Sector FOOD PRODXTS T67* Biscayne Bay, vicinity of Cutler Plant north to Hatheson Hammock Park Crustacea Fish Semi-annually Semi-annually 13-18 N, NNE FOOD PRODXTS TBI Card Sound, vicinity of Turkey Point Facility Crustacea Fish Seni-annually Sani-annually FOOD PRODlKTS T40 South of Palm Or. on SM 117th St. extension Broad leaf vegetation Honthly FOOD PRODXTS T41 Palm Or. Nest of old missile site near the site boundary Broad leaf vegetation Monthly l4NM FOOD PRODlKTS T67 Near Biscayne Bay, vicinity of Cutler Plant north to Natheson Hammock Park Broad leaf vegetation monthly 13-18 N, NNE
  • Denotes Control Sample.
REV.1: 12/19/84 4 ~ ~ O P 1 ~ C O ef P t ~ ~ If ~ I T ll-V/ ~: '+++ A.. I hh7.",'~ T I ~ +w 1,' I ~ hP I ~ I I ~l>>pa ~P af I D ~ lapp P P i 1 ~,, pP ~ ~ e ~ ~P lt ~pp pat a V O P ~ I~ ~ f' ~ 5ga ~ a~lb III ~ V ~ Sa I-,+.+-.~-.+ p+ ~i ='( +I I.-'=+ -,', ~'+ Y ~" ~ I P > ~ (p I ~ (:,l ,vagV ~ W f.+ I ~ ~ ~ +.'+ ++-+ Pa+mT-I ~ pa P Pt ~ ~ I av ~trl I I I ~ ~ II ~ ~I I Dp ~ ~ ~ ~ ~ I ~ ( 11 aft ~ ~ ~I ~ ~ ~ ~ ~ ~ ~ g A' ~ ~ ~ ~ ~ ~vaar ~ O ~ I I >>hla e Alla~ g(cI a "P, r~~ a I A II T-64 CI N"- J pap pllp ~ I ~I CI g; . AP.PI' .I+() 'p(efp aa,; ~ I + ~ a a Lt pall Pl L' ~ ~ a '/ OCIICAJL LtOtttO i P ~P ~I ( ~ I ~a ~ P>>>> ~I a lait ~% ~I Qga r(e af S A ~ I ~I (7 A ~ I ~ I ~ l NW-10: P = WNW-10 P ~{ e 'P ~ I P at ~ rr ~ PL ~ Th ~ PW /P I NNM-10 l ~ ~ I N-5 N-10 I ~ a I h ' P r ~ I / f. ~ Zl lr 4O,~p ap ~I p pppl P I t,a P P ~ ~ veI'a PV ~ ~P a I t-v pap p ~ (A (PA {a I I ~ I. I ~ ~ ~ I ~ iI I ~ ~ \\ ~ I AC IAI v eap a WSH-10 'l. I' j: 1 ~ '-l', lap - SW-10 Sl I ~ I ~ '1
r~i
~ I. ~h I"'1 g CO SSE-10 ~0 12/19/84 S i-:: XI >>I '1 ~ ~ aa GENERAL HIGHWAY ~IA. DADE COUNTY FLOR1DA ~ p aa ~lett ev(clap>> Alta(c paapa atthv>>>> aaa CTAIC Of fIOPeOA OtrAATIICPTOf TPAPSPCPITATICAI IIXOCPAATHCIITOf TAAPSPOATATIOP ~DIAIIp>>pal a>>>>e a a I>>
5 Ql
/I I Ml r r / r~ F 0 Table 3-1 Atmospheric Gaseous Release Points at the Turks Point Units 3 and 4 Effluent Source Gas decay 'tanks Radwaste Building Auxiliary Building Containment Purge No. 4 spent fuel pit No. 3 spent fuel pit Air ejectors Steam generator blowdown Release Point Plant vent Plant vent Plant vent Pl'ant vent Plant vent Spent fuel pit vent Turbine deck Blowdown vent Table 3-2 Distribution of Radioactive Noble Cases in Csseous Effluent fram Turke Point Units 3 Ea 4 Nuclide Ar-41 Kr-83m Kr-85m Kr 8S Kr-87 Kt-88 Xe-131m Xe 133m Xe-133 Xe-135m Xe-13'e-137 Xe-138 Release fractionayb 9 ~ 2E 3 2 5E 4 2.5E-4 1 ~ 6E-4 2 IE-4 4,4E-4 1 ~ 2E-3 Oi99 8 OEM
3. 4E-3
3. 7E-4 Based on measured discharge from Turkey Point Units 3 6 4 during 1978 thru 1980.
b To estimate radionuclide concentrations in a sample in which only the total activity concentration has been measured> multiply the total activity concentration by the fraction of respective radionuclides listed here. Table 3-3 Transfer paceors for Maximum Offsite hfr Dose Radionuclide Air Dose Transfer Factors Kr-83'Cr-85m . Kz-85 ~ Kr-87 Kr-88 Kr-89 Kr-90 Xe-13 ha .Xe-'133ra Xe-133 Xe>>135m Xe-135 Xe-137 Xe-138 Ar-41 'Yi'onad i sec/m 3 I
6. IZ-7 3.9E<<5 5.4E-7 2.0E-4 4.8E-4 5.5E-4 5; ZE-.4.
4 9E-.6 1 OE-5 1 IE-.5 1 IE-4 6.ZE-5 4.8E-5 2 BE-4 2-9E-4 Ci seel'm . 3 9 IE-6 6.2E;5 6.2E-5 3.3E-4 9 3E-5 3.4E-C 2.5E-4 3 5E-5 4.7E-5 3E 5 2 3E-5 7 SE-5 ' OE-4 1.5E-4 IOE4 Ref: Reyxlaeory Guide 1.109~ Revision 1> Table B'-I 4 Table 3W Transfer Factors for Maximum Dose to a Person Offsite due to Radioactive Noble Gases Radionuclide Dose Transfer Factors Kr-83m Kr-85m Kr-85 Kr-87 Kr-88 Kr-89 Kr-90 Xe-131m Xe-133m Xe-133 Xe-135m Xe-135 Xe>>137 Xe-138 Ar-41 Yi UKLem Ci seclm 3 2.4E-9 3.7E-5 5 1E-7 1 9E>>4 4.7E-4 53E4 4.9E-4 2 9E 6 8 OE-6 9 3E-6 9.9E-5 5 7E-5 4 5E-5
2. SE-4 2 GEM i sec/m 3 4.6E-5 4 2E-5 3 1E-4
'7., 5E<<$ 3 2E-4 ~2 3E-4 1+5K-5 3 1E-5 9.7E-6 23E5 5 98-5 3.9E-4 1 3E-4 8 5E-5 Ref: Regulatory Guide 1 109> Revision 1> Table B-l. Table 3-5 Dose Conversion Factors for Der ivinf Radioactive Hoble Gas Effluent Monitor Setroints Radi onucl ide Factor DF. for Ground-level or Svlit-Qake Release area Kr83a Kr85a Kr85 Kr87 Kr88 KF89 Kr90 Xei31a , Xei33a Xei33 Xei35a Xa135 Xei37 Xai38 Xei39 4rhl a3 7+56 E-2 I 1o17 K3 le61 El 5'0 K3 loh7 Kh le66 Kh 1 ~ 56 Eh 9o15 El 2e51 E2 2o9h K2 3+12 E3 lo81 K3 loh2 K3 So83 K3 5e02 E3 SoSh K3 Table 3-6 RE&MBtCE METEOROLOGY ANNIIAr,AlIERAGE ~osPHERIC DISPERSION FACT0RS X/Q are annual averased factors of atmospheric dispersion of a mixed made gaseous release from the Turkey Point Plane. Period of record: 01./01/76 to 12/31/77 AFTO DESIGNS sEcT orsT HZ NNE Oe NE 0 ~ ENE 0. E Or KSE'e SE Qe SSE Oo S Oe SSM 0 SW 0 WSW W 0 ~ WNM oe NW Or NNM Ge N Oe ~ 7.5 ~4Q e.9K-o? 6<<9K 07 8<<4K 07 8<<&K-07 6<<6E-07 1 &K 06 4.9K-ob 2-9E-06 6<<SK-O? '1 ~ SK 06 2'K 06 6 ~ 3K 06' 'K 06 Z ~ TK-06 l<<4K-06 9<<SE-07 SASK 0!STA>>CE rN Hrl KS f KIL.OHETERS r o?S l <<SO 2 ~ 50 3 50 4<<50 1 Zl 2 41 02 So&3 7<<Z4 1 ~ 98 07 8 ~ 3K-08 l<<5K-07 6<<3K-08 i<<4K 07 ?<<SE 08 1 ~ 9K-07 9<<lK-08 1 SK 07 7'K 08 7'K"07 1 ~ lK 0? 9<<2K OT 3<<&K 07 4<<&E-0? l<<BE-07 I ~ &K 07 6<<5K<8 3.2K-O? 1.4K-O? 6 3K-07 2 3K 07 1'tE 06 SIZE-07 8'K 07 3 4K 07 5<<OK-07 2<<4&07 2.9K-OY 1.ZE-O7 2'E-07 8<<SK 08 S<<OK 08 3<< 8K~00 3'K 06 S<<1K 08 4<<SK-08 6<<1K 08 l<<8E-07 OE-07 4<<&E 08 7'c 08 1 ~K>>OY 2 ~ &K 07 1 ~ YK-07 1 ~ 2E 07 5 ~ eE 08 ASK-08 3<< OEM8 Ze SE-08 Z.GE-08 3.&E-08 7<<9E-08 4 2E 08 lolK-07 QE pg 2<< 4K~OS 4'K-08 7<<&K-08 1.?K-O7 1 FAZE-0? 7 &E-08 4<<SK-08 3<<ZE 08 Z.ZE-ca 2<<1E 08 2<<3E 08 2.?E-os 2<<3E-"'08 3<< OE>>08 '9 ~ OE 08 S 4E-08 Zo &K-08 3<<ZE-OS 5e 5"-O8 4 <<2K~0? SelE Q8 5.1E-os 3 qK-08 2 ZE-08 eAsE orsTANcE r>> k{rLKs r ~ILok{KTKas S<<50 8<<85 1 9KMS 1.3K-O8 loSE-08 Z<<ZE 08 l<<5E-08 2 5E-08 7<<1E-08 4<<6K~08 l<<8E 08 2<<YK-08 4 ZE-08 9'E p8 6.3E-ps 4'E 08 Zeir -08 le?E 08 7 00 11.26 l<<4E g5 1<<QK 08 le3E-08 1 ~ 7K-08 1 Z~-'Ge 2 ~ 1E 08 4 9E-08 3 'E-.OS lo4E~OS 1 ~ 9K 08 3 1E 6 4ocE OS 3 ZE-Or. 1<<SE PO 1 <<3K~0,~ I 11.00 17<<70 NNK NF. KNK K SE SSE S SS'A SW @Std lg Okapi NM N>AI N 0. Oe 0 ~ 0 0 0 ~ C ~ 0 ~ G. n<< 0<< 0 ~ 0 ~ 0<< 0<<a. 9<<SK 09 6<<6K'9 7 <<3K 09 5<<4K~09 1 lEO87 ~4K09 '1 3E-08 9'K-09 lo)K-08 9<<5K 09 ASK-08 l<<3E-08 3<<SE-08 2'E-08 2<<3K-08'.SE-OS 9<<4K-O9 7'E 09 1.4K-OO 1.OE-O& 2<<ZE-OS USE"08 4<<SK-OS ASK-08 2 'K-OG 2 ~ K-OS 2.OE-O8 1.5E-O8 1.OK-O8 8.3r-o9 1 Oc 08 pc 09 AFTO DESIGN SECT OLST 9<<OO ~I 14;48 ~ ?9 l<<27 1 ~ 8E 07 1 SK 07 i<<4K OY le7E 07 1.4K-07 2<<7E-.07 8-YK-07 4.2E-07 1.5E-07 3<<OE OY S<<9K OY ) ~ ZK-06 S<<&K~0? 2'K OY 1 'K-OY 5<<00 e.o4 Zo OK-08 I <<&K-OS Z.OK-oe 2<<4K'8 2 ~ OK~08 Z<<7K-08 7<<5F 08 S.OK-G8 2 'r-GS 7'K 06 4<<GK-GR 1.0K-o7 Y ~ IK-OG Yr 08 2<<&K 08 2'E 08 1 ~ 00 1061 1.4K-O7 1 ~ lE-07 l<<OK-07 1.3f-o?
1. 2"=-0?
1 ~ 9K-07 6 3K-0? 3<<IK-07 1 'K"OY 2 3<i~07 4 ~3K' 9'K-07 5 9K-07 4<<JK 07 2 ~ OK 0? 1 SE-07 2<<00 3<<22 &-ZE-08 4<<uK-p& 5 ZE-08 6.3K-O8 5<<?E-03 Y.GE-OA 7 ~SK'? 1 3K-07 5<<4E-08 3C-07 1<<?K-07 2.3E-o7 1 ~ 6K-07 9.1K-QS 5 9K-08 2 ~ ?5 4<<42 4 4E-08 3 ~ SE-08 3.&K-pa 4 &K-08 4 ~ OK'-0 s 5<<SE 09 1.&E-o7 9 SK 08 3.8E-c8 6.9K-08 lo<<OE-07 2 3E07 1.GE-OY Or-0 7 boLE-08 4 ~ OE 08 4<<30 92 2 'K-Oe 2 ~ '-08 2'4 GQ 7 'E-08 2'E OG 3 ~ 1K 08 9 4r ming 5.eK-O8 2<<S; -08 Ge 5.&E-OS 1 3K<<0? Z 3" -08 NOH'+ OF >>Uk{&Co Or Nvk.AK> GF NL.P R OF V LID OSSERVATIONS I'<V<LiO CG~KRVATIOUS CAL {S LC.ocP LcVKL C-'LHS VeoKA Lr')KL ~ 16538 1006 155 383 Table 3-7 REMtENCE HETEOROGKY DEPOSITION DEPLETED ANNUAI AVERhGE AMOSPHERIC DISPERSXOM FACTORS X sec 3 J g /g are annuaL averaged factors of atmospheric dispersion of & m~ mode release fro)m the Turkey Point Plant which have been corrected fox depletion from the plume by fallout and deposition. Period of Record: QL/01/76 to 12/3L/77 kFTO SKiT OKSIGN 0IST Ht BASK OISTANCK IN i4lILES / Kll.OHETERS e25 ~ 75 lo50 2oSO 3o50 4oSO ~40 lozl Zo4'l '4' 02 5o63 To24 SeSO So85 'Te OO LLoZ6 NNK t4K ENE E ESK sK ssK S SSM SH ASM QNQ NM NN'e! Oo ~ 0 ~ 0 ~ Oe Oe Oo Qo 0 ~. 0 ~ 6 ~ 0 ~ Oe 0 ~ Oo 0 ~ 0 ~ So7K 07 6e9E 07 8eOK-07 &oGK-07 6 '1K 07 leSE-06 4o?E-06 2 BE 06 '5elE-07 lo3E 66 Zo?E-66 ,'5o9K 05 3 BE-66 2oS"-06 1 o4c. 06 Ge BK-07 1 ~ 7K 07 1 4K>>07 loZK 07 1 ~ ?K-07 1 ~ ~~-'07 2'K 07 8'E-07 4 ZK 07 1 ~ (oE-Or Ze&K"07 So6E-Or 1 2E 46 ? ~ ?K-07 5 4E-07
7. ~ AE-4?
1 ~ 9E 07 7o3K 08 SoSE.08 6eSK 08 7o6K 08 6o9~-08 ASK Oh 3 IE-07 loSK 07 So5E 08 1.3E-o? 2o1K-0? 4e4K 07 2'E-07 2olc 07 lo1C-07 ?oRE 08 4o4K 08 3o3K 08 3o4E 08 4e4K-08 3o Fi-08 5 ZK 08 1 ~ SE 07 BISE-08 3'E 08 6 'c,>>08 1 'K-07 2 ~ ZK-07 1 SE-07 1 ~ 1K 07 6oQE>>08 3o9E-08 2oVK 08 ZoZK-08 2 o4K-OS 3 1K-08 2 'SK-08 3o4K 08 9 ZE"08 5 4F 08 2 OE-08 4o?E 08 6e4E 0& 1 ~ 4E-07 9'K 08 ~ BK-OB 4 ~ OE-08 Z.BE'>>a8 1e9K 08 1 ~ 7K OS ZeOE>>08 Ze4&08 2 OK OS 24K08 ?o4K>>08 4.4E-OB 2.2E-O8 2.7E-08 4o 6E-06 9 9E-08 ?oOE 08 4:SK-Oe Zo6E-0$ le 9E-08 1 oCK-08 le?c 08 le6E 08 1 o9K>>08 lo6E-Oe 2 lKOS 5 RK-OS 3e?K 08 1 Sc 08 zo3K-OB 3eSE-08 7o6K-08 So4E 08 3o&K-08 ZoOK G8 loSE-08 I.ZE-QO 8 Gc C9 1 ZE-CS I SE"QQ lolK-08 1'K 08 3oSE 38 2o6h-Ce 1 'K>>08 Zo(tK 08 5.4K-QS 3 6K 68 Z.&E-oa 1 o~E-) 0 le LE OO BASK OISTANCE IN HILKS J l(lIL.OHETERS AfTO SECT OESIGN GIST 9 ~ 00 MI 14 48 11 ~ OO 1?o70 ~ 79 5 ~ Oo le27 Be04 1 ~ OO 1o6j 2oOO 3o22 2o75 4o@'o30 6o92 'NNE 0 ~ NK 0 ~ ENE 4 ~ K 0 ESK Ce SK 0 ~ SSK 0 ~ S Oo SS'M Oo S'8 0 ~ WSM Oe Oo 6 NV 0 ~ NNH Oe N 0 ~ NU(ABER Of NVNeE~ Of NlJYQ 2 Cf NUBBER CF B.SE-o9 6o3E 49 9.OK-O9 lE-CB 8 ~ BK-09 le3K-08 Zo7E-08 1 'E-08 7 9K 09 l,lK-QS lo&K 08 3 'E-03 USE>>OG 1 BE-08 9 ~ 1E 69 Be7E-09 6.OK-O9 1.6E-O7 4oSE 09 1 ~ 3E 07 6'K 09 1 ZE 07 7 9K-09.,1oSK 07 Se3K 09.1e3K 07 l~OK 08 2 4E 07 2 ~ lK-OB 7'o7K-07 lo3c. 08 3oQK 07 A ?~-09 lo4E 07 8 ~ 6E-O9 2 ~ ?E. 07 )o4E>>08 5 ZE-07 USE-OO lolE 66 2'E 09 7'K 07 1 'K-OB SilK-07 6 ~ 9K Q9 2'E 07 6-3E-09 1.&K-O? BE 68 le4E-08 loSE-08 2'E-08 >.a -OS Zo3K-QB 6o4K 08 4 'E-06 1 ~ GE 08 2 4K-o& 4oOK OS 8 6+ 08 lK>>08 7'K 08 1 ~ 7C-08 1G538 1006 195 383 VALI0 CBSE.".VkTIOt4S INVA( IO CHSERvAYIC'-'S Ck) ',15 l.CJ 9 l.EVEL Ckt.HS V&PER t.F.'lEl 1.2E-.O7 9o4E-08 9olE-68 ).ZK-O? ).QE>>07 1 ~ 7E-07 Se6K-07 2 'E-0? 9o6C OB 2 OK-O7 3 SE-07 7 o9K-07 5 ~ ]E-0? 3 ~ 6E>>O? 1.RK-O? 1 o3K>>07 SoSK>>08 4 ZE 08 4o5c 08 SoSE-08 SAUCE-08 ~ 2K 07 1 ~ 1K-07 4o7C 08 LE>>OB lo4K>>07 3 lK-O 2 ~ O~-07 lo4K>>O? 7 7K-08 3e SK-OG 30KOS 3r 1K 08 3 9KQB 3 ~ 4c, 08 4 e7E-QB L ~3c'>>07 7 CE Ou 3 ~ ZE-OR 5 9E>>oo 8.7E-.O& 2 ~ OE 07 1 o4K 07 5 4E GS 3oSK>>OG 2 o 1E-CD ZO-68 Z ~ 4K-68 ZeCC-0& 7o(K-03 4oSC"OB 2.? c 2 'c-OB 4 ~ OE-(;0 7+4f
5. QC-r,2 2 ~ GE>>08 2 ~ QE QS
I 0