DRC-2006-001144 - 0901a0688080569d

FOURTH QUARTER
SEMI.A}[NUAL
RADIONUCLIDE EMISSIONS TEST
CONDUCTED AT
TNTERNATTONAL URANTUM (USA) CORPORATTON
NORTH YELLOW CAKE SCRUBBER
YELLOW CAKE DRYER BAGHOUSE
BLANDING, UTAH
October 17-18,2006
by:
TETCO
90 East Main
Lehi, UT 84043
Phone [phone]
Fax [phone]
Prepared for:
International Uranium (USA) Corporation
64255 Hwy 91
Blanding, Utah 84511
Date of Report:
October 25,2006
CERTIFICATION OF REPORT INTEGRITY
Technical Emissions Testing Company (TETCO) certifies that this report represents the
truth as well as can be derived by ttre methods employed. Every effort was made to obtain
accurate and representative data and to comply with procedures set forth in the Federal Register'
Dean A. Kitchen
Reiewer: ,&za-rz'VfuDut", //-w-
TABLE OF CONTENTS
PAGE
Introduction
TestPurpose ........
Test Location and TYPe of Process
TestDates....I
I
Pollutants Tested and Methods Applied
Test ParticiPants
Deviations From EPA Methods
Quality Assurance
Summary of Results
Emission Results
Process Data .
Description of Collected Samples . '
Discussion of Errors or lregularities
Percent Isokinetics
Source Operation
Process Control Devices Operation
Process RePresentatlveness
Sampling and AnalYsis Procedures
SamplingPort Location . . . .
Sampling Point Location
Sampling Train DescriPtion . . .
Sampling and Analytical Procedures
Quahty Assurance
Appendices
A: Complete Results and Sample Calculations
B: Raw Field Data
C: Laboratory Data and Chain of Custody
D: Raw Production Data
E: Calibration Procedures and Results
F: Related CorresPondence
6
6
7
7
LIST OF TABLES
Measured Radionuclide Emissions ' ' '
Percent Isokinetics
SamplingPointlocation'' ::'''
PAGE
Table
I
II
m
IV
V
J
4
6
C""-ripf"t" Results, North Yellow Cake Scrubber
Complete Results, Yellow Cake Dryer Baghouse
Appendix A
Appendix A
Figure
I
2
aJ
LIST OF FIGURES
Schematic of Method 5lll4 Sampling Train
Facility Schematic Representation Io* Yellow Cake Scrubber
F;.iitty Schematic Representation-Yellow.Cake Dryer Baghouse
Appendix D
Appendix D
Appendix E
INTRODUCTION
Test Purpose
This testwas conducted to determinethe total radionuclide emissions fromtheNorth Yellow
Cake Scrubber and Yellow Cake Dryer Baghouse exhausts in terms of Curies per dry standard cubic
foot (Cildscf).
Test Location and Type of Process
International Uranium (USA) Corporation is located about 5 miles south of Blanding, Utah.
Uranium ore is processed into yellow cake, which is shipped to other facilities for additional
processing. There are two yellow cake dryers with individual scrubbers. Both dryer enclosures
discharge into the Dryer Baghouse. The Packaging enclosure also discharges into the Dryer
Baghouse. The North Yellow Cake dryer was the only operating dryer at the time of the test. The
South Yellow Cake Dryer is currently not operational.
Facility schematics are shown as Figures I and2 in Appendix D.
Test Dates
Two test runs on the North Yellow Cake Scrubber and the first test run on the Yellow Cake
Dryer Baghouse were completed on October 17,2006. A second test run on the baghouse was
completed the following day on October 18fr.
Pollutants Tested and Methods Applied
The tests were a determination of radionuclide emissions in accordance with EPA Method
5/rt4.
Test run filters and front wash residues were sent to Energy Laboratories in Casper Wyoming
for radionuclide analysis.
Test Participants
Test Facility
State Agency
TETCO
Wally Brice
None
Paul R. Kitchen
David Turk
Joseph Kitchen Mike Ransom
Deviations From EPA Methods
None
Ouality Assurance
Testing procedures and sample recovery techniques were according to those outlined in the
Federal Register and the Quality Assurance Handbookfor Air Pollution Measurement Systems.
SUMMARY OF RESULTS
Emission Results
Table I presents the findings ofthe test in Curies per dry standard cubic foot. Tables [VandV
in Appendix A have more detailed information.
Yellow Cake Dryer
Baghouse
AVE
I
2
7.1728+03
Process Data
The process was operated according to standard procedures. All pertinent process data was
available for recording by agency personnel. Scrubber water flow , pressure, and baghouse pressure
drop readings (Ap) were recorded and are found in Appendix D. Production data will be submitted
by International Uranium.
Description of Collected Samples
The filter on the frst test run on the North Yellow Cake Scrubber was covered with a white
colored particulate. The second filter on the scrubber was covered with a yellowish colored
particulate. The front washes were clear in appearance.
The filters for both test runs on the Yellow Cake Dryer Baghouse had no visible particulate
on them. The front washes were clear in appearance.
Discussion of Errors or Irregularities
9.459E+03
4.884E+03
North Yellow Cake Scrubber
23.49r
3s.007
2.2238+06
2.949E+06
None
Percent Isokinetic Sampling
Each ofthe tests were isokinetic within the Ll}yoof 100% criterion specified in the Federal
Register. They also meet the Utah state Deparfinent of Environmental Quality' Division of Air
euahfy specification of isokinetic sampling ioint by point. Isokinetic values for each test run are
presented in Table II-
Yellow Cake Dryer
SOURCE OPERATION
Allprocesscontroldeviceswereoperatednormally'Recordedscrubberwaterflow'pressure
and baghouse Ap readings were recorded and are found in Appendix D'
Process Representativeness
The facility was operated normaily. production data will be submitted by rntemational
Uranium.
l
I
Sampling Port Location
The inside diameter of the North Yellow cake Scrubber stack is l8'0 inches' The two' four-
inch diameter sample port are located 6.3 diameters (9.5 feet) downstream from the last disturbance
and 6.3 diameters (9.5 feet) upstream from the next disturbance' Figure 1 in Appendix D is a
schematic of the stack.
The inside diameter of the Yellow cake Dryer Baghouse stack is 16'0 inches' The two' four-
inch diameter sample ports are located 28.38 diameters (454 inches) downstream from the last
disturbance and 3.56 diameters (57 inches) upstrearrr from the next disturbance. The sample port
locations are depicted in Figure 2 in Appendix D'
Sampling Point Location
Table III shows the distance of each sampling point from the inside wall according to EPA
Method l. Each point is marked and identified with a wrapping of glass tape and numbered' These
;;il are determined by measuring the distance from the inside wall'
Distance (inches) from Inside Wall
0.s8
1.89
3.49
5.81
t2.19
14.51
16.11
APPENDIX
A: Complete Results and Sample Calculations
B: Raw Field Data
C: Laboratory Data and Chain of Custody
D: Raw Production Data
E: Calibration Procedures and Results
F: Related CorresPondence
APPENDIX A
Complete Results
North Yellow Cake Scrubber
Yellow Cake Dryer Baghouse
Nomenclature
Sample Equations
A
Norh Yellowcake
TABLE IV
COMPLETERESULTS, PM
INTERNATTONAL URANILIM CORPORATION (ruC)
NORTH YELLOWCAKE SCRUBBER EXHAUST
Symbol
Date
Filter #
Begin
End
Description Dimensions Run #l
t0/17/2006
4848
8:27
ll:47
24.15
1.551
1.004
r57.917
89.5
0.3368
561.0
r92
0.84
0.3715
1.80
17.80
80.40
t23.547
26.451
0.1060
0.894
29.00
27.83
95.8
. 109.3
1.767
-0.03
24.08
24.078
1.588+03
2.368+03
1.34E+03
2902.2
23.4907
2.223fi+06
Run #2
r0/17/06
4849
l2:14
l5:30
24.15
1.494
1.004
160.779
97.3
0.3086
685. I
r92
0.84
0.3805
2.20
18.20
79.60
124.004
32302
0.1290
0.871
29.08
27.65
r02.9
1r6.2
r.767
-0.03
24.08
24.078
1.40E+03
2.19E+03
1.24E+n3
4341.0
35.0070
2-9498+A6
Date
Time Test Began
Time Test Ended
Pb. Meter Baromefic Pressure
AH orifce Pressure Drop
Y Mctgcatrbration Y Factor
Vm Vohmc Gas Sampled-Met€f, Conditions
T- AvgMelcrTcmp€rahre
JAP Sq Root velocity Head
Wt-" Weight Watcr Colteaed
T, Duration of Test
Ce Pitot Tube Coefficient
Do Nozzte Danreter
COz Vohme % Carton Dioxide
02 Volume%Oxygen
N2 & CO Volme o/o Nitrogen and Carbon Monoxide
Vn\a Volume Gas Samplcd (Stanrlrd)
Vw Volume watcr vapor
Bw. Fraction HrO in Stack Gas
Xd Fraction of Dry Gas
Md Mol€culatwt. Drycas
M. Molcculd Wt. Stack Gas
%l P€rcent Isokinetic
T" AvgStackTemperature
A* $ack Cross Sectional Area
PC StackstaticPressure
Pbo Sample Port Barometsic Pressure
P" Stack Prcssre
Q" Stack Gc Volureric Flow Rate (Std)
Q" Stack Gas Vohmetic Flow Rate (Actual)
V" Velocity of Stack Gas
Curies Radionuclidcs per sample
Cfad ConceotrationofRadionuclides
ERrad Emission Rate of Radionuclides
In. Hg. Abs
In. I{rO
dimensionless
cf
I
Root In. H2O
Grams
Minutes
Dimmsionless
Inches
P€rcflt
Percent
Percent
dscf
scf
Fraction
Fraction
lMbrml
lMbmol
Perc€nt
"F
Sq. Ft.
In. HrO
In. Hg Abs
In. Hg. Ab6
dscfu
cfin
fpm
pci
pCildscf
pCi/ht
AVG
112.8
1.49E+03
2.278+03
1.298+03
29.2488
2.5868+06
Saturated moisture fraction used in all calculations for runs l& 2 as the mea.liur€d moisture was supersaturated
BagtroGs€
TABLEV
COMPLETE RESULTS, PM
TNTERNATIONAL URANruM CORPORATION (ruC)
YELLOW CAKE DRYER BAGHOUSE
DimensionsSymbol
Date
Filter #
Begin
End
Pb.
AH
Y
Vm
T_
r/lp
Wt*c
T,
ce
Dn
Coz
o2
N2&CO
vmoa
Vw
Bw,
xd
Md
M,
%T
Description Run #l
t0/1712006
4809
l6:38
19:46
24.t5
1.983
1.004
172.791
92.1
0.3462
25.7
180
0.84
0.37t5
0.00
20.90
79.t0
134;723
1.2r2
0.009
0.991
28.84
28.74
98.0
94.1
r.396
-0.11
24.08
24.072
1.42E+03
1.86E+03
1.33E+03
15.0
0.11l3
9.4598+03
Run#2
l0/l 8/06
4810
7:40
l0:41
24.45
1.905
1.004
168.757
86.3
0.3390
22.6
180
0.84
0.3715
0.00
20.90
79.10
134.585
1.066
0.008
0.992
28.84
28.75
98.7
87.8
1.396
-0.1I
24.38
24.372
l 40E+03
1.80E+03
1.298+03
7.8
0.0580
4.884E+03
T.
,\
Pc
Pbo
P.
Q"
Q"
v"
Curies
Crad
ERrad
Date
Time Test B€g:an
Time Test Ended
Metcr Barometric hessure
Orifice Prcssne Drop
Meter Calibration Y Factor
Volune Gas Sampled-Meter Conditions
Avg Meter Temperaire
Sq Root Velocity Head
Weight Wat€r Collected
Duration ofTest
Pitot Tube Cocfficient
Nozde DiarEter
Volume % Carton Dioxide
Volune 7o Orygen
Volune 7o Nitsogelr and Cabon Monoxide
Volme Gas Samplcd (Standard)
Volume Water Vapor
Fraction H2O in Stack Gas
Fractior of Dry Gas
Molecular Wt. Dry Gas
Molecular Wt. Stack Gas
Percent Isokinetic
Avg Stack Temperanre
Stack Cross Sectional Arca
Stack Static Pres$re
Sample Port Barometic Pressure
Stack hesstne
Stack Gas Volumeric Flow Rate (Std)
Stack Gc Volllrctic Row Rate (Actual)
Velmity of Stack Gas
Radionuclides per sample
Concentratiol of Radionuclides
Emission Rate of Radionuclides
ln. Hg. Abs
h-H2O
dimensionless
cf
T
Root In. H2O
Grams
Minutes
Dimeosionless
Inches
Percent
Perc€nt
Perccnt
dscf
scf
Fraction
Fraction
lb/lbmol
lb/lbnol
Percent
F
Sq. Ft
In- HrO
In. Hg. Abs
In. Hg Abs
dscfin
cfin
$m
pci
pCi/dscf
pCi/hr
AVG
91.0
l.4lE+03
l.83Er{3
1.318+03
0.0E46
7.1728+03
M5 Nomenclature
Yol: percent isokinetic, percent
As: stack cross-sectional area (ft3)
ASAP: ree {AP
Btu : unit heat value (British thermal unit)
B*r: fraction of water in stack gas
Cs : concentration of particulate matter, back half (grldscf,lb/dscf, etc.)
Cs: corc€ntration of particulate matter, front half (grldscf,lb/dscf, etc.)
C."t"l: concentration of metals (pp-, trdft', etc') atomic symbol replaces "metal"
COz: percent carbon dioxide in the stack gas
Co: pitot tube coefficient (0.84)
- Cx 1uog1: species symbol replaces x '
Cx (.o,,): actual gas concentration corrected to required percent 02
AH: orifice pressure drop (inches H2O)
AHq : orifice Pressure (inches H2O)
AP : 51ask flow pressure differential (inches H2O)
Dr: diameter of the stack (feet)
Do: nozzle diarneter (inches)
EA: percent excess air
ERg : emission rate of back half particulate (lblhr)
ERr: emission rate of front half particulate (lbAr)
E&n-s* : emission rate per mmBtu or ton of fuel etc.
ERx : emission rate of compound which replaces x
k-fact = multiplier of test point AP to determine test point AH
L = length of rectangular stack (inches)
mBtu: thousand Btu
M4: flolecular weight of stack gas, dry basis (lb/lb-mol)
Mp: rnoSS of particulate on filter (mg)
Mrp: mass of particulate matter on filter and probe (mg)
mmBtu: million Btu
Mp: lnaSS of particulate matter in probe (mg)
Mr: molecular weight of stack gas, wet basis (g/gmol)
N2 : percent nitrogen in the stack gas
02 : percent oxygen in the stack gas
{AP = average of the square roots of AP (may also be referred to as ASAP)
Pb-: absolute barometric pressure at the dry gas meter (inihes Hg)
Pbo: absolute barometric pressure at the sample location (inches Hg)
P6 = stack static pressure (inches H2O)
P, : absolute stack pressure (inches Hg)
P,6: absolute pressure at standard conditions (29.92 inches Hg.)
e - time of test (minutes)
Q": stack gas volumetric flow rate (acfm)
Q.: stack gas volumetric flow rate (dscfm)
Qw: wet stack gas std. volumetric flow 1ft3/min, wscfin)
Ts : stack temPerafure (oF)
Tr,6: absolute ternperature at standard conditions (528T')
Tt: see 0
I I M5 Nomeirclature
U un = mean molecular speed (cm/s)
,. Vm = samPle volume (ft1 at meter conditions
,l 'l_ Vm",6 = volume standard (dscf), sample volume adjusted to 68T and29-92 inches Hg.
Vr: velocityof stack gas (fpm)
I ; Vwc= volumewatervapor(scf)at68Tanda9.9?inchesHg.L W = Width of rectangular stack (inches)
, Wqrc = weight ofthe condensed water collected (grams)
It- Xo = fraction of dry gas
Y = meter calibration Y-factor (dimensionless)
I
i1
i
IL
I1jL
L-
L
L
I
Method 5
- 7oI = Vmo6. (T, + 460)' ll3g /(0'Vr'Pr'Xa'Dn2)
A,=(Ds2 /47'n
Bo,. = V* / (Vmrn6 +V*)
Cs: Me ' 0'01543 / Vm'6
Cr: MrP'0'01543 / Vm'6
Cx ("o,)= Cx(uue) . (2O.9 - desired %O2) I (209 - actualYoO2)
D*:2.L.W/(L+W)
Dnd", = {{o.ozoq . (Pb, + 0.0735) / [(T, + 460)' Cp' Xd' {(t, + 460)' M,) / (P,' AP)]}
EA: (o/oO2-0.5%CO) /10.264 7Nz - (%Oz- 0'5 %CO)l
ERs = Cs'Q" 0'00857d ERr: Cr' Q.' 0'00857
E&".s* = ERx / (mmBtu / hr)
K-fact=846.72.Dn4.AH6.Ci.XiiMa'P,'(T.+460)/[Mr'(Ts+460)'(Pb'+AH/13'6)]
M6: CO2 . 0.44 + Oz. 0.32 + N2 '0.28
Mr: (Ma ' XJ + (18 'B,'s)
Pr: Pbo + GG / 13.6)
Qo = V. 'A,
e Q, = Qa. Xd. Ps. T.16 / [(Ts + 460)'P$d]
Qw: Q, / Xa
Vmoa : Vm . Y' Trtd' (Pb. + AH i 13 -6) / [Poa' (T. + 460)]
v, = 85.49 . 60 . Cp . {AP '{ Kr, + 460) / (P, 'M,)l
V*": Wt*"' 0,04715
X6: I - B"u
PreliminaryN Y Cake Scrb
Facility lnternatlq44! Uranium
APPENDIX B
North Yellow Cake Scrubber
Preliminary Velocity Traverse and Sampling Point Location Data
Particulate Field Data
Yellow Cake Dryer Baghouse
Preliminary Velocity Traverse and Sampling Point Location Data
Particulate Field Data
Sfttf ri"tdDatasheet
Plant: lnternational Uranium
Assumed Moisture 4-16%
Probe 2? C.
Nozzle Calibration
cp 0.84
,3'r , Jl_L .37t ,31_?
AvgDn .i7 lLins11e5
cas eag@[
Console 5
v-Yaaorlafi-
^H@!:Z_lt_int2o
Barometric Pressures
va^ 29' /5 inug
pu, 2?.O ff inttc
-.o3
Lcak Checkr Pre Post
a'ninp.1/l! a.Cf 't
vacinHg-/./- / Z
PitotRatc ?' d O.n.2-3lnHrO 'Z5
Fl IWaterCollected J6l g
Total rq4 t-l J lMpza,rz_gET,
Time Sampled /CZ min
Review -TF-
K=/'.2
I lrrrco t I
Fnrcr-fu!fi- Sample Box-[-
Lo"ution, North Yellow Cake D
Operator:
t1q4 f/7 6v>
Pase / of/ Run# I
t
I /\
I\,1V
I
A
Diameter 18" Port Reference :Ul-
are gupstream from next disturbance
are 9.5' Downstream
1
5
Commcnts:,t9lt7
a
t3.7 |
K= l3'Ll6
td
dr0
@T'n
@T^A
lll
5f .,r t1 rirrd Dara sheet
ptanr lnternational Uranium
Datc O +.6c:r 1-r, Za4l .
/cf.774,/ tffie&?r-
I L",ro I I
Fitter -kj! 1' - ii'ion t*0-
Location: North Yellow Cake Dryer Scrubber
--
owtor: /Y7 t la.- R ^ n lott /\-1 I\/\_/
I
tt
Stack Diameter
-![_
Port Reference 0"
are __94_Upstream from next disturbance
arp 9.5' Downstream from last disturbance
I
Run #
Time Samplcd | 7 Z- min
Review I fz-.
''I nL
II
Pogr-..,1 orj
Assumed Moisture 4-16 %
Probc 3{ 6-
"o - o.aa
Nozzle Calibration^;ffi-"Ja -TrJ 3 tro
l*sfiV,3f05n n,
crsYagt'j3
Console 5
Y-Factor / , Ooq
LHg,z.frF inH2O
Barometric Pressures
Yb^ 7q,/9 tnr,
wo ??.df, inwg
pn -,d7 in:Hro
kak Chcck; &9 Post
rf,.in d,O()Carvrcin}lg L I
Pir<l.at. O, O
InHrO , ? S+
watercollected L8S'l
Total
4 Iit$/ L1'1'/
s- |O $tt l. qq{ '
Tnvw
Point
t(5q 3l tL\ "/
^,.,* ,.4+rtt.#'t'r* tt6.z ' "o2"/ i:l:'] T;i;i
ts.c 100
N
Stac* Dia-
Ports are
Ports are
16"Reference: Ott
57"Upstrcam from next disturbance
Downstream from last disturbance
Preliminary Y Cake BH
Comments:
Facility lnternational Uranium
Stack Identification Yellow Cake Dryer Baghouse
Date to I tTJo
Barometric Pressure
Pb- Jel.l5 inHg Pbo 24.o8 inHg
Static hessure (Pc) -, l, in HzO
Estimated Moisture (Bw)IN
Sample Height from Ground 70 feet
Averages:
Tr_ zFlow
aP {aP
Ts lFlow
AP
Traverse
Point
Percent
Diameter
Distance From:Ports
ID Reference A B c D E F
I 4.4 0.70 0.70 .{rt.oq5'
2 14.6 2.3.4 2.34 j I
aJ 29.6 4.74 4.74 .I 15. t,<.i
4 70.4 lt.26 tr.26 k
5 85.4 13.66 13.66 7 4, .tn\o'
6 95.6 15.30 15.30 L 'l
KEY:>
t(
Field Data Sheet
l,erco I t
4ritter-tlXQl SampleBox
Location: Yeflow Cake Dryer Baghouse
operator: Jog K;lchcn
Pagelo( Run# |
Plant:
Date:
International Uranium
lo - l-t -ok
Assumed Moisture 1o/o
Probe / t- q cp 0.84
Nozzle Calibration.bu .5?L .37( .Az-
AugDn.fl5inches
Gas Bag ambient
Console 5
t-t'6st61 l.AO'&l
AHq_UtlLin Hzo
Barometric Pressures
Pb' zcl' It in Hg
Pbo ?-4'ox in:Hs
P" --l\ inHzo
Lcak Check; Pre Post
nlmin .Oo,. .WL
uu",nHg 2D 5
PitorRarc o'ff-) (2'oo
hH2Q 3 ,1-
Water Collected
Time Samplcd
Review
mtn
t?1. 111 "/_el_J519 t 7\.<( ,,. lll-jr r./L?- l0 tr'
Tnwnc
Point
toL
/\o1 )
\/l')P
Diameter 16" Port Reference 0"
Ports are 57" UDstream from next disturbance
are 468' Downstream from lastdisturbance
!
Commcntg:
r ,9,1v2- r 1 .1X3 ,z
ricta pL srr"et I
Plant: Intemational Uranlum
Datc: lD - lQ - nr-
I I .jrcd Jrirter{@ SampteBox_fi_
Location: Yellow Cake Dryer Baghouse
opcrator: Jre K$<_Acl
t
Run# Z
Assumcd Moisture 1o/o
ttProbe I + -q cp 0.84
Nozzle Calibration.37t .372 .3?t .37L
lven" . j75 inches
Cas Bag ambient
Console 5
Y-fu",or.lJf,
AH@ l.5tE in Hzo
Barometric Prossures
pu, Z{.tt f inne
Pb, 2-Ll-3a in:Hs
pa -.\\ inH2o
Lcsk Chect: Pre PgS!ftlmin.Oos , OOt
vrcinHe Z0 5
PitorR*c O.oO O.OO
htzo .L , ?L
Water Collccted 2? . (? g
Time Sampted /,f,D min
Rcview JU-
ttl
Page-Lof_|
Trres
Point
o
ll4&"flL1 'et$?t 2t.* /t?A /
V1.x z
]dlo z
A^t
I/)F
Diameter 16' port Reference 0,
Ports are 57' Upstream fiom next distwbance
Ports are 468" Downstream from last disturbance
L:371o,t.1 lt.t ,K=
K=
@T,
@Tr
pt',t Tn\er***trtJ Vranv'*
Analytical Method---JfRiS,t!!-
ox" pfft/ob
Test No. I
GasBagNo. lV-O3
)ttnbient TemP 7Q
Operator -l?Flt:-
TestNo.
Gas Bag No.
-mbient
TemP
OPerator
Test No.-
Gas Bag No.
\mbient TemP
- OPerator
RUN
Averege
Net
Volume
Gas
2
Actuel
Rcrding
Ncl Actuil
Reeding
Ncl Actual
Reading
Nct
Coz l,g ,.9 I.?t.?,.8 l-g t.e
Dr (Net is Actual 02
Reading Minus Actual
-f)- Readinp)
t1.b fi.6 t?-(s t?.8 , ?.6 17.8 17,9
N2 (Net is 100 Minus
Actual Ot Reading).8o.l fu-Ll ,o .1 80.v
Date to/lr/ae
7
F -osTlPP
RAN
Average
Net
Volune
Gas
I L J
Actuel
Reeding
Nct Actud
Rcrdirg
Nct Actuel
Rceding
Nrl
Coz 2.7 L.L z.z z.L z.?z-z z.z
t8 .L zo./tg -z )(t.zO, (Net is Actual 02
Reading Minus Actual
CO^ Readins).7o..1 t9.Z 7o.7
N2 (Net is 100 Minus
Actual 02 Reading).7?.t'ft.o 7?.a n6
RUN,il.tll3tll Averagc
Net
Yolume
Gos
Actud
Rcrding
Net Acturl
Rceding
Ncl Acturl
Rerding
Nct
Coz
02 (Net is Actual 02
Reading Minus Actual
lO^Readins)-
N2 (Net is 100 Minus
Actual Or Reading).
CO is not measwcd, as it has thc same molecular weight as N2
Llg0 1
7o/n/oo
Initials
PPt'
I
I
Final (gl
lnitial e1
Net 1g1
Final (e)
Initial lgl
Net 1g1
I
I Total(s)22.(t
ml
'Initials
Final (gl
Initial ts)
Net 1s;
itial I
Net .. s Net , '
c+ l'32 g/ml=
Volume of liquid (H1O) in
.FilterNumber:
iiirirrrcTn.$
Filter Number:
:
Final ' . g
fze
Sample Bo.xi
Chain of Custody and Analytical Request Record
PLEASE pRINT; provide as much information as possible. Refer to corresponding notes on reverse side.
I
Page 1 of 1
Gontact Name: Wally BriceVoice: 435-678-2221Fax: [phone]
Email:
Furchase Order #:lnvoice Contact & Phone #:
Same
Notify ELI prior to RUSH sample
submittal for additional charges and
tE
Io
FIoftr
ia*\*eLY" t& t4*Id.#11,} ffi&'f'#il}
E*,'Eao€;
E.=co E 3
iBigq€a"EEi SrS-o.=o<t>l
MATRIX
Comments:
Contant Wally Brice for required
analysis. Each samPle consists of
a glass fiber filter and beaker
residue
Combine filter and beaker results
Sampfe volume 123.547 dsd
Combine filter and beaker results10t17106
Sample volume 124.004 dscf
Combine filter and beaker results
Sample volume 134.723 dscf
Combine filter and beaker results
Sample volume 134.585 dscf
Relinquished by: Date/Time:
Company Name:
International Uranium
Report MailAddress:
6425 South Hwy 91
Blanding, UT 84511
lnvoice Address:
Same
Report Required For:POTWAAAA/TP
Other
-
Special Report FormFELl must be notified prior to
sample submiftal for the following:
NELAC n A2LA ! LevellV f]
Other _
EDD/EDT fI Format
SAMPLE IDENTIFICATION
(Name, Location, Interval, etc)
' 4848 Filter
2 q848 Beaker
t 4B+9 Fitter
o 48+9 Beakert +809 Fitter
" 4809 Beaker
' 4810 Filteru +810 Beaker
Custody
Record MUST
be Signed
Project Name, PWS#, Permit #, Etc.
Sampler Name if other than Contact:
PaulRKitchen/TETCO
801-768-0973
ELI Quote #:
Receipt Temp
_oc
Cooler lD(s)
Custody SealY N
lntact YN
Signature Y N
Match
LAB ID
Received by:
Dateffime:
Dateffime:
LABORATORY ONLY
# of fractions
h c!d'h cirmr.lc.s, smprer luhnhEd ro EFry Llbor.tdic!, r,* rv t. *t*"tu[ffillf;;iot* * '-"i! Fqu6r'( 'IhB s"v's s nori@ of rhk D6!itiritv arr 3ub'conrrt 'ld!
Page I ofl
- Dean Kitchen
From: Kerri Schroeder [kschroeder@energylab'com]
- Sent MondaY, November 27'20CF.1:08 PM
To: tetco-ut@qwest'net
- Subiect: Filters combined with beakers
-Kprri Scfiroefer
Technical RePorter
EnergY Laboratories, Inc'
-2393-Salt Creek HwY (82601)
PO Box 3258
CasPer WY 82601
-l-888-235-0515
(307)-23s-0sls
"-*"it kschroeder@energylab'com
-Visit our Web rag;at Utti:tiwurw'energytab'corr/
This transmission is GONFIDENTIAL. If you have received this in error, please contact ENERGY LABORATORIES'
-INC. immediatelY.
ENERGY IABORATORIES,"VC' ' 2393 SaltCrcek Highway (82601)* POBox3258 ' CasPer,Vhf
82602
Client:
Proiect:
Lab lD:
ClientSamPle lD:
LABORATORY ANALYTIGAL REPORT
lntemational Uranium (USA) GorP
Not lndicated
c06101356-001
4848 Filter Combined Wih 4848 Beaker
RePort Date: 11127106
Collection Date: 10/17106
DateReceived: 10/30/06
Matrlx: Filter
Result Unlts Quallfier RL
ilcu
OCL Method Analysb Date, BY
Analyses
MDIONUCLIDES .TOTAL
Lead 210
Radium 226
Thorium 230
Thorium 230 Precision (t)
Uranium, Activi$
ND Pci/FilterND PCi/Filter
1.5 PCi/Filter
O.7 PCi/Filter
2900 PCi/Filter
1.0
0.2
0.2
0.2
NERHL65-4
E903.0
E907.0
E907.0
sw602o
11/06/06 12tr,0 t il
11/10/06 16:47 I ctt
1'tt15lc6 15:00 / df
1 1/15/06 1500 / df
1110UCF 21:15 /hrs
Report
Delinltions:
RL - AnaMe rePorthg limil
QCL - QualitY control limit.
MCL - Ma<imum contaninant let'd'
ND - Nct detected at the reporiing limit'
ENERGY LABORAIOR ES, [VC. * 2393 SaftCteek Highway (82601)
82602
' POBox328 * @sPer,W
LABORATORY ANALYTICAL REPORT
lntemational Uranium (USA) CorP
Not lndicated
c0610135G002
Client Sample lD: 4849 Filter Combined With 4849 Beaker
Client:
Project:
Lab lD:
RePort Date: 11127106
Collection Date: 10/17106
DateReceived: 10/30/06
Matrix: Filter
Result Units Qualifier
MCU
QCL ]ttethod Analysls Date I BY
Analyseg
RADIONUCLIDES .TOTAL
Lead 210
Radium 226
Thorium 230
Thorium 230 Precision (t)
Uranium, Activity
ND pci/Filter
ND pCi/Filta
0.6 pCi/Filter
0.4 pCi/Filter
4340 pCi/Filter
1.0
0.2
0.2
0.2
NERHL65'4
E903.0
E907.0
E907.0
sw6020
1 1/06/06 12100 I Pl
11/10/06 16:47 I ott
1 1/15/06 15:00 / df
11/15/06 15$0/df
111021c6. 21 :33 / bMrs
Report
Ileflnltiotts:
RL - AnaMe rePorting limit.
QCL - Quality conrol limit.
MCL - Maxirnum contaminant level-
ND - Notddected dthe reporting limit'
ENERGY LABORATORIES, INC' ' 2ggg SaltCrcek Highway (82601)' PO Box 3258' CasPer, llWffi
Client:
Project:
Lab lD:
Client SamPle lD:
82602
LABORATORY ANALYTICAL REPORT
lntemational Uranium (USA) CorP
Not Indicated
c0610135G003
4809 Filter Combined Witt 4809 Beaker
RePort Dabl: 11127106
Goltection Date: 10/17106
DateReceived: 10/30/06
Matrir Filter
Analysb Date, BYMCU
Qualifier RL @L MethodResult Units
Analyses
RADIONUCLIDES .TOTAL
Lead 2'10
Radium 226
Thorium 230
Uranium, Actfuity
1.0
0.2
0.2
0.2
ND
ND
ND
15.0
pCi/Fitter
pGilFilter
pCi/Filter
pCiiFitter
NERHLSil 11/06/06 12flO lPt
E903.0 11110/ffi 16:47 toil
E907.0 11/t5/06 15$o/df
SW6020 |lrcAcxd 21:36 / buts
Report
Ileflnitlons:
RL - Andyte rePorting limit'
OCL - Ouality cmtrol limit'
MCL - Maximum contarninant level'
ND - Not detected at the reporting limit'
I
i-
M ENERGY LABORATORIES, ttlC' ' 2393 SaftCrcek Highway (82601), POBox325E' @sPr,WY
82602
Client:
Prciect:
Lab lD:
GlientSamPle lD:
LABORATORY ANALYTICAL REPORT
lntemational Uranium (USA) CorP
Not lndicated
c0610135ffi04
4810 Filter Combined Wih 4810 Beaker
RePort Date: 1127106
Cotlection Date: 10/18/06
DateReceived: 10/30/06
Matrix: Filter
Result t nlts Qualifier
MCU
QCL Method Analysls Date I BY
Analyses
RADONUCLIDES'TOTAL
Lead 210
Radium 226
Thorium 230
Uranium, Activi$
ND pCi/Filter
ND pCi/Filter
ND pci/Filter
7.8 pCi/Filter
1.0
0.2
0.2
0.2
NERHL6-$4 11/06/06 '12:Oo | 7i1
E903.0 11110106 20:44 I ott
E907.0 11/15/06 15$0/df
SW6020 11102/c6 21 :'10 / b\"s
Report
D,eflnitlotts:
RL - Anatyte reporting limlt.
QCL - Quality contrd limit.
MCL - Maximum contaminant le\d'
ND - No[ d€fected at the,eporting limit'
APPENDIX D
North Yellow Cake Scrubber
Figure 1. Facility Schematic Representation
Scrubber Process Data
Yellow Cake Dryer Baghouse
Figure 2. Facility Schematic Representation
Baghouse Process Data
D
Inte rtnati onal UraniumFacility:
stack rdentincation: North Yellow Cake Scrubber
t
C[
I#t
I
I
I
I
a: Distance upsteam from next disturbance, feet
p: Distance downsteam from last distwbance, feet
y: Distance of Sample Level to floor, feet
Q: Stacklnside Dianeter, inches
Estimated Moisture, percent
Estirnated Temperature, T
Estimated Velocity, fPm
Number of Ports
9.s',
9.5'
18"
Near Saturation
70-t25
1.100
l+o+l
Control Unit
Type:
Figrre 1. Facility Schematic Representation
f ;27
| 1/'\<-
!; to
X:03
1;L8
70io/
f0 "euI,a'5z
ll', t7
llt so
tttn\q S."doJrr
w"/". {/a^, 6P>-
g .'/g3
I .,/
g,Lf
8,.1
€.4
8,y
84
fu* S..of,f,t,
12:)Z
tL 5T
13 tz3
f3"L/O
I1'r49- t5',9 5
_/g; z_7
a.y
8,f
I .rl
8rfg,{
8,r
<,{I ,11,
I
vof; fl* 6fn
1,8
,1,7
4,8,{-?
Ll 4
q.8
/"84,8
1.8tl ,V
4,9tl 'g
1,1,4;?_ ,,q,a'
tl t7-.;
5rnj Ln
Prearrz<_
1t. I
1,1q"(
q.(
q, Z-.--q,l
{,L44
q"t
,{ .t
'{, /,({,/
':4"{,; '4 '"2''i zl , Z'-
Faci,i,y: International L]ranium
l+a+l
t
(l
.l
cr: Distance upstream from next disturbance, inches 57"
p: Distance downstream from last distubance, inches
7: Distance of Sample Level to Ground, feet
454u
65'
A: Stack Inside Diameter, inches
Estimated Moisture, percent
Estimated Temperature, T
l6'
0-2%
125
Estimated Velocity, fpm 1,400
Number of Ports 2
Figure l. Facility Schematic Representation
i:i ii:::
Ii i__
!
-:'..
:'
qe/s/f a r
:'l
{
I
I
I
I
'j'I,l
F1
rl
rtlrl
I
-.!,li
-tl,I
5"5;'s 2t!A
--g's aht, E^1,
-f 'j 4 o: 6.t,d) Ql,.'!|,?) €o:fl
dv >'tott (;!.4art/r/ e0 ,oee/ b"7
E
l-J
iJ
ti
L
L
L
t
L-
L
t
t
LJ
t
LJ
ll
t
L
I':,-
APPENDIX E
Calibration of the console dry gas meter(s), pitottubes,lszzles diameters' andtemperature
sensors were carried out in accordance with ti; irocedures ouflined in the auahty Assurance
Handbook. The appropriate caribration Jata are iresented in the fonowing pages. The nozzle
calibration, *, *,*d.d o'' the first page of the field data sheets.
Figrre 3. Schematic of Method5lll4 Sampling Train
Miter Box catibration Data and calculations Forms
Post-test Dry Gas Meter Calibration Data Forms
TYPe S Pitot Tube InsPection Data '
Sampte Box Temperature Sensor Calibration
t(
" .:,' ..
lnpinger Train Sional; lvb/ Be Redaced
. ByAl EqLt\Elont Cffinsir
Tonoerall
SensorTenpersfixre
Sorsor,/IA-_\ !
/lTypssPitotfo. \
Sbck
v1HGooseneck
Nlo?do'
\\
l-bgtTracsd
classliud
Prabe
Tenpsratra* Sensors
EnTty SSca
C€l
Ar-Trght
runp
TenpsreMo
lnprpsrs
lvbnonElbf
Gass Ftltsr
lbHar
HeedArea iiii
iIt lil*$l[
-lil
Dryess
tvbbr
J'
FTGURE 3 . . scnnl,raTrc RErRESENTATToN or Tiffi OD',;{SAMPLING TRAIN
METHOD 5 DRY GAS METER CALTBRATION USING CRITTCAL ORIFICES
1)
2',)
3)
4)
select three criticar orificgc to csribrate the dry gar mctcr which brad(.t thc exp.cld op€raung range,Record baromctic prcaeuru bcforc and aftor calibration proc.durc.
Run at tc8ted vacuum (fiom Odltca Calibra{on Rcpo.t), ,or a p.riod of timcnecassary to achisvs a mlnlmum totel voluma of S cublc fc€tR€cord data and Intormadon in thc GREEN cells, yELLOW ccils ar€ calculatod.
ilETER SER|{Lr:
CRIIICAL ORIFICE SET SERIAL TI
BAROMETRIC PRESSURE {In H
EQUIPIENT lD I:
l;;t AVG (Pb)
26.37 IF Y VARIATION EXCEEDS AOO%,
ORIRGE SHOULD BE RECALIBRATED
ENVIRONMENTAL SUPPLY COMPANY
293-/tl5 298.41r
2s8,4tg 303-az!
303.420 ,@.a22
l-';l rmF=r:lt6 lI I s lo.stzl ro I
, I;'Fqflsl.f;r .',r
| | s lo.srrzl ro I
5,OOl
5.001
5.002
5.461
6.006
t 0060
5.qX
5.003
t,oo8
USI}IG TI{E CruNCAI ORIFICES AS CAUBRATION STA}IDARDS:
ThE foflqfllng oquauons ar€ usod b carcurab th€ standad wrumas of ak pass€d utrough he DGM, v. (sd), and 0lo qtbdodlbo, v' (su)' ard tre DGM calbrabn fador, y. Thaso oquatons * ,rorrt .ry..bur.ua i, u,. ,pr..orr,J.ur..
l/r\"at = K t t yn r P fur + L H I 13'6)
tm
vcrutt = *n "u{'?{ IAMD
' N€t volurns of gas sampre passcd through DGM, concd.d to standard conditionstq . 17.64 cR/in. Hg (E €tish), O.3SSO cK/mm H9 Uotric)
Td t Ablolute DGM evg. teinperetura fR . Englbh, ol( - Mctric)
s volumc of gas s.mPl€ Passcd thrugh the critlcal orlflco, @ncctod to standard condiuon3Td . AbrohJi. .||*icnt tcmp€ratr€ (h - Engilsh,1( _ t\r€fic)
K I Av.rage K @orfiom Crl{c.l Orif,c. Csllbrsilonr DGM callbraUon faclor
&s.14 314,885
3t'l.CE5 310.E 1
319.tsl 324"897
325.3700 330.371
330,371 335.374
335.374 340.3E2
79.75
80.75
82
83,00
84.75
85.25
86.25
85.75
88,25
!L1C81 4.1E78
tlIg. ,J€gS
4.1660 4.112A
AvG.
4.51EO 4.56E5
112E3 4.1751
4.1246 4.1516
1.001
o.999
0.094
0.89E
1.01 I
1.o11
1.007
AVG! t.ol!
4.1119 4.119E 1.002
4"logs ,t 116l t.OO2
4,0951 4,1231 t.(X)?
AVcr 1.003
0.60
(1)
(21
Tomperaturo Eensors
Rofergncc lnoF oFY =Yctu,,Yfru^
Out
"F
3'l
77
114
31
76
'114
30n
113
5E 8t 83 n 78
68 a2 84 78 79
68 u 63 fs 60
MHl--" I f;l
1.83
LS!
1.A2r.'']EI-lLl F,s-lI z.oz I I r.rz I
1.51
r.g1
1,51F T[--llLI l__!41__lI rr.2o | | o.lt I
AVERAGE DRY GAS METER .AL,BRATION FACTOR, ". @
AVEMGE AHn =l-:i:5,ls-l
Alta- / o.zs e \' ox /5tgil\v_(srdl,, \ v. /
{.57
1.42
1,12
1.11
6E t5 Ef 79 8t
68 a7 E9 81 82
3E 8E 90 EI 82
88 69 0t ut 8t
68 e0 92 80 81
EE e2 95 a2 u
(3)
METHOD 5 DRY GAS METER CALIBMTION USING CRITICAL ORIFICES
1 ) Select three critical orifices to calibrate the dry gas meter which bracket the expected operating range
2) Record barometric pressure before and afier calibration procedure.
3i Run at tested vacuum (from Orifics Calibration Report), for a Period of time
necessary to achieve a minimum total volume of 5 cubic feet'
4) Record data and information in the GREEN cells, YELLOW cells are calculated'
METER SERIAL
CRITICAL ORIFICE SET SERIAL
BAROMETRIC PRESSURE
EQUIPMENT ID #:
Facility
FINALt;;I
lnternational Uranium-North Yellowcake Dryer Scrubber
AVG (Pu)
25.56 IF Y VARIATION EXCEEOS 2.OO%,
ORIFICE SHOULD BE RECALIERATED
I
Ii
ENVIRONMENTAL SUPPLY COMPANY
ELAPSED
TrME (MrN)
U
TESTED
VACUUM
(in Hs)
685,610 690;691
690.591 695.7i2
695.712 700.719
71 83 85 73 74
t2 a4 89 74 77
73 89 91 78 a2
, l;;T;;lI zg l.lo,.ro, I t, I| | . r,.,.,T1;ln:ffi'r-T-ll_l :i--r-l
5.08r
5.02't
5.007
78.75
81
85
0.00
0.00
0.00
0.00
0.00
0.00
le!
1.53
1.52
.0
.0
,0
.0
,0
.0
0.00
AVG =
AVG'
USTNG THE CRITICAL ORIFICES AS CALIBMTION STANDARDS:
Th€ following equations are used to calculate the standard volumes of air passed through the DGM, V'
(std), and the critical orifice, v., (std), and the DGM calibration factor, Y. These equations are automatically
.. Pbar+(LH 113.6)Ym(,td)=Kt*rmt- f^
AVEMGE DRY GAs MErER cALrBRArroN FAcroR, " = [T66'il
AVERAGEoT.=El
(1)
(21
AH6= ("ffi,)'*("#)
Pbar * @Yqt"d.t = L*----=i lamD
,, vrru,r,
I =-Vm@d\
I s.es | | t.as | 4.2774 9& 1.oogr:-----''lI g.sz I I t.as | 49,93 tM o'eeer--lI s.sz I I r.ss | 4.i667 4.161E 9€99
AVG = 1.001EFt=t=
EF-
= Net volume of gas sample passed through DGM, corrected to standard conditions
K = 17.64'R/in Hg (English), 0 385E "Kmm Hg (Melrlc)
T. = Absoluta DGM avg. t€mperstur€ ("R - English, "K ' Metric)
= Volume of gas sample paised through the critical orifice, mrrected to standard conditions
T@ = Absolute ambisnt temperatur€ (oR - English, "K ' Metric)
K = Average K factor from Critical Orifi6 Calibration
(3)E DGM calibration factor
Console #5 Calibration
METHOD 5 DRY GAS METER CALIBRATION USING CRITICAL ORIFICES
1)
2l
3)
Sslcct thr€o critical oritices to calibrete tho dry gas m€t€r whlch bracket thc cxpecled oPgrating renge.
Rccord baromctric prc$urc bcfoF and eftar celibration proccdura.
Run at tected vacuum (from Orillca Calibretion Roport), tor . perlod of timo
nccrs3ary to achievc a minlmum total volume of 5 cubic foct.
Rrcord data and intormation in thc GREEN cells, YELLOW colls arc calculated.
BAROMETRIC PRESSURE
EOUIPMENT ID #:
4)
DATE:
METER PART T:
Facllihr Internatlonal Uranlum'HorthYellowcake DryerBaghouse
fffi;il AVG (Pb)
25.56 IF YVARIATION EXCEEDS 2.OO%,
ORIFICE SHOULO BE RECALIBRATED
IY
ENVIRONMENTAL SUPPLY COMPANY
IN]TIAL
itaii:i }{l !iiilli!ttf!5crl 83,
:rul ,,il'i ,i.,:; i !i:riiaa;l rriiEa
:t:rl ii,lli'i:,,rid',1::,:::m: r i i3l ril
lTl , mT;llfl:ffi t.019
5,014
5.011
.0
.0
.0
8E.zs fffj |lil 4.,'BEE 1r.€
eo.o ffi|@| 41416 4.tt43
os.5 | +ll;:,1 | z.zo | {fl.e! %"=ilrffi| '','l :hrffi
H:ffi
0,00
0.00
0.00
0,00
0.00
0,00
tOl,gl:1li:;
tiE:830,
711.W ,,::,?lGtlf
,lllir i ri ii:l;li!
USING THE CRITICAL ORIFICES AS CALIBMTION STANDARDS:
Thr tollou/ino rquations Br. u3cd to calculat tho slendard volum$ of air Patsed through thc DGM, Vm
(std), and th. critic€l orillcc, Vq (std), and trc DGM calibration factor, Y. Th6sc cquations aro automstically
0.996
0.993
0.995
0.9e5 9,99
AvERAGE ORY GAS METER CALIBMTION FACTOR, '= @I
AVERAGEAHe.FEI
!E!
lEc
lJz
AVG r
vm(,d\ = lr tY^' Pbar +(LH 113'6)
(rl \r'g' Tm
vcr,--, = *', Pbar * @
^lTanb
,, vrru,r,
I =-Vntgd\
AHe' (ffi,I *(*i'j')
(2)
[:,],1
li',::l.l;':
.0
.0
.0 ffiffi
ffiE
r Nat volums of gas sampl€ pasaed through DGM, corrected to standard conditiong
6 = 17.64 "Mn. Hg (English), 0.3858 "K/mm Hg (Mstrlc)
Tn - Absolute OGM avg. temPeratur€ fR ' Engllsh' oK ' Metric)
. volumc ot ga3 3amplc pa$cd through tho critical orlfic., concctsd to 3tendard condition3
Td o Ab3olute ambiEnt temPeretute ("R - Engli3h, oK ' Msiric)
K ' Avcng€ K fado. trom Criticel Orttic. Callbetlon
illi:rl.:i:il,i
(3). DGM calibreuon factor
Con3ola #5 Calibratlon
Type S Pitot Tube Inspection Data
. . Pitot'l\rbe ldcntificarion : J*7 - Q
Tcchnician: Kn.^.6^ Cor,
I
t
D= ,77l_ln.
Ps= .'l Ll I m.
Is Pn=Ps? V
Is 1.05:D, S Q <.1.50,Dr? /
cs < l0o dt ='.o
-:'
a2 < lQ9
9rf5o
Fz<5t Fz-
e^= ,19[ in.
c.rl"
o- I oPt- __!_-
H.
o
I
p-z
Zs0.125in.
W < 0.03 125 in
.o33z=
w=t6 tn.
The pitot tubc mccts thc spccifications for a calibratio faaor of 0-&4? t/
Type S Pitot Tube In3pection Data
?c_a- . :: PitotTubcldentification: Jo - sl
D,=,3?f i".
3'tz
Pg
O1
Is
Is 1.05.D,SD,3
cr1 < l0o--TI cq < l0o
Q 2<oPl'-J
-l
.j
9t=... O | '
_.O,o1. ir,.
I
I
Fr{5o
2s0..125 in"
.. : . :
Ws 0.03125 in.
I
The pitot tubc mccts the qpecificatiors for s calibration factor of0.8 4? \/
pr- - </>7
Pa-
Pr=Ps ?' V'1.50..Dt? ,/a
o,-. ./ .'
.z=
tn.
u.
' Sample Box Temperature Sensor Calibration
Date: /l 4 A -Ofralibrator:,A Kth/,-,Referencc: ,r/f:f
Unit ID
Temperafure
Difference
cF)
C
fn
APPENDIX F
The testing protocol and other correspondence related to the tests are included here'
I
SEMI.AI\NUAL EMISSION TESTING PROTOCOL
FOR RADIONUCLIDE PARTICULATE MATTER AT
INTERNATIONAL URANIUM (USA) CORPORATION
BLANDING' UTAH
YELLOW CAKE NORTH DRYER SCRUBBER
YELLOW CAKE DRYER BAGHOUSE
August 30,2006
Project Organization and Responsibility
The following personnel and the testing contractor are presently anticipated to be
involved in the testin! program. The Utah Department of Environmental Quality, Division of
Air euality (DAe) *a gpa may have their own personnel to observe all phases including the
process.
Company Contacts
International Uranium (USA) Corporation Wally Brice 435-678-2221
P.O. Box 809
Blanding, Utah 84511
TETCO Dean Kitchen 801-768-0973
90 East Main Paul R' Kitchen
Lehi, Utah 84043
Facility and Location
International Uranium's White Mesa Mill is located 6 miles south of Blanding, Utah on
Highway 191. The Mill processes uranium ore. There are two yellow cake dryers with
individual scrubbers but only the Yellow Cake North Dryer is currently in operation and will.be
tested. The Yellow Cake Dryer Baghouse serves the dryer enclosure and hopper'
Test Obiective
These test will be conducted to measure the radionucleide emissions on the scrubber and
baghouse that serves the Yellow Cake ore processing operation at the facility. Testing
prJ"ed*"s will include accumulating pto.its and production data as well as testing for
Radionucleide emissions using EPA Method 5lll4'
Test Schedule
Testing will follow this protocol for the fourth quarter of 2006 and the second and fourth
quarters of zool. Testing in the fourth quarter of 2006 is scheduled for october 17'19'2006'
Notification of test datesln other quarteis will be sent as they are scheduled by the facility.
Site Access
The sample sites are located on the building roof and are accessed by stairs and ladders
inside the building.
Potential Hazards
Moving EquiPment - Yes
Hot EquiPment - Yes
Chemical - Yes
Other - Radioactive
Process Data
All operational and instrumentation data will be made available to DAQ personnel' The
facility will run at normal conditions.
Ouality Assurance
All testing and analysis in these tests will be conducted according to EPA Methods 5lll4'
2
Reporting
ReportingwillbepreparedbyJhetestingcontractoraccordingtoEPAQualrtyAssurance
Guidelines. A complete copy of raw data and trst carculatiorr, ,**y will be included in the
reports. All process *a proirr",io" 11i will be recorded by International Uranium (USA)
p.'rro*.f foi inspection fy DAQ and EPA' if requested'
Test Procedures
Radionuclideemissiontestingwillbeconductedonthescrubberandbaghouseexhaust
stacksaccording,ogpaMethod5l||4.SpecificproceduresareaSfollows:
l. The sample locations and the number of sample points will comply with the requirements
of EPA Method 1'
TheinsidediameteroftheYellowCakeNorthDryerScrubberstackexhaustislsinches.
Theportsarelocatedll4inches(6.3diameters)upstreamfromthenextdisturbanceand
114 inches tz: Jiu-.ters) downstream from the last disturbance.
The inside diameter of the yellow cake Dryer Baghouse stack is 16'0 inches' The two'
four-inchdiametersampleportruretocated28'3Sdiameters(454inches)downstream
from the last disturbance and gSi diameters (57 inches) upstream from the next
disturbance.
2. EpA Method 2 will be used to determine the gas stream velocity. Type "S" pitot tubes
will be used with a Co factor of oi+. pual inilined/vertical manometers with graduations
of 0.01 inches of water will be used. If the flows are below '25 inches of water a more
sensitivemanometerwillbe,,,"a.rr'"graduationmarksonitare.005inchesofwater.
Direction ;i;;; fil* will be ri""t"a roi gas cyclonics prior to testing' If the average
deviation is over 20 degrees, th"n straightening,,*"' will be installed or other
arrangements agreeable to DAQ will be made'
3. Test run time will be at least 60 minutes for each test run
4.EPAMethod3willbeusedtodeterminethegasstreamdrymolecularweightifthe
exhaust gas is not ambient. An integrated flui gas sample will be tlken from the exhaust
lineafterthedrygasmeterorificea*i"geachtestrunandanalyzedatthecompletionof
the test with an orsat to determine the rnolecular weight of the effluent gas stream' If the
exhaustgasisambientairthenTETCOwilluseadry-molecularweightof23.84lb/lbmol
(20-9 percent Or, 79'1 percent N,) in all calculations'
5. EPA Method 4 will be followed to determine the gas stream moisture content'
7.
8.
Probe liners will be 316 stainless steel for all tests'
The glass fiber filters used will meet the requirements of EPA Method 5lll4'
The barometric pressure will be measured with a barometer which is periodically checked
uguirrrt a mercury barometer. The barometer will be checked prior to testing to assure an
accurate barometric Pressure'
All current calibration data is submitted with this protocol, exceptnozzle calibration
which will be done at the test site. Nozzle calibraiion will be included on the first page of
each set of run sheets for each respective test run. Any calibration that is not current will
be re-calibrated prior to the test dates'
Any necessary preparation and clean-up by the contractor will be performed in the
contractor's ,u.ptittg trailer or a clean area on lntemational Uranium's property'
Laboratory work anianalysis will be completed by the contractor and Energy
Laboratories as soon as possible after the test project'
Verbal results will be reported to Wally Brice of lnternational Uranium (USA)' The
written report will follow within 30 days following the completion of the test'
If maintenance or operating problems arise during the test, the test may be stopped' This
deterrnination will u" *uaJiy Intemational Uranium (USA) representatives and
op"ruting personnel in consultation with DAQ representatives
9.
10.
ll.
12.
Estimates of Test Parameters
The values
estimates onlY and
below are estimates of the stack flow rates and temperatures- These are
are not intended to reflect permitted values'
Temperature oF
Velocity fom
Moisture %
Yellow Cake Dryer Scrubber
Varies 70-125 dePending on
weather and time of Year'
I 100
Near Saturation
Yellow Cake Dryer Baghouse
ll5
1300
I
Appendix A
Facility Schematics
Yellow Cake North Dryer Scrubber
Yellow Cake DrYer Baghouse
Inte rtnati onal UraniumFacility:
Stack rdentincation: North Yellow Cake Scrubber
a: Distance upsteam from next disturbance, feet
p: Distance downsteam from last disturbance, feet
y: Distance of Sample Level to floor, feet
@: Stacklnside Diameter, inches
Estimated Moisture, Percent
Estimated TemPerature, T
Estimated VelocitY, Sm
Number of Ports
9.5'
9.5'
65'
18"
Near Saturation
70-125
1.100
l+a+l
Control Unit
Type:Yellow Cake Processing
t
ct
,f
Figure 1. Facility Schematic Representation
Faci,i,y: InterTrational lJranium
Stack tdentifi."r,""' B aghOUSe
1+a+l
cr: Distance upsr:am from next disturbance' inches
p: Distance downstream from last disturbance' inches
1: Distance of Sample Level to Ground' feet
O: Stack Inside Diameter, inches
Estimated Moisture, Percent
Estimated TemPerature, oF
Estimated VelocitY, fPm
Number of Ports
57"
454"
65'
16"
0-2%
125
1.400
Figure l. Facility Schematic Representation
Appendix B
Calibration Data
METHOD 5 DRY GAS METER CALIBRATION USING CRITICAL ORIFICES
1) Select three cntical orifices to calibrate the dry gas meter which bracket the expected operating range
2) Record barometric pressure before and after calibration Prooedure.
3) Run at tested vacuum (from Onfice Calibration Report), for a Period of tlme
necessary to achieve a minimum total volume of 5 oubic feet.
4) Record data and information in the GREEN oells, YELLOW cells are calculated.
BAROMETRIC PRESSURE
EOUIPMENT IO
'T
Facility
FINALtffilI
'6,39
"1
New Callbratlon
AVG (Pbr)
25.39DATE:
METER PART
'T
IF Y VARIATION EXCEEDS 2.OO%,
ORIFICE SHOULD BE RECALIBRATED
IIt
ENVIRONMENTAL SUPPLY COMPANY
88120i6::j::il
isz,i5o,. i d*oitl""
905.1'9
.:rlS::r:r:li 'l:.:toi:ri t*91,,,:lrr81.ir
B3
':::ltit::;i;
::r:9!l:i:::
::ii::i::::ril
;:BB::
::l::::::|:::;l:::tt A3l
83,i,88::::::::llr'd!::ri:s$:i.:t6
l .--Tl ,[:m
l', 30,lz lo.e'ri,ffiI '''''l . lAr-.+tr'El
lTl ,l;,milIrsl,|...El ';l| | 3 10.53{7f 13, I
i.3t5i
i,ao,
5t99 |
ti24i:
'q'910,:52E9,
alog'
'1210
r.208
83 ffiHe+: | l-,?.!i'ler:u l -rbi I l,','?.es I
,,* llJill |r;ll
;,.ru [ETlo.,. lTbf |T-.;1
tT::-11Blr.oo I ii.tt I I on6
B4.bs t,il+., | | :o.le',,1
B4,so I t2.00 ll 0;461
AvERAGE DRy GAs METER cALtBFATtoN FAcroR, " = @l
AVERAGEAHs=t.:.'.:iFl
AHq= (ffi)'^"(ry)
4.4489:
#,nitot
'r. -'4.m07::T
,4:3566
+ry
t.?390
4,2920
4.4U3 Q.997
: '' Is€e 9€914try$ , ry,
avc = . 0.996:::..']::.ga3 ry
9-* 1j99
4.3583 l49SAvG- +ry4,2311 j4g
4.s,272 1g
4.a?62 +EgC,
AVG . 1:009
{.63
4.04
s€g
lJgr
1{E.
lJt
4,
lfc
'l:8C
lg
1:64
1.64
USING THE CRNICAL ORIFTCES AS CALIBMTION STANDARDS:
Tho ldowing equalions 6re ussd to cdcrtato th6 olanddd vdumes of ai pass€d thro{jgh the DGM, Vm (sld), and lho crilicd orifica,
Vo (std), and tho DGM cdibration faclor, Y. Thesc equalions ae automalicdy cdculated in tho Wroadsheet above
Fl;mI 'l s lo.g3orl tg.l
(1) Vmruo, = Kr*r^*'-!tffM
,.,. Pbo *@lq,at = I-,---
J ra'nD
,, Vcr@d)t =;_/fr@lt
(21
905a0 :lltOi388
'rr.::.r:: ,
9,16,3ht,,qll::AqE
9'15:!95:,:'920.806,
=Netvo|umeofgassamp|ePassedthroughDGM,correctedtostandardconditions
K1 = 17.64 oR./in. Hg (English), 0 3858 "Kmm Hg (Metrlc)
Tm = Absotule OGM avg, tsmpelaturc CR ' English' "K ' Metric)
= volume of gas sample passed through the critical orifice, corrected to standard conditions
Td : Ab6olute ambisnt temperature fR ' English, oK ' Mskic)
K = Awrago K factor from Critical Orifioo Calibtation
,ct5.LS
',Citid4$ci6.liic
FB0:6rg :e85:992,:
.80 :::a:N 82.
tfi tKl::: l .t:'g:..]::: c':::s2
'::,,bo-,i a ,,,86 a2 ,1,62',
*t ff ::81 g5
h3 86i,
: r.::itt
rgdr::r tll::i ul
trs 85,85::r:,8i1:84
(3)= DGM calibration factor
Console #3 Calibration
METHOD 5 DRY GAS METER CALIBRATION USING CRITICAL ORIFICES
1)
2',
J'
Select three critical orific€s to calibrate th6 dry gas metar which bracket the expec{ed operating range.
Rrcord barometric pressurc bolors and aftcr calibratlon prgccdura.
Run at tsstcd vecuum (from Orifico Calibration RePort), for a p€dod of time
neceseary to echieve e minlmum total volumo of 5 cubic fcct.
RGcord data and information in the GREEN cells, YELLOW c€lls are celculated'
BAROMETRIC PRESSURE (ln H
EQUIPMENT ID #:
4)
DATE:
METER PART #:
FINALfr.-;l AVG (Pt.l
25.52 IF Y VARIANON EXCEEPS 2'OO%'
ORIFICE SHOULD BE RECALIBRATEO
i
INITIAL
ELAPSED
TIME (MlN)
e
832.834 E3E.009
838.009 84:t.t04
c4:i,'104 E46.30E
E9 74 71 7E 83
83 71 73 7a n
69 73 73 7a 80
l-l , [;T;I ro I,l'""'F'lr I o.ersz I ts I
l-l ' lor"T *-l| ,tt | .lo.""l " I| | 3 10.53171 ro I
Vmlrat= Xr*Yr'Ag#M
Vcrr,,at = K" Pbg '?! lan'O
Y =V,,,U,!Vmr,ut
E4E.308 853.761
853.761 858.903
8t8.003 E64.081
5.176
5,095
5,204
5.453
5.142
5.151
n,25
75
76
76,50
76.75
76.75
76.50
78,00
76.25
t--r I f.;
f.--''_-l t-*lf;l t-,.;l
r,--;l r.';l
Iz.rtIIt.'lIr;,-l l;l
r*-;l r,;r'.;l-,;t-,.; r;l
AvEMGE DRY GAs METER cALIBRATION FACTOR, Y = Ij.J...ffiI
AVERAGE aH. =17.50-l
Tomperaturo S€naora
Referonce In
OF
32 32
83 82
!,3700
1.t212
4.4054
L!031
4,3291
{-33er
4,3240
4.3112
43!C4
laEg 9,9CC
4,2189 gJgl
!n@ 9€95
AVG r 0'985
4.5709 0.995
4.ze7e gJC!
4.2eoo 0p9SAVG= qggl
4g!-91 o.ses
/t.3079 0,999
!|@ 0.e9e
avc= EE
-o.72
0.05
9.92
1.49
1.49
ue
1.5.1
1.54
L9!
1.48
l,tlC
1.48|*lrffiI I ' l.,r'T,, I
5,1.14
5,121
5.123
804.0540 869.196
869.'t98 871,322
E71.t22 870.44{t
USING TI{E CRITICAL ORIFICES AS CALIBRATION STAilDARDS:
The followtng equations a19 used to calcuhts ths standard \olu.nss of air Pass€d htough ths DGM, Vn (std)' and ths crithal
orillco, Vo (std), ard he OGM calibralion facior, Y. Thosd oqualions aI8 automathally €bulat€d in ho spcadsheot abow.
Out
32
83
118
(11
(2)
= Net volum€ of gas eample passed through DGM, conected to standard conditions
Kl = 17,04 oRiln. Hg (Englieh), 0.3858 oK/mm Hg (Motric)
T. = Abrolute OGM avg. tomPoreture (oR - English' oK - Mctric)
: volumc qf gaE sample passed through the crlticel orifico, conec{ed to standard conditions
Td = Ablotute ambient temFrature (oR ' English, oK - Mstric)
K = Avorago K tecio( trom Criticel Otifico C'llbration
AHa= ("ffi,)'*(Y)
69 73 71 7g 80
69 74 f1 fg 80
70 73 f1 7g 81
70 74 76 79 7E
70 fl 75 78 Tf
f1 76 76 n 7a
(3)! DGM celibration taclol
119 tte
Console tA Calibration
i:=3J'E+
METHOD 5 DRY GAS METER CALIBRATION USING CRITICAL ORIFICES
1 ) select three critical orifices to calibrate the dry gas meter which brackot the exp.cted oporatlng range
2) Record barometric pressure before and after calibration proceduro'
3) Run at tosted vacuum (from Orifico Calibration RePort), for a Pcriod of time
nec€ssary to achievs a minimum total volume of 5 cubic feot'
4) Record data and information in the GREEN c6ll8, YELLOW c6lls are calculatod'
DATE:METER SERIAL
CR]TICAL ORIFICE SET SERIAL
BAROMETRTC PRESSUBE]b-E
EQUIPMENT ID fl:
trtrtr
r;T;]lrr"tT;|;;T;-l
I.r"tT;ffiT;]l'-rTT._l
r.,*'T;ffiT;']l'"trT;
1
2
3
1
2
3
t
2
3
USING T}IE CRITICAL ORIFICES AS CALIBRATIOII STAilDARDS:
The following equations are used to calfllate tho standad volumss ol air passed though m OGM, V. (std), and the cdtlcal
orifrce, v, (std), and ho DGM calibrathn factor, Y. These equations ar€ automatlcally cabulated in he spcadshoEt abovo'
,, Pbar+(M 113.6)lttt\sut= Lr*Ym'-
Vcr,,n,, = K'. Pb{ " ?! taT )
,. l/crrur,l=-rmttt,t\
293.416 298.419
298.'ft9 303.420
303,420 30s.122
309J24 3tr1,885
314,E86 310.E91
319.891 324.897
325.3700 330.37'l
330.371 335.374
335.374 340.382
= N€t volume of ga3 samPle passed through OGM' conected to standard conditions
Kr : 17.64 orUin Hg (English)' 0'3858 "Kmm Hg (Metric)
T. = Absolute DGM avg tonperature (oR ' Engllsh' oK - Mctdc)
!Vo|umoofgagsamPtepasgedthroughthccriti6|ori'i^co.cor€ctedtostandardconditions
T* = Ab*|.,t" "tbisnt temP€rature (oR ' En€lilh' 1( - Mcitic)
K = Avcrage K faclor from Crlticel Orifica Callbration
Temporature Senaors
Reference lnoF oF
aHa = I o.zs e 1' ax (hFg\\v..(std),, \ v.,,
tF Y VARIATION EXCEEDS 2'Oo%'
ORIFICE S}IOULD BE RECALIBRATED
I
*
FINALr,;AVG (Pr)
25.r7
5.004
5.001
6.002
5.461
5,000
6.0060
5.001
5.003
6.008
?9.75
80.75
82
83.00
8.1.75
85.25
85.25
E5,75
88.25
4.185'l
t11&
1J.@
4.5180
.1.t283
1.1215
4.11 19
4.1098
4g!
4JCZ! 1=9!lL
4,'1698 0.999
alg 0.ee4
AVGg 0.988
4,59S 1'011
1.1751 M1
4llill! usz
AVG = t.010
4.1198 :ge
4.,t.r51 193
t1234 1.007
AVG= 1.003
g5r
9S
.o.02
1.83
l,9it
1.42
1.51
L!1
t!1
1.4?
LE
EI
OutoF
31
114
(1)
l2l
al
76
114
an
77
113
INMAL
METER PART #:
68 8t 8:t fl 78
6E a2 84 78 79
CE u 8E 7A EO
t-a-l 1-_l'trtt--r.14 t-gtI z.oz I | 1.12 |r;IE
!:;z-l l-sr-]I rr.ze I I 0.41 I
AVERAGE DRY GAs MErER cALlBRArloN FAcroR' " " [@l
AVERAGEot"=@l
68 85 a7 79 8t
08 87 89 8't E2
68 88 90 8t 82
88 89 91 80 81
6E 90 02 80 E1
08 92 96 a2 84
(31 r OGM calibration taoior
Console #5 Calibration
METHOD 5 DRY GAS METER CALIBRATION USING CRITICAL ORIFICES
1 ) Select thre€ critical orifices to calibrate the dry gas moter which bracket the expected operating range'
2) Record barometric pressure before and aftercalibralion procedure.
3) Run al lesled vacuum (from Orifico Calibration Report), for a Poriod of lime
necossary lo achieve e minimum tolal volume of 5 oubio feot.
4) Record data end informalion in the GREEN cells, YELLOW cells are calculaled.
BAROMETRIC PRESSURE
EAUIPMENT ID f:
FINALfiffil AVO lPFl
25.70 IF Y VARIATION EXCEEDS 2.OO%'
ORIFICE SHOULD BE RECALIBRATED
I
Y
ENVIRONMENTAL SUPPLY COMPANY
INITIAL
ELAPSED
TIME (MIN
e
TESTEO
vacuuM
lln Hs)
,,,:tloi:lxi$e,lrio l
,.6,13.'60 Gieitdiittt,
619t17.:.:.i;iriieri.iiitit
t5:::t,1 tltlrf,5 35i,,r::E$:i:l .:::!t03
: ::85 TF ,ioi
:, .,,lsi,i 86..:t::,li:ii:il :,10{:iioi;.
ITt , [iliilllilllrol,ml' I c I o.arsr,l re I
I-1 ,'i;ilIt.,'t]|"'c|'FETTII I 3 lo53{71 ie I
9rls
.
S.S,l7::
t.69t
stis'
'Ci+1
rssit
::
:5^ot5
:::l:5.079
:s3st
921fs,
93,29,
:91ii:l
, li,rc
I 901Ii
,9i!.00
:l'':
"77'l,i
,
ai;oo
. s5:oo
4+63?8
ff:4;7092
trs9,
+sdib
t.zt4i'ry
,taps
!.,6lli!!-,
4d!9: :&4:,'
AVG E
l,a*g1,..
1i31ql '
,c$it
AVG =
!.??q7 '
LZSIO
4.4894
AVG =
s4c
-0.0?
.ti/il
49.,
!rylg:
t.007g
ir.igg'
1.005
r.ooz
,opl7i
0.998
t.001
,0.99s
USING THE CRITICAL ORIFICES AS CALIBRATION STANOAROS:
The folbriving equalions ar€ used to cabuHe the slandsrd \olmes of dr Pas6ed thrqrgh tre DGM' V. (sld), md the critbalorifice'
vd (s1d), ald th€ oGM caibration fator, Y. Thsso oquations afe aJlomElicaly cabubled in the spresdsheet 8bo,B'
(1) vtnlaat = *,*r**!!!i#M
.-,. Pbar * @
/ w. (rd\ - 't t=-----
"'l I amD
,, V"ru,o,
I =-v^'no'
573:,lil3 578:140
s78:rlo (et:t g::
583219 588:f,16 1
=Nelvo|um€ofgassamp|epassedthroughDGM,conectedtoslandardconditions
K' = 17 64 "R/in. Hg (English), 0 3858 "l(mm Hg (Metric)
T, = Absolute DGM avg. temp€ratur€ ("R - English' "K - Metric)
= Volume of gas sample passed through the crilical orifice, corrected lo siandard condilions
Td = AbsolutE ambient tomp€rature ("R - English. "K - Metric)
K = Awrage K bctor from Critical Orifice Calibration OutoF
34
bo
120
(2)
oF
ot
1)1
OF
34
bo
120
rffil H
l :i::d.;'. '1 l, rto.,ItlEill l-:':'J-Tfffiffih#ffiffiHl, ii.sr" I I' ore IlrEtlt._;;'l
AVERAGE DRY GAs METERcALIBRATIoN FAcTOR,'= E@l
AVERAGEAHq=Fm]
AHq = / o.zs e \' ox lUCgt\\v"l",al/ \ ", i
Temperature Sensors
Reference In
:::595;mg
COB::nqC .;an.J;'
coo,C,l7 .:: t:l::...r: i:
006;tlq,,,:
.,::#:r.r:.rr E6:
.r::1:t t1:
:.1::;92: ]',',,,,,if
:;:::t6::i:r1:r::l...i8{.i,iil ,. 'S5,,: .96:::r:l 1,,.6.,...
to ,,l.Ft,il:!5,'.ir::::'::::::
i9l',,,
l.tO,,,t4 75 :,1 :).:lA:t:tl 8rt
:76 73 ?6::::l
I. i:; :: I
',':0$,87:
tn BO :l:::E3 87'S2,
(3)= DGM calibration factor
Console #6 Calibration
Dale:
D,
Type S Pitot Tube lnspection Data
; . ' Pitot Tube ldcntification: Z7i. I
r""a^"i^,.: Q ou., O l9-^ I R -<-'r^.U,^T
--4
E
J
fr \_
D,= -Z5o in.
ea- 33Lf ;n.
yr= 3j4 i".
Is Pe=Ps? vl
Is 1.05. D, S D, < 1.50'Dr? y'
d1 < l0o ct:'
c2 < l0o
t 9r55o
z
9r=
9z<5o 9z:2"
4-Z
230.125 in.7= .O./ O in.
W<0.03125 in.w:
The pitot tube meets the specifications for a calibration factor of0.84?
Reference:
O1
Q2
foIpr
92
- oo3 ln.
'l'emperature
Differencc
t/,Date;-@N:-D, I/
--'fl-;l
e
, 4o'
-
Yp2
The pitot tube meets the specifications for a calibration factor of0.84? J
Refercntp:
d1 < l0o o,=---L-o
-'- '':
Type S Pitot Tube Inspection Data
. fs Pa:Ps?
Is 1.05 . D, ( Dt < I.50'Dr ?
o2 < l0o
FrS5'
9r<5o
PitotTubeldentification: Z'7 - Z
q: Z JiD in.
P^= 3 fO in.
P"=_.)f9_in.
Ffo'
z=.0)8;n'
2-
Fz:
Tempcraturc
Difference
z
:
Type S Pitot Tube Inspection Data
: PitotTubcldentification: ar r:
rccuician: K-e ^rGn Cors
PitotTubcldentification: )-7 - A
Dr=,7-7f
,'l4l
H:
ls
Is 1.05.D, S D,3.
a2 < 10"
FrS5o
9:<5o 9r=t1L,'
*-z
Zs0.l25il.,
W < 0.03125 itt
f
The pitot tubc meets lhc spccifications for a calibrarion factor of0.84? {
Tcmocraturc Scosor Cdibration
Refcrcncq
P^= ,!ql
Pa=
Prr=Ps? V
1.50. Dr ? vl
01 < l0o c't:' :O
o,=l'
h=1"
z= -O33 . i".
*= .il6
^-
ln-
m.
m.
nat": /V- 29 -&fnvl
Type S PitotTubelnipection Data
q= 2.n
Pr= ss-1/
36 -.e
Is
Is 1.05'D, < D, S
cr1 < tOo
c2 < l0o
t 9rS5o
Fr<5o
v
Z<0.125 in.
Ws 0.03125 in.
ln.
n.
g
The pitot tubc meets thc spccilications for a calibration faclor of0.g4?
T--!---!_ _ Tcmpcraturc Sarsor Calibraiion
Rcferancc:
z= .01{ ? i,.
w=
o^r", lZ-2? 'of,
D,
/T
H
Type S Piiot Tube IniPection Data
.:
D,=
Pe=
Ps=
Pe=Pn ? ' t/
Pitot Tubc ldentifi cation:36- >
zfa
3fv
3s-q
ln,
tn.
m.
Is
D,3
C1
ctz
Is 1.05'Q 3 l:50'D,'] - ,
.',=' O o
cr1 < l0o
' o2< l0o
: p1 f5o
a,= J '
Fr=
R-=
lo
F:<5o
230.125 in.
W < 0.03125 in.
- O:oL= . v-I m.
1ry= .Ol? iru
Rcfcrcnce:
g4q lz-L-/ -oS-
fype S PitotTube Injpection Dita' -
7d /^. : :.: PitotTubeldentification: Jo - (al
Is I.05.QS
Tcchnician:"
D,= ,37 t
P^= .n>7
p,= 317
Pe=Ps ? Vt
1.50..D. ? {
ln.
tn.
m.
Is
q<
a2=Oo
g'c1 < l0o
d2 < l0o
9135"Fr=
z= .oo1 tn.
w= '07? i,'.
Fr<5o
+-z
Zs0.125 in.
:'
W < 0.03 125 in.
The pitot tube meets thc specifications for a cglibration factor of0.84?
p2
rliluv
Sample Box Temperature Sensor Calibration
I
I
\
Datc: /) 4 A - A,tt7-alibraton 2 Kth/.-,Rcferencc: ,llf-:f
UnitID
Temperature
Difference
cn
/
C
t-
SiNCE H EUSSER NEWEIGH rgOE
Certi/icate of B ulsnce Culibrution
CustomirNami -leb'rtiacaitNa: -O66ltz
Department:Calibration Date: January 12,2006,Address: 90 East Main St. lOrderNumber:
:CitylstateliLip: Lehi, UT 84043 lTechnician: Mark B.Contactl Dean ;ProcedureUsed: WP-703 @ev.2002-1)..---'--
, Manufaciiiiei: *-Gnver iiiffiter;t--
,Model: A.2.50 iX- Calibration:
rldentification No. lX - Certification:
Serial Number: 8045284 i Corrective Maintenance::Readability:0.0001gCapacity:250g;order(SeeComments):
---t
{
I
II
Next Calibration & Certification Due: January 12,2OOz
Mass Standards Used for Calibration: Cal I.D. #45, CalI.D. #46, CaLI.D. #47
PRE-CALlBRATION POST-CALIBRATION
Gomments:
:
Pertinent tnformation:
The mass reference standards used tq calibrate and certify this mass measurement instument are taceable to the National
lnstitute of Standards & Technologl (NIST) wilh an uncertainty less than or equal to % of the class tolerance. The procedure
used to calibrate the herein described artifact and this Certificate of Balarce Calibration meets the requirements and guidelines
of ISO 9001:2000, ISO Guide 25, ANSIA{CSL 2540-l-1994, the Heusser Neweigb Quality Assurance Prograd (Revision 2002-
This is to certify the data reported herein is true and correct at the time of calibration/certification.
HEUSSER NEWEIGH 1247 West Meadowbrook Lane, Lehi, UT 84043, [phone]
This Certificate of Calibration shall not bc reproduced orccat in full, without the written tpproval of Heusser Newcigh.
NominalMass
Value
lndicated
Weight (s)Conection (g)lndicated
, Weight (g)Correction (g)]ontrolLimit t,
(g)
Post-Cal.
Within Confolj 'timit?
1 0.999s -0.0001 1.0001 0.0001 0.0005 Yes',
10 9.9997 -0.0003 0.0005 -Yes
20 20.0001 0.0001 0.0005 Yes,
50 49.9992 -0.0008 49.9995 -0.0005 0.0005 ':Yes
to0 99.9996 -0.0004 100.0002 0.0002 0.0010 Yes
200 199.9985 -0.0015 199.9998 0.0002 0.0020'i Yes
r ComDlete iterns 1,2, and'3' Also acmplete
item 4 if Restricted Delivery is desired.-I Print yout name and address on the rcvqsd
;so thdt wb. can retun the calrd to you.r Atach this cand to the back of the mailplece'' oron'the frontJf space Permlts.
C. Dat€ of Dolivery
"ffiNTMM6W,,,EIT
EI Agent
tr
1. Artlcle Addressed to:
R;cli,*J 37"o?+
UJ..h b*q
:P,o . Bov ti487O
4ntf l-zKc e,q W
7\ilq'482o
3- "S€Ivlce TYPo
F C€rtm€d Mall E Expr€ssMalt
tl n"gb'td"d El Retum necetpt for: Metrchandlse
Et Insurcd Mall E c'o.o.
4. Restlcted D€ft{af? (ErfaF6€,)E Yes
2. ,\rtlcla Number
Gran$rhon selfu@,d)?0Brt -rl?stl t1801 Z3!3 w
Ps Form 3811, February Domestlc Retum-Rec€lPt 1e2s9s{2-[fi1540 |