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NUREG/CR-5510

Evaluations of Core Melt Frequency Effects Due to I

Component Aging and Maintenance

i

Science Applications International Corp., Columbus, OH

Prepared f or:

Nuclear Regulattry Commission, Washington, DC

Jun 90

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BIBLIOGRAPHIC DATA

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LREG/CR-5510

SAIC-89/1 744 2 TITiL ANtD SuLIS71

Evaluations of Core Melt Frequency Effects Due to

Component Aging and Maintenance

3 0Al( AMiC, IPuBLIS-t~.

I 5l0GqAT . Ig ot&

t Tq' Of REPOh.

Ted-hnical

S AU7"ORISW. E. Vesely

R. E. Kurth

S. M. Scalzo

*

v-, A

-

i PER ORUNG OR(.ANIAYTIO% - %WE AOZDS-:D E ... Oftwila- &'. - _..-.. IL- _ _ ~*- ..a *.-ff fl*M'

Science ArDlications International Corporation (SAIC)

2941 Kenny Road, Suite 210

Columbus, Ohio 43221

9 SDONSORINGORI "AZAT71m - A ?%[tJA:I, MtSs ".0*c *., _1- - O f -. C ° - LI L's C.---, . VW e ""M. f 

Division of Engineering

Office of Nuclear Regulatory Research.

U.S. Nuclear Regulatory Commission

Wa sckingtnn DC ?nR;9 I SUPPLtUiEiTAS'. %ODES

!I ABSTRACT tIJW -,--. s 

A methodology is developed to incorporate aging effec:s irto Pro:tnilistic Risk

Analyses (PRAs). The methodolegy separates the PPA arz-'yses fror .'e aging ana'yses,

allowing ava.lable PRAs to be efficiently used in eva-!ting risa effe:ts of agi--.

The rietthDdology was applied to two NUREG 1150 PRAs us--. E-irg r-- Cata thac was

developed for active coronents. va-ious surveillar.:- an= maint:-ance programs

were evaluated to teterrine their effects in contr:1 li-: egirg. *:th pcinrt

evaluations and unrertair.ty evaluations were carrie' The re:-lts of the

applications showei the sensitivity of acing effects :r cc.e me" fr'quency to tte

efficien:y of the naintenance and surveillance pro;rar, in m.ar.agir: aw'ing effects.

The detailed contributors to the aging effects sho.ed rilatsiely few components

contributing, implying that prioritized ag.ng risdnag-ert progranms vuld be most

effective in controlling risk.

1; KE ' VORAO DS DE: *-W-S .. ._ * ' -_ *.*.s * 

Unlimited Aging Pisk Analysis .,^' . -

Reliability Analysis ,..

Aging Effects on Cor.ponent F;ailure Rates Unclassifiec

Unclassifiec 6 rSBEt PAU 

I *~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~t OrIC

I
NUREG/CR-55 10

SAIC-89/1744

Evaluations of Core Melt

Frequency Effects Due to

Component Aging

And Maintenance

*1

Ik

U

.U

Prcpared by W. E. Vesely. R. E- Kunh. S. 1M. SM!70

Science Applications Intrnational Corporation

Prepared for

U.S. Nuclear Regulatorq Commission

REPRODCI'FD By

U.S. DEPALiTMENTOF COMMERCE

NATIONAL TEC .

INWORMATI0M SRYVCE

SPRINGFIELD. VA 22161
S1%

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/* .4*
NUREG/CR-5510

SAIC49/1744

---

Evaluations of Core Melt

Frequency Effects Due to

Component Aging

And Maintenance

Muaruscr;pt Completed: Dccembcr 1989

Date Published: June 1990

Prepredby

W: E. Vesely. R. E. Kurth S. M. Scalz

Science Applicatiorns Intema!i6nal Corporation (SAIC)

2$I41 Kenny Road. Suite 210

Columbus, OH 43221

Prepared (or

Division of Engineering

Office of Nuclear Regulatonr Research

US. Nuclear Regulatory Commission

Washington, DC 20555

NRC FIN L10f2

,I
ABSTRACT

A methodology is developed to incorporate aging effecs into a Probabilistic Risk

Analysis (PRA). The methodolojy separates the PRA models from the aging models,

allowing available PRAs to be efficiently used in evaluating risk cffets of aging. The

methodology is applied to two PRAs to demcnstrate the results vbich are obtainable

from current PRAs. Various component aging rates and various surveillance and

maintenance programs are evaluated to determine their impacts on the resulting corc melt

frequency. BC..n point evaluations and unceruinty evaluations are carried out. The

results of the applications show that for given rging rates, the core melt frequency

impacts are very sensitive to the surveillance and maintenance program which is carried

out. The detailed results which are obtained allow the aging contributors to be

effectively prioritized to focus aging management programs.

0\A.- ,p~

ez.
'::; 'A

-' Ernr~tTE SUMBARY

This report presents the results of a Fr;ect which uas carried out to develop a

methodology to quantify risk effects dx to component and structural aging using a

probabilistic risk analysis (PRA) W =nponent aging models. The methodology which

was developed allows any present r.-- to be used and allows any aging models to be *

used for the components and structs. As an important part of the evaluations, the

effects cf maintenance and surveillz prr-grams in controlling aging are quantifiCd. 'A* 4

Maintenance programs anJ aging s=eil1ancc progams can be explicitly evaluated to

determine their effectiveness in con-ting aging impacts on system unavailability, core

melt frequency and public risk. Bo'- -oint evaluations and uncertainty evaluations can

be carried out, and detailed contribu= to the aging cffects can be identified and can be

ixoritized.

To demonstrate the methodology, ts- FRAs, one PWR and one BWR, were used to

calculate the inrrease in core melt frjuncy caused by aging for given aging data and for

given assumed surveillance and ma=- nce programs. Tle increase in core melt

frequency due to aging vras averaged ever time to obtain an average increase in core melt

frequency. Tlis average increase ir mrt melt frequency due to aging characterized the

effectiveness of the maintenance an! r-veillance program in controlling aging effects.

The average increase in core melt freaency can be added to the baseline PRA core melt

frequency to obtain the projected ccr cmelt frequency under a given maintenance and

surveillance program with aging.

Tle aging of active components -zs =odeled using the linear failure rate aging model

developed in NRCs Nuclear Plant Ar-g Research (NPAR) program. In the linear aging I

model, the component failure late lfiny increases with age according to a char26Aeristic

aging rate. To demonstrate the metcdology four aging rate data bases were used, which

were titled TIRGALEX, MODI, W,`" and MOD3. lhe TIRGALEX aging rate data

base was developed in the NPAR p-:r in and the other data bases were modificatiors of

the TIRGALEX data base These d= bases were used to demonstrate the effects of "-

different aging rates on the core m:': -quency for a given maintenance and surveillance *

program.

rhe two figures on the next pages, citled 'Core Melt Frequency Increase AC Versus

Maintenance Progrdm Characteristi3', summarize the point results that were obtained * -:

for Plant A (the PWR) and for Plans B (uhe BWR). The y-axis on the figures is the

average increase in core mncl frequea-r AC due to aging which is calculated to occur

under a given maintenance prograrr- Tbe x-axis identifies the different surveillance and M

jnair .e-nance programs that were evalpted. L is the scheduled overhaul or replacement

interval (in months) assumed for alt caponents and T is the surveillance interval (in

months) assumed. At an overhaul o :21acement the component is assumed to be 'U

restored to essentially as good as ne- At a surveillarce the component is assureJ to be

in an operational state with minimrna rirs being performed if no failure is detected. At

Preiec _i et,- a 
a failure the component is assumed to be restored to as good as new. Where there is nDo

surveillance in::rval given, it is assumed thz2 there are no surveillances for aging effects

between overhauls or replzaements.

The different resulhs for a given surveillance ond maintenance program correspond to the

four different aging rate data bases that were used. The two figures show the large

differences in core melt frequency increases that result from the different aging

maintenance programs that w-;re assumed The large core melt frequency increases at the

right hand side of the figures correspond to very ineffective mar ntenance programs whidc

are not likely to occur in practice. The rcsvtit are most meaningfully viewed as a

sensitivity study, showing the sensitivity cthe core melt frequency increase to the type

of maintenance program and the aging rates. The results are significant from a technim! l

standpoint because they explicitly quantify the impacts that aging and maintenance an a

have. These evaluations are the first quantitications of aging and maintenance impacts

using full scale up t- date PRAs.

When the core melt frequency increase tC is high for a surveillance and maintenance

program, then examination of the detaiee aging contributors shows that relatively few

components cntribute. This implies tha: a 'graded" mainten2ance program, or

equivalently a 'prioritized' maintenance prrarm, can effectively control the core melt

frequency increase due to aging. In a gradtd or prioritized maintenance program, m;s&

cornponents cm hav a e l level iwer of mai ntenancc provided cor.-melt-frquencyimportant components have a higher l evee o f maintenanc c o.e

Tle dominant aging contributors for Plan4 A (the PWR) were fcjnd to be diesel

generators) specific check valves and mo:x operated valves in the emergency core

cooling 

feedwater 

syste, 

sys!em. 

and 

For 

motor 

Plant 

driven 

B (the 

pumps 

BWMS 

and 

the 

turbine 

dominant 

driven 

aging 

pumps 

contributors 

in the auxiliary 

were the

V

diesels, the motor driven pumps in i L sen-ce water system, arnd the turbine driven

pumps in the reactor core isolation sysier. The aging contribution from every

component in the PRA is provided and is prioritized. Also, the contributions from

multiple component interactions arc provided and are prioritized. These detailed

contributors i-clude contributions from specific systems, components, and failure modes,

and provide a comprehensive means o,'ocusing aging analyses and aging control cffam.

In addition to the point calculations, uncer.2inty evaluations were also carried out. For

the uncertainty evaluations, ranges were assigned to each component aging rate, each

effective ovt.-haul interval, and each effecive surveillance interval. These ranges

described uncertainties and variabilities ir. the data. Log uniform distributions, whicb cc

flat distributicos on a log scale, were us%- for the uncertainty propagations. All the

variabls were treated as being independt:t of one another for the evaluations.

Vi
Core Melt Frequency Increase AC Versus

Maintenance Program Characteristics

Plant A

1.OE-01

1 .OE-02

1.OE-03

(per yr)

< ~~1.0E-04 o

1::E04 . * fBaseline

- - - - -_ -- - - - - - - - - - - - -- 1- -_- - - - - - - - - - - - - - - - Core Melt

Frequencq

1 0E-05 -(per 

yr)

1 .OE-06

1.OE-07

L=18 T=1 L=72 T=1 L-18 L-72 T=6 L-72

Maintenance Program Characterization

L = Overhaul interval (in months) for all components

T = Surveillance interval (in vmontlis) for all components (if intermediate surveillance is performed)
.

Core Melt Frequency Increase AC Versus

Maintenance Program Characteristics

Plant B

1.OE-02

1.OE-03

AC

(per yr)

1.OE-04

1 .OE-05 4.

Baseline

Core Melt

Frequenrv

(per yr) 1 .OE-06

1 .OE-07

1.OE-08 ' L=18 T=1 L=72 T=1 L=18 L=72 T=6 L=-72

Mtaintenance Program Characterization

L = Overha-l interval (in months) for all components

T = Surveillance interval (in months) for all components (if intermediate surveillance is performed)
The two figures on the subsequent pages. labelled "Probability Ibat the Core Melt

Frequency is Larger Than Given Values' show the probability distnrutions obtained for

different surveillance and maintenance programs. For a given surveillance and

maintenance program the probability curve is only given fo: one aging rate data base (the

TIRGALEX data) since the other aging rite data sets produced similar probability

curves. In the fi,4res, a given point on a probability curve gives the probability (on the

y-axis) that the core melt frequency increase due to aging is larger than a given value (on

the x-axis).

Each curve shows the variation in core melt frequency wbich results from a given

maintenance program characterization in terms of how the replacement and test intervals

can vary. Case I corresponds to replacement intervals varying between 12 months and

120 months (a 90% range). Case 2 uses replacement interval ranges derived from the:

TIRG ALEX study. Case 3 corresponds to replacement intervals varying between 12

months and 120 months and surveillance intervals varying between 1 month and 12

months (90% ranges}

Tme higher probability cuwoul tothe righ: again correspond to very ineffective

maintenance programs that would not likely occur in practice Toe curves therefore

should not be viewed as representing current maintenance practices. The curves are most

meaningful if viewed in a comparative sense, showing the relative variability in core melt

frequency increase which results from the variabilities assigned to the replacement and

surveillance intervals. The probability curves show the sensitivity of the core melt

frequency variability to the variability in the maintenance and test intervals. As for the

point results, the detailed contributors indicate that variabilities in the core melt

frequency increase can be reduced by focusing tighter maintenance controls on the coremelt-freque.-cy-important components.

Based on the results of the work, various recommendations can be made. Because of the

sensitivity of the core melt frequency to aging, plant maintenance programs need to be

evaluated for their risk effectiveness. The approaches which have been developed here

can be useful tools for evaluating the risk effectiveness of maintenance programs and for

prioritizing aging contributors to more effLctively focus maintenance programs. The

demonstration aging data used here or owher data can be used to test the effectiveness of a

given or proposed maintenance prograrm with regard to cornrolling risk impacts from a

assumed aging.,

It is very important to collect plant speci.- data to determine the implied aging rates and U

the associated risk effects. Plant specific data can produce different results from those

given here using the demonstration data sets. Because aging rates can be difficult to

estimate, data analysis techniques need to be developed to efficiently detect and estimate .11

component aging rates.

ix
Probability that the Aging Increase in Core Melt Frequency

is Larger than Given Values

:. Plant A

100%

80%

60%

/ Probability

'4 40%

?O%

0 To, .

I x.10 7 lxlo 6

r 1XI10 5 J1XIO- 4 1 Xqi0' . lx.O-2 1xtxl0

Core Melt Frequency Increase (per yr)

- Case 1. L = 12-120 -Case 2. TIRGALEX Range -4 Case 3. L = 12-120 T = 1 12

II

iI
Probability that the Aging Increase in Core. Melt Frequency

is Larger than Given Values

Plant B

100%

80%

60%

Probailhiity -- a-

- - -N

lI

1!I'

V

*1.

I 

40%

20%

0% . . .

.

1xi -7 IX10-6 1x1O05 1x10X3 1x10- 2 ixl 10

Core Melt Frequency Increase (per yr)

- Case 1. L =12-120 - Case 2. TIRGALEX Range -4- C

-~ ~ ~ ~ ~ ~ ~ -~ - .-. -.- - - -~~~~~~~~~~~~~~~I

ase 2-120, 3. L -a T = 112 .Ol."..

mb -~~ ~ ~ ~ ~ ~ ~ ~ ~~ ~ ~ ~ ~ ~~~~~~~~~~~~~~~~~~~~~~~~~~t
The aging contributions from balance of plant equipment, passive components, and

structures are not included in the present evaluations. It is important to include these

critical contributors to obtain a mote complete picture of aging impacts not only on core

melt frequency, but on public health risks. Tle approaches which have been developed

can include these aging effects i'Laging information and models arc assembled as obey

were for the active components. For passive components, since data are sparsn, aging

rates would need to be determined using probabilistic approaches. It is importan to

include these additional contribusors since they can have large impacts.

Finally, with regard to regulatory applications, the approaches which have been

developed can be useful in helping to define maintenance guidelines for controfling core

melt frequency impacts and risk impacts from aging. The developed risk quaa:ification

approaches can serve as useful too&s to complement deterministic evaluations. The

approaches can be used to prioritize aging contributors to detemine where to focus more

detailed, deterministic aging analyses and aging maintenance programs. In to .

applications which were carried out, there was a relatively small number of impoulant

contributors which impacted the core melt frequency, implying that prioritizati3n can be

very effective. The approaches which have been developed =ai also be used to help

define guidelines for risk-effective overhaul intervals and surveillance intervals to control

aging impacts. The approaches cam finally be used as indepaeden tools to evzi.sate the

risk effectiveness of proposed maintenance programs and proposed aging management

programs.

F.
11, 'I" -  -, - I  , ...

Acknowledi

CAFfA pro,

and S.V. Ha

(PRA) input

ACKNOWLEDGEMENI8

,e=ntt Is given to JM. Koren of SAIC who directed etiodifications of the

gram. Acknowledgements tre also given to E.V. Lxtrtn, G.M DeMoss,

rsook of SAIC for their assisnce In preparing the pbabilistic risk aalyvss

s Acknowledgment is finally given to Mary Moore. typing this report.

! :

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:

II

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II

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II

1Wi
TABLE OF CONJENIS '

ABSTRAC.

EXECUbT SSUMMARY.

1. STATEMENTOFTHEPROBLEM.............

2. DOY.

31-AGING-RATE-DATA R.,__ED __ _ _

4. EFFECIIVE OVERHAUL INTERVALS UTILIZED......

5. EFFECIIVE SURVEILLANCE INlERVALS UlTIIZED.........

6. POINT EVALUATIONS WHICH WERE CkRIED OUT.......

7. UNCERTAINTY EVALUATIONS WHICH WERE CARRIED or... .

8. POINT RESULTS FOR PLANT A (IHE PIR)...............

9. POINT RESUL.TS FOR PLANT B (THE BWR)..............

10. VARIABILITY AND UNCERTAINTY RESULTS FOR PLANt A (TH PWR)

Y eiii

VI

11. VARI.ABILITY AND UNCERTAINTY RESULTS FOR PLAN. B (THE BWR)

12. CONCLUSIONSANDRECOMMENDATIONS...

REFERENCES.

APPENDIX A..

APPENDIX B.

APPENMIX C.

APPENDIX D..

APPENDIX E .... :.

6fi _ _ .

20

24

26

29

;32

95

157

171 *

184

IM ~ ~ .

191

B.1

C1i

D.1

El

Preceng page tnk xv
*t" !-' r:t s-.< I f.o.* I _, ;, .I I -' 4 .. . "&*jq:ft - -t. - ...v - 1-  , ,

iST OF TABLES

TABL.E 1. 7TIGALEX DATA BASE .........................

TABLE 2. PUM AGING RATES FROM THE WiEL REPORT .

TABLE 3. CECK VALVE AGING RAM FROM THE INEL

REPORT.

TABLE 4. DIESEL AGING RATES FROM THE INEL REPORT .......

TABLE 5. MOTOR OPERATED VALVE AGINi RATES FRON' THE

INEL REPORT.RT..

TABLE & TIRGALEX-MOD I DATA SET.. .....

TABLE 7. FAILURE RATE DOUBLING TIM FOR TE AGING RATE

DATA USED (BASED ON SELECTED FA1LUaE RATES FOR

PINT A).......

TABLE & FAILURE RATE [>UBLING TMS FOR THE AGING RATE

DATA USED -BASED ON SELECLED FAILURE RATES FOR

PL.A?( B) .....................

TABLE 9. TIRGALEX-MOD 2 DATA BASE Sr-T.

TABLE 10. TIRGALEX-MOD 3 DATA BASE SE.T...........

TABLE 11. EFFECrIVE OVERHAUL INTERV.L USED FORTHE

POINTEVALUATlONS(INMONTHS).........

TABLE 12. EFFECIVE OVERHAUL INTERVAL RANGES USF!r OR

THE UNCERTAINTY EVALUATIONS ..

7

9

10

11

12

14

15

16

17

18

21

22 1

.- a -*yar

l 4?, $

xvi
.- ' .

LIST OF TABLES (CONMPANUQ)

TABLE 13. EFFECIVE SURVEILLANCE INTERVALS USED FOR

ME POIN EVALUATIONS .............................

TABLE 1i4 ACd SURVEILLANCE INTERVAL RANGES USED

FOR THE UNCERTAINTY EVALUATIONS.........

TABLE 15. SUMMARY OFTHE DIFFERENT DATA SETS THAT WERE

USEDFOR THEPOINTI[SECALCULATIONS.....

TABLE 16. THE DIF-ERENT POINTWISE CALCULATIONS THAT

WERECARRIED OUT ................................

TABLE 17. SUMMARY OF PANGES THAT WERE USED FOR THE

UNCERTAINTY EVALUATIONS..........................

TABLE 1. THE IFFEREN7 UNCERTAINTY EVALUATIONS THAT

WERE CARRIED OUT.................................

25

25

27

28

30

31

.7

IR

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xvi i ,.
1. STAWIET OF THE PROBLEM

To help assist in the evaluation of the safety impacts of aging, a project was undertaket:

to develop and demomtrate an approach to quantify the core melt frequency changes dz

to component and structural aging. The approach was to be applicable to PRAs using

available aging data bases and aging models. By quantifying the sizes and sesitivitiesof

core melt frequency changes to aging effects, insights could be pmrvided on the benefit

of regulatory programs for controlling aging effects. The ranking of the contributors to

the core melt frequency changes could also provide a means of prioritizing aging impax

to help focus aging efforts. Also, and importantly, in quantifying core melt frequency

changes due to aging effects, maintenince programs and maintenance guidelines could be

explicitly cvaluated for their cctiveness in controlling core mel frequency.*

The focus of the analysis was to predict the average core melt frequency increase whic

resulted from aginZ under a giv.n maintenance program and using given aging data. Toe

average increase in core melt frequency obtained by averaging the time dependent

increase which occurred between overhauls or replacements. The methodology was also

to have the capability of calculating aging effects on any risk result and to have the

capability of calculating time dependent aging curves as well as average results. The

component aging reliability models which have been assembled in NRCs Nuclear PIl

Aging Research (NPAR) Program were to be utilized for the evaluations and sensitivty

studies. Because there are large uncertainties associated with the aging data and with ie

quantification of aging effects, it was also important to quantify the uncetainties

associated with the results.

The results which are presented in this report should be viewed as a demonstration of the

methodology to quantify the core melt frequency effects due to aging. The core melt

frequency increase due to aging of active components is specifically quantified in this

study. The effects from balance of plant equipment, passive components, and structwes

are not evaluated, although the methodology which was developed can be aplied to

these contributors. When considering passive components and structures, it is also

important to evaluate ahe impacts that aging has on accident sequence frequencies aal

public health consequences, which tht methodology allows. Fically, it is important t3

note that proposed regulatory programs which can have important effecb in controlling

component aging are not explicitly taken into account in the present evaluations. Tbh

impacts of specific programs can be explicitly evaluated in future applications.

2. METHODOLOGY

Thc core melt frequency as calculated ir. a probabilistic risk Cnalysis (PRA) is a functimn

of the corwiponent cnavailabilitirs, structure failure probabilities, and initiating event

frequencies. Iet C be the core melt frequency as calculated in a PRA. More generail, C

"Mainteasarc prograes used hetm means lsumilr= ad maintenanz pogmwo.

1

'a

'a I

U
can be any result :alculated in the PRA Le. qi denote an Individual component

unavaiability, structure failure probablity, or initiating event firquency modeled in the

PRA.

Aging effects can cause an Increase Aqi in q. The increase Aqi is generally a function of

the equipment aging rate and plant malmenance policy. The increase q; is also

generally a function of the age of the eq;ipcmenL A particular increase qi in turn will L.

cause an increase tC in the core melt frequency. Multiple equipmert which are aging

will each have their ownn Mi which wil! collectiv-Jy cause an overall increase in the core

melt frequency. It is v.y important to consider the muitiple effects of Pging since in a

plant multiple equipment are likely to be simultaneously aging.

To calculate the core melt frequency cbange bC as a function of the component and

structe aging changes Aqi, an approah was desired that would account for individual

equipment aging effects as well as muh-ple aging effects. Since the Aqi are not

necessarily small, the approach needed 20 accommodate arbitrary sizes of Aq Also, It

was desired that explicit contributors to AC be quantified in detail to allow their

identification and prioritization. Finally, an approach was desired that v ould allow

maintenance programs to be evaluated ;nd would allow different risk mcasures to be

used if desired.

In order to address the above considerations, and to make -iximum use of already

available PRA software, a Taylor expansion approach was utilized o express AC as a

function of the Aq. A Taylor expansim approach is a standard calculus approach used to

express a change in a depend. nt variable as a function of the chang:s in the independent

variables. (See for example Reference (1)) Tle standard Taylor expansion of AC as a

function of Aqi produces the following equation:

AC= I S:Aq; + I S-Aq-Aq- + I SijkAqihqjAck i i>; 1 i~.j>k

+- + S1 23 n... nq2 ... -q . (1) 

The S, Si., etc., are standard Taylor expansion coefficients (i.e., the first derivative o! C,

the second derivative of C divided by 2, ec) The S- Sjj, etc, can termed the core mdt

frequency sensitivity coefficients or core melt frequency importance coefficients.

Equation (1) gives the core melt frequency change as a sum of detailed conttibutions.

Tne first term on the right hand side is the sum over all individual aging changes. The

secoad summation is ove all combinbtions (interactions) of two aging effects, etc. Mte

expansion continues until all contributions and interactions are considered up to the

maximum number (u) of aging effects considered and contained ia the PT!A.

Equation (1) has some important featares The equation is valid for any size of aging

contribution Aqi and includes aging contributions from componens, structures, and

2
initiating events. The aging contributions are stparated into indivit;al aging

contributions Sjhqi, two coml anent (or structure or initiating event) interactions

S-,qijqiJ, thre- component in;ractions SijktqiAqjdqk, etc. The aging contributions am

thus very detailed, provjidng individual agirg effects and multiple aging effects.

Each 

factor. 

contribution 

For each single 

clearly 

component 

show; the 

contribution 

core melt frequency 

Siqi, S; 

importance 

is the core mclt 

factor 

frequency

and the agizg A

importance factor and Aqi is the aging factor. For each two component contribution

SijqiAqj, Sij is the core melt frequency importance f-i-or for the interaction and Aq;j

is the double component aging factor. Similar breakdowns apply to all the other

contributions. Tle sum of all the aging contributions gives the total core melt frequency

change AC due to aging.

The computational advantage ol Equation (1) is that the PRA evaluations are separated

from the aging evaluations. Tre sensitivity coefficiens S . S etc, can be computed

from the PRA independently ofany aging ev2luations. Algorithms were developed to

efficiently calculate the sensithiity coefficients from PRA models. The methodology and

algorithms are described in Appendix A. Thb CAFTA computer code (2) which is a

standard PRA code, was specifically modified to calculate the sensitivity cxfficients f;r

any PRA. ihe aging contnrbutions Aqi can be separately calculated using appropriate

aging models. Any aging modds can be used. The secsitivity coeffcients S.;, Si,- etc.,

can then be combined with the aging contributions using Equation (1) Software was

developed to perform these synthesis evaluations.

As was indicated, the Taylor expansion for AC given by Equation (1) is valid for any

model for Aqi. The increase in unavailability Aqi can be an average increase, or can be a

lime dependent or age dependent increase. For the applications thas were carried out, the

increase in unavailability between component replacements or overauls was averaged to

obtain an average increase in i. availability due to aging. Also, the Unear aging model

developed in the NWAR program (3) was specifically used to calculate Aqi. From

s;tandard reliability theory, whs, a component is periodically overhauled, replaced, or is

otherwise renewed, at intervals of L with no intermittent checking for aging effects thc;

Aq(L) at the end of the overhail interval is given by the formula

L L

Aq(L) = exp(-|Ift) - exp (-f Q( + at) dt) (2)

0~~~~~~~~ '

or to first c der,

b&q(L)= I aL 2 , (3)

2

where X is the xonstant failure rate and a is the aging rate for the pertinent failure mode.

3
I

Tbe average unavailability Aq due to aging over the overhaul interval is then to Erst order.

q I a L2

6

(4)

IL-N. ..

'.X

The overhaul, or .1 renewal, interval L is the izterval at which the component is restored to

essentially as good as new with regard to the pertinent failure modes in the PRA. The

age of the component is restored cffwctively to a value of zero. In reliability terminology,

L is termed the 'good as new' interval since the component is basically restored to as

good as new condition. If L varies, L'en Lcan be taken as the average interal.

If overhauls are not completely effective iL detecting and removing aging effecas then L

is tbe effective overhaul interval. Ihe effective overhaul interval can be defined to b

actual overhaul interval divided by the efflc ency of the overhaul in detecting an!

removing aging effects. If the component is overhauled only at failure then L can be

taken to be the mean time between failures. The value of the effective overhaul interval

for each component is determined by reviewing the plant's maintenance program.

If surveillance for aging effects isc done between overhauls then the effects of the

surveillance can be incorporated into the fccmula for Aq. Assume that, in additkoa to

overhauls being performed at L surveillance is performed at intervals of T on the

component. Assume that at a surveillance tae component is assured to be in an

operational status with minimal repair being performed. As shown in Appendix B, the

formula for the average unavailability increase ,q between overhauls then becomms

:

-i

Aq = I a(L-T)T+ I aT 2 .

4 6

TtT: iT....At~^ k T *rr A !^ . -%^ {

(5)

1 L 5I z9Ual lu A, or 1L IL;U1jUodIII I M:

simplifies to Equation (4).

In reciability terminology, T is termed the 'g

basica'ly in the same condition after the tew

surveillance tests can restore the componer:

old' and "as good as new". Without additiai

here as a reasonable model for surveillance I

not zompletely effective in detecting and czi

formula is the effective interval, which is t6

the surveillance. If in a maintenance progra;

specified by the plant's technical specificat2c

specified by technical specifications, divide

correcting aging effects. If the effciency s

with only overhauls, Equation (4), shauld bt

UVCKcLIIIIdIIio1 UL L., UIC "qUdI.IUFn k.J)

:ood as old interval" since the component, is

as before the test. In reality, some

to a state somewhere between "as Lpod as

nal test data, the good as old model is used

test effects on aging. If the surveillnce is

rrecting aging effects then T in the above

actual interval divided by the efficncy of

m, there is no aging surveillance beyond that

)ns then T is the surveillance intenral

I by the efficiency of the test in detecting and

assessed to be low then the formula for &q

used. Reference (4) provides expert

4 1

:- - '1 .. 1_
CSSimatD s of efficiencies, in terms of Aging detection p:mbabilties and aging mitigation

probabilities, for various components.

IG application, the effective overhaul intervals and effective surveillance intervals can be

determined by examining the plant's maintenance and wrveiliance program. If overhauls

or surveillances ar performed on specific component Vieceprts (or subassemblies) the

piecepart intervals an be averaged to obtain an overar compcnent interval. The

intervals need to apply to the specific failure mode idezified in the PRA. Alternatively,

more detailed risk modeling can be performed, in whimz the component is subdivided

into its major pieceparts or subassenmbies, each with i; own overhaul interval and/or

surveillance interval.

For the applications performed in tis work, an effectiv overhaul interval and effective

surveillance 

pieceparts or 

interval 

subassemblies 

is assigned 

contnibuifg 

to ea h component, 

to the failure 

resenting avcrages over the U

mode. For some evaluations, only

an effective overhaul interval is assigoed, implying tha: additional aging surveillance

tesing was not part of the maintenance program charaterizawon or was treated as being

inmffective in detecting aging effects.

The above formulas, even though they are basic fornmus in reliability theory (as

discussed in Appendix B), are not srz-dardly used in probabilstic risk analyses (PRAs)4

Tlis is because aging is cot considered in sandard PR.s, and hence the aging rate is

assumed to be zero. TLe overhaul o: replacement interval L tfus does not enter in PRAs.

Tbe surveillance interval T enters as technical specifiction in ervals, but it is not

adjusted for its efficiency in detecting aging effects to rbtain an effective aging '

surveillance interval, again because aging is not consiaered.

Finally, it should be noted that the above formulas repmsent tie simplest formulas for

modeling agir.g cffects on the compo-ent unavailabilit1. Mort complex formulas can

in:orporate threshold effects, where Piing begins aftcr some Ereshold age, and can r.

in:orporate nonlinear effects, in whi&a the aging failure rate is a nonlinear function of the

age. The component unavailability cw furthermore be partitioned into a per cycle, or per

demand, contributioi plus a pure timL dependent contribution Each of these

contributions can have its own aging effects. Using szidard reliability theory, the above

expressions for Aq an be modified to incorporate any rf these extended models. These

extended models can be useful for seasitivity studies 0: can b: applicable if sufficient

data are available to differentiate the more complex mcdels from the above, simpler

models.

. X~~~~

S s

..... ~~~~~~~~~~~ 1
v i*

3. AGING RATE DATA UTIUZED

Table 1 gives one set of aging rates (denoted by 'a' in the previous equations for Aq) that

were used to demonstrate the methodology. The aging rates in Table 1 are calkld tb1

IIRGALEX aging rates siinx they were estimated in the NPAR program to help

prioritize aging effects for research for use by the NRC TIRGALEX committee. These

aging rates are reported in NUREG CR-5248(4) The aging rates in Table 1 arc genenc

aging rates and are averages over failure modes, systems, and plants. The aging rates

have large uncertainties and am used here to demonstrate the methodology.

For the uncertainty evaluations, the aging rates were treated as random variables with

individual log uniform distributions. The log uniform distribution is a flat distribution on

a log scale, which implies no most probable value. This assignment of the log uniform

distribution was judged to be consistent with the minimal information that was available.

For the uncertainty evaluations, the 90% error factor associated with each aging rate is

taken to be a factor of 10. Thnus, the aging rate multiplied by a factor of 10 gives the I

upper 95% probability bound and the aging rate divided by a factor of 10 gives the lower

5% probability bound for the aging rate. The factor of 10 was determined based on

assigning an error factor of 3 to the aging fraction and an error factor of 3 to the mean E

time to failure, which were used in determining the aging rate in NUREG CR-5348. The

crror factors of 3 were then combined to give fn error factor of :0 (to order of

magnitude) The error factor of 10 can be viewed as a subjective estimate of the error for

each aging rate.

To supplement the TIRGALEX data base, three additional demonstration data bases were

constructed, which were modifications of the 7IRGALEX data base. These data bases

were titled TIRGALEX-MODI, TIRG.LEX-MOD2, and TIRGALEX-MOD3.

TIRGALEX-MODI was constructed by modifying the TIRGALEX data to reflect results

of a small study to estimate aging rates for specific plants. TIRGALEX-MOD2 and

TIRGALEX-MOD3 were constructed as additional sensitivity study data bases to

represent given types of agirg in specific components.

As part of the NRC project to evaluate the core melt frequency impacts of aging, the

Idaho National Engineering Iaboratory (INEL) independently carried out a small study

to estimate aging rates of specific components for the two plants (5). A limited set of

plant specific data, data from the Licensee Event Reports (LERs) and the Nuclear Plant

Reliability Data System (NPRDS) were used. In a number of cases, aging was not able

to be definitively identified with the sample of data and the techniques dhat were used.

The aging rate estimates obtained in the INEL study generally had large associated

uncertaintles.

To obtain the TIRGALEX-MODI aging rates, the TIRGALEX 2 aig -- rates were

compared to the INEL aging rate estimates and, where necessary. cre modified to be

6

-i -%L~~~~~~~~~~~~~~am .I, _
TABLE 1. TIRGALEX DATA BASE

COMPONENT

AC B'is

Air-Operated alhe

Battery

Check Valve

Circuit Breaker

DC Bus

Diesel Generator

Fan

Heat Exchanger

Motor-Driven Pump

Motor-Operated Valve

Power-Operated Relief Valve

Relay

Safety/Relief Valve

Transformer

Turbine-Driver. Pump

AGING RATE

(failures

per hour

per year)

IE-09

4E-C7

4E-09

2E-08

IE-09

4E-06

2E-07

IE-O8

2E-07

4E-06

7E-07

3E-07

7E-07

2E-09

3E-06

i

i

II

II

Vzlf

.4;

f

-4"

7

3: A , A -' , -- . I . A~~~~ ..~- rA !,, .
consistent with the INEL estimat, within the uncertarnties of the TIiJAia ae INEL ! l l

data. lec middle 50% aging rat: values reported in the rNEL study v-ze m : ;r t |

-comparisons since they were midpoint estimates and best correspond- L' t 1 |

aging rates given in the TIRGALEX data base.

The NEL report presented .?r)g rate estimates for pumps, valves, aso die. Trae 2

shows the middle 50% pumo aging r les that were estimated in the rc ri. Tic aj

rates are armn, I i*n decrtrsing ardr- of value and are for turbine pursv, ugr u * v -m%

pumps, different failure modes (failure to run ;nd fa;:ure to start), Par..eirr .df.; 

systems. As Table 2 indicates there is no apparent corre!a.ion betwee the a~i I

value and the type of pump, failure mode, and system. The two higher agig ms re 6

05 and 1-05 and are from plant specific data for approximately a 7 yr ti=:rci. ;L

Other than these two high values, the aging rates lie between 3-07 ant WOE

approximately a factor of 10 spread. Including these two high values,te pfrir - Ge lie

between 3-07 and 6-05, approximntely a factor of 100 spread.

The TIRGALEX aging rate for motor driven pumps is 2-07, which is t he Lw cs rf

the INEL range given in Table Z The TIRGALEX motor driven pur 2--= re f2-07

was consequently increased by a factor of S to 1-06 to be more center- = PF.

range. The TIRGALEX turbine pamp aging rate of 3-06 was not cha.:. s1;r ,

factor of 10 assigned to the TIRGALEX aging rates was retained for *e p= 41#

rates. The error factor of 10 on the modified motor driven pump agir ra- ;aid m <

unmodified turbine driven pump aging rate served to cover the INELris nrTie .t

Table 3 shows the middle 500%* check valve aging rates estimated in tire N. r:xr.,

Tle range of the aging rates is from 4-07, tc 5-06, approximately a fa=-r ca '. u s

covers all the failure modes and systems evaluated. The TIRGALEXai ra 409 11'

was consequently increased by a factor of 100 to 4-07. Thec modified --L 14-sas

equal to the lower end values in tie INEL range, for failure to open. The c rr-c'

10 on the modified value of 4-07 then served to cover the higher end r: tL . ' -*t

in Table 3, for back leakage.

Table 4 shows the diesel aging ras estimated in the INEL report fo. e fLi.- =:Q:s of

failure to run and failure to start. They differ by less than a factor of c=- It: I06 to 8-06. The TIRGALEX value of 4-06 was not modified since it ces .. me N z.

range and the error factor of 10 covered the range.

Finally, Table 5 shows the two mmor operated valve aging rates that vr: =:z-! Z,

the INEL report, 3-07 and 5-07. The TIRGALEX value of 4-06 was ;r = ! b, I

factor of 4 to 1-06 to be more contnstent with the INEL values. The !'.EX i.zvwas not decrea::d further since i' - uld then become inconsistent Ws. cng

TIRGALEX aging rate values (eg. aging rate values for air optrated s-ivi- r i 

*Tb otalioo 6-05 mcans 6x105. Ali aig- res arc i uni; of per hour pery=.-

8~~~~~~~~~~f

S j1~-~~
a~~~~~~~~~~~~~~~~~~~~~~~~~wS~~~~~~~~~~~~~~~~~~~~~~2i

TABLE 2. PUMP AGING RATES FROM THE INEL REPORT -

Failure Mode Middle 50% Ainmg Rate

(per hour per year) l

AFW turbine driven pump fails to run

AFW motor driven pump fails to run

AFW turbine driven pump fails to run

AFW motor drivern pump fails to run

HPCI turbine driven pump fails to run

AFW motor driven pump fails to start

AFW turbine driven pumrp fails to start

AFW turbine driven pump fails to start

High pressure injection pump fails to run

Low pressure injection pump fails to start

LPI pump fails to start

AFW turbine driven pump fails to run

AFW motor driven pump fails to start

Reactor core isolation cooling turbine driven purmp fails to start

Low pressure injection pump fails to run

HPCI turbine driven pump fails to run

Reactor core isolation coing turbine driven pump fails to start

AFW motor driven pump fails to run

AFW motor driven pump fails to start

Auxiliary feedwater pump steam binding

Auxiliary feedwater pump steam bindIng

ESW pump fails to run

ESW pump fails to run

6E-05

JEM

5E-06

5E-W

4E-06

3E-06

2E-06

2E-06

2E-%

2E-06

2E-06

2E-6

IE-06-

IE-06

IE-06

7E-07

7E-07

6E-07

5E-07

4E-07

4E-07

3E-07

3E-07

I

I

i

1

4

9
I,-- _--- ..,a-_____ ,,-. _ 

! I

TABLE 3. CHECK VALVE AGING RATES FROM MME NEL REPORT

FaPst Mode Middle 50% Aging Rate

( per hour per year )

AFW pump discharge check valve bacileakage SE-06

Auiliary feedwater pump discharge check valve backleakage 4E-06

Auiliary feedwater pump discharge check valve backleakage 5E-07

Emergency service water check valve fails to open 5E-7

Emergency service water check valve f*ils to open SE-07

High pressure coolant injection check valve fails to open 4E-07

High pressure coolant injection check valve fails to open 4E-07

Y

.. .-

.,,, ~~~~~~~~~~~~10
TABLE 4. DIESEL AGING RATES FROM THE [NEL REPORT

Failure Mode Middle 50% Aging Rate

(per hour pr year)

Enun cy diesel generator fails to run SE-06

Emergercy diesel generator fails to start 4E-06

Emergency diese' generator fails to run 1E-06

i

11
~~~~~~~~~~~-.a-4 ,.. , -o

TABLE S. MOTOR OPE TED VALVE AGING RATES FROM TE NEL REPORT

Failure Mode Middle 501 Akiing Rate

(per hour pa year)

HPCI motor operated valve fls to open 5E-07

HPCI motor operated valve fils to open 3E-07

12
relays). As NUREG/CR-5248 ladicates, the reti values of the RGALEX aging X,

rates were given most atention in establishing thb dta base. The mr factor of 10 at

the modified lIRGALEX value theovered the INMEL values.

Table 6 shows the modified TIRGALEX aging at: data base, termed TIRGALEXMOD1, with the three changes for motor driven pt.ps (a factor of S increase), motor

operated valves (a factor of 4 decrase) and checivlves (a factor of 100 increase).

With the exception of check valves where the INIL estimates tended to be a factor of

100 higher, the other changes wer moderate, consering the error fa:ors of 10 on the

TIRGALEX aging rats Again, the turbine driver, pmp aging rate and the diesel aminij

rate were not changed because the TIRGALEX vahs lay in the center of the INEL

values.

As was previously indicated, the second and third oodifications of thcTIRGALEX dais

base served as additional sensitivity study data base. To obtain the second modified

data base frc.a the TIRGALEX data base, aging rims of selected components were

modified to achieve given failure rate doubling tims A failure rate doubling time is the

time at which the initial failure rate is doubled. Tk initial failure rate is the failure rate

without aging and is the failure re used in the PRA Table 7 gives doubling times for i

major components for the PWR PRA (Plant A) usEg the TIRGALEX aging rates and dke

TIRGALEX-MODI aging rates. Table 8 shows tisc doubling times for selected

components for the BWR (Plant B) using the TIRGALEX aging rates and the

TIRGALEX-MOD1 aging rates The components swexted are those which are the

dominant contributors in the PRA. The differences ir. the fa.lure rates used in the PRAs

cause the doubling times to be different for the two lar.ts.

As Tables 7 and 8 indicate, the doubling times rang: from less than one year to 90 yeams.

To obtain an aging rate data base that represents a Lcwer threshold-type of aging, the

aging rates of the components shown in the tables we modified so tha: the failure rate

doubling time for each componeat became 20 yeam If the doubling time is 20 years *hit would be difficult to detec aging behaviors in the components becaus: of tie ni ow

growth of the failure rates. In this sense, the aging rs,:s represent a lower threshold

aging behavior which would be difficult to detect wiki current data collection programs.

Table 9 shows the modified TIRGALEX data base, =mad TIRGALEX-MOD2, with thf

modified aging rates for dicsels, pumps, and valves mcresponding to doubling times of

20 years.*

Table 10 shows the final modified data base which was constructed, termed TIRGALEXMOD3. 'his aging data base represents an upper th.'eshold to aging, which is a

maximum type aging rate that colic occur and still be difficult to detect if appropriate

analysis procedures were not used. For this aging =r: data base, aging rates of x10-5

Wberc the PR Rand BWR differd i aires, the minm 6etemined agg t was used.

13
TABLE 6. T1RGALEX - MOD I DAtA SM,

COM4PONENT MODIFIED

AGING RATE

(failures

per hour

per year) i

AC Bus IE 09

Air-Operated Valve 4E-07

Battery 3E-07

Check Valve 4E-07

Circuit Breaker 2E-08

DC Bus IE-09

Diesel Generator 4E-06

Fan 2E4.-07

Heat Exchanger 1E-08 4

Motor-Driven Pump 1E-06

Motor-Operated Valve IE-06

Power-Operated Relief Valve 7E-07

Relay 3E-07

Safety/Relief Valve 7E-07

Transformer 2E-09

Turbine-!)riven Pump 3E-06

14

* - , - *4I
TABLE 7. FAILURE RATE DOUBLING TIM FOR THE AGING RATE DATA USED

(BASED ON SELECTED FAILURE RATES FOR PUNT A)

TIROALEX TiROALBX-MOD 1

Component Failure Rate Aging Rate Doubling Time Aging Rate Doubling Time

(per hour) a DT (year) A DT (year)

(per hour per year) (per hour 2er year),

Diesel FS 2E-05 4E-06 6E+00 4E-06 6EO0M

Motor Driven 28-05 211-07 9E+01 1E-06 212+01

Pump FS

Turbine Driven 2E-05 3E-06 7E+00 3E-06 7E+00

Pump FS

Chpk Valve | 3E-07 4-09 8|E+01 4-4E07 E-801

Motor Operated 8E-06 4-06 2E00 IE-06 7B+00

Valve PC

U'~

Modes:

FS = Fails to Start

FC - Fails Closed
i

III

I

II

ii

I

TABLE 8. FAILURE RATE DOUBLING TIMES FOR THE AGING RATE DATA USED

(BASED ON SELECTED FAILURE RATFS FOR PLANT B)

,$

TIRGALEX TIRGALEX-MOD I

Component Failure Rate Aging Rate Doubling Time Aging Rate Doubling Time

(per hour) a DT ( year) i DT (year)

(per hour per year) (per hour per year)

Diesel FS 8E-05 412-06 212+01 4E-06 2E+01

Motor Driven 6E-06 2E-07 3E+01 IE-06 5E+00

Pump [S

Motor Driven 2E-05 2E-07 9E+0 I IE-06 2E+01

Pump FR

Check Valve 3E-07 4E-09 8E101 4E-07 8E-01

FC

Motor Operated 8E-06 4E-06 212+00 1E-06 7E+00

VnIve PC _

O.

Modes:

FS = Fails to Start

FC = Fails Closed

PR - Fails to Run

A M I.~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~' *'
TABLE 9. TIRGALEX - MOD 2 DATA BASE SEET

COMPONENT AGING RATE

(filures

per hour

per year)

AC Bus IE-09

Air-Operated Valve 4E-07

Battery 3E-07

Check Valve lE-08

Circuit Breaker 2E-08

DC Bus IE-09

Diesel Generator 4E-06

Fan 2E-07

Heat Exchanger IE-08

Motor-Driven Pump 3E-07

Motor-Operated Valve 4E-07 A

Power-Operated Relie Valve 7E-07

Relay 3E-07

Safety/Relief Valve 7E-07

Transformer 2E-09

Turbine-Driven Pump 3E-06

,~~~~~~~~~~~ !4-'''- ~ ~ ~~~~~~~
N.

TABLE 10. TIRGA. - MOD 3 DATA BASE SET

COMPONENT AGING RATE

(failures

per hour

per year)

AC Bus IE-09

Air-Operated Valrv 4E-07

Battery 3E-07

Check Valve lE-05 - Circuit Breaker 2E1-08

DC Bus IE-09

Diesel Generator IE-5O

Fan 2E-07

Heat Exchanger IE-08 a

Motor-Driven Pump IE-05

Motor-Operated Valve IE-05

Power-Operated Relief Valve 7E-07

Relay 3E-07

Safety/Relief Valve 7E-07

Transformer 2E-09

Turbine-Driven Pump IE-05 ii

* &~~~~~~~I

~~~~~~~ il~~~~~~~~~~~~~~~~~
per hour per year were assigned to motor driven pcnps, turbine pumps, diesels, check

valves, and motor operated valves. This aging rau: corresponds to one failure occurring

on the average after 5 years due to aging. This agicg rate ib also equivIlent to an

unavailability contribution of approximately 0.1 aPter 18 mcnths, if no intermediate

corredive measures are taken. Appendix C presents further details on the derivation of

the sensitivity aging ntes used in the TIRGALEX-MOD2 and TIRGALEX-MOD3 data

bases.

I I..

: E

19.
4. EFFECIVE OVERHAUL INTERVALS UfIUZED

As used in this report, the effective overhaul interval, or effective renewal interval, is the

interval at which the component is replaced or is effectively restored to as good as new

condi:ion and the component age is set back to zero. In actual practice, individual

component subassemblies and pieceparts are generally replaced or overhauled. The

component overhaul interval is then the average over the individual subassembly

intemals or piecepart intervals. In more detailed modeling, each subassembly or

piecepart can be modeled and given their associated overhaul intervals, or replacement

ingteras.

The effective overhaul or replacement interval is the maintenance parameter required for

risk analysis. The effective interval is the actual interval divided by the efficiency of the

ovethaul activity in detecting and correcting the failure modes, which are caused by

aging. Again, the component effective overhaul interval can be taken as the average over

-the subassembly or piecepart effective intervals.

To evaluate the effectiveness of different aging maintenance programs in terms of

controlling the core melt frequency, several sets of effective overhaul intervals were used

for the applications. The different effective overhaul intervals which were, used for the

point evaluations are shown in Table 11. The different effective overhaul intervals which

were used for the uncertainty evaluations are shown in Table 12.

As Table 11 shows, for the point calculations there were three different sets of overhaul

interval values used. For one calculation the effective overhaul interval for each active

component was assigned to be 18 months. This is equivalent to all active components

being overhauled, or renewed, at every scheduled shutdown, with shutdowns occurring

on the average every 18 months. For a second calculation, each active component was

assigned an effective overhaul interval of 72 months, or 6 years. This is equivalent to all

components being overhauled, or renewed, on the average every 6 years.

For he third point calculation, the effective overhaul intervals developed in the

TIRGALEX study (4) were used. The TIRGALEX overhaul, or renewal, intervals

i- xporated subjective assessments by a group of individuals on the effectiveness of

prescat tests and maintenances. Since the TIRGALEX values have not been validated,

the TIRGAIEX values are only considered as one additional set of overhaul interval

values serving to demonstrate the methodology.

For the uncertainty evaluations, the overhaul intervals were treated as varying, in order to

determine how variabilities in the overhaul intervals impacted the variability of the core

melt frequency. As Table 12 indicates there were two sets of effective overhaul interval

ranges used for the uncertainty evaluations. For one uncertainty evaluation, the 90%o

overhaul interval range for each active component was defined to be 12 months (1 year)

to 120 months (10 years). This range, for example, can be interpreted as implying that

5% of the plants have anroverhaul interval less than 12 months and 5% more than 120

20

_ _ , _ ~~~~~~~~~~.t. . ...~..t,. .............

4

! 4-

4.

I . ! A
TABLE 11. ApdnE OVERHAUL NTRVALS USED

FOR THE POINT EVALUATIONS (IN MON S) .1.

COMPONENT 18 MONTH 72 MONTH TIRGALEX

CASE CASE CASE

AC Bus 18 72 40

Air-Operated Valve 18 72 40

Battery 18 72 7

Check Valve 18 72 200

Circuit Breaker 18 72 40

Dq Bus 18 72 40

Diesel Generator 18 72 11

Fan 18 72 29

I-Heat Exchanger 18 72 33

; 9 Motor-Driven Pump 18 72 27

Motor-Operated Valve 18 72 5

Power-Operated Relief Valv 18 72 22

Relay 18 72 33

Safety/Relief Valve 18 72 22

Transformer 18 72 29

Turbine-Driven Pump 18 72 27

- - - 2 * . ..

W____g,- 

-- .1
TABLE 12. EFFECTIVE OV3RHAUL 1NERVAL RANGES

USED FOR THE UNCERTAINY EVALUATIONS

a.

'* COMPONENT 12 -120 MONTH TIRGALEX CASE

CASE (months)

AC Bus 12-120 18 -120

Air-Operated Valve 12 -120 18 -120

lInglerv 12 - 6-n 6i-70

Cheutk V"lv' 12 - 120 18 -120

Circult 13rivaker 12- 120 In- 170

0C 11,it 12 - 170 18- 120

Dicscl Generator 12 - 20 3 -110

Fan 12-120 18-120

t s Heat Exchanger 12- 1'0 3 - 120

Motor-Driven Pump 12-120 12 -120

Motor-Operated Valve 12 - 120 3 - 50

Power- Operntd Htelre1 VAlvO 12 120 18 120

Rcaly 12 -120 6 120

Szfety/Relief Valve 12 -120 18 120

Transformer 12-120 18-120

T,.iurtine-O-rIvn Pump 12 -120 12 - 120

i~~~~~~~~~~~~~~,~1
months. The median of the range is 38 months or approxizatly 3 years. Thus, this

range can equivalently be interpreted as representing 50% of the plants having oveitaul

intervals less than 3 years and 50% having overhaul intervals greater than 3 years, sith

an approximate factor of 3 variation about this median (given the 12 month to 120 uonth

range).

Ihe second uncertainty evaluation was performed using the second set of ranges shown

in Table 12. These ranges are associa;ed with the TIRGAIEX-renerated intervals. 'Me

lower bound corresponds to a minimum value of the overhaul interval given in

NUREGICR-5248 (4) corresponding to perfect detection and correction by the tests and

maintenances. The upper bound interval was taken to be the interval assigned in the

TIRGALEX study multiplied by a factor of 10. The factor of 10 was determined by

asOgning error factors of 3 to the detection probability and mitigation probability

assessed in NUREGICR-5248, which were then combined to give the error factor of 10 to

an order of magnitude. To limit the sbz of the maximum renewal intervals considezed,

the upper bound was truncated at 120 raonths if it was larger than 120 months.

I

I,

i

I

aI

23
- _

W-* t # 

., A

S. EFTECrIVE SURVEElLANCE NTEKMVAS UTIUIZ

-n addition to ovcrbauls or replacements the component may also be check by

surveill2nce tels to ensure it is operationaL Of relevance for aging analysis is tke

effectiveness of the surveillance test in detecting degradations of the comp pw: uii

arc due to aging. The effective surveillance internal is the actual interval dhiikd ky the

efficiency of the lest in detecting aging effects.

With regard to aging implications, surveillance tests generally do not hPve &e s

effect on the amponent as do ovrhauls or replacements. Generally minormicemnces

or minor repai iare performed atsurveillance testL Ifa major subassemblyhr pexpart

is found failed and is replaced then this constitutes an overhaul or replacemero bce

component Surveillances are thcs what are done between overhauls or repia.2mczls.

A surveillance test is modeled here as assuring the component is operationa! but mt

basically changing its age. In reliability terminology, the surveillance test izrvah ar

called 'as good as old' intervals since the component age coming out of the tst is

basically the same as the component age going into the test, i.e., the compowc! is s

good as old with regard to its age. The effective interval value includes the efficimcy of

the surveillance or overhaul in detecting and correcting aging effects. If, for exmple,

surveillances are not assessed tobe effective in detecting aging degradatio Lhem 

surveillances are not considered between overhauls

Table 13 gives the effective surveillance intervals that were used for the poi eabations

when both surveillance and overbaul intervals were considered as characterzi a; aging

maintenance program. As shown in Table 13, the effective surveillance intevah

considered were 1 month and 6 months. The 1 month effective value can re;-s.

monthly tests which have perfect efficiency in detecting aging failure modesL Tht 6

month effective valuc can represent monthly tests with 16%/o (1/6) efficiency or

alternatively 3 month tests with 50% efficiency.

Table 14 shows the effective surveillance interval range, 1-12 months, that ws cisd for

the uncertainty evaluations. This range can represent monthly tests with dif-rez:

possible efficiencies (of 1 to 1112) This range of 1-12 months was taken to be a 9

range with 1 month as the 5% lower bound and 12 months as the 95% upper boc:

f 4 . * 24 r f: -
IINi

TABLE 13. EFECMVE SURVAEIANCE INTERVALS USED FOR THE

POINT EVALUATIONS j i

COMPONENT EWIECTVESURVEILANCE INTERVAL l

All n lcp tI

All active components 1 months

All acive components 6 months ! -

TABLE 14. EFFECTIVE SURVElllANCE INTERVAL RANGES USED FOR

THE UNCERTARINY EVALUATIONS

COMPONENT SR&ELLANCE INTERVAL RANGE (90 %)

All active components 1-12 months

25
C POINT EVALUATIONS WHIICH WETRE CARPRIE? OTUT

As was indicated previously, pint evaluations and uncertainty ecaluations were cnsied A;

out to determine the average core melt frequency increases that r=Ited from aginr under

given maintenance programs. For the point evaluations and the =ertrnty evalur±oas, a

PRA for a PWR plant and a FiA for a BAR plant were used. Th PRAs were use! to

demonstrate the methodology and hence the particular PRAs wlii± were used are rwt of

relevance here.

The Taylor expansion method;ogy described in Section 2 was vr:ied to calculate the

single component contributiom SiAhq and the double componen::sntributions Si~ij &j

These were then summed ove all the component contributions fx which aging rat= £

wem assigned. Only single an! double contributions were calcu'zed. This will temd to

underestimate the total core mne frequency change due to aging because of the tr=60atioo

of the higher order contributos However, spot checks indicated :ese higher order

contributions were generally neligible except aI high core melt 1quency increasm due i

to aging (eg., for core melt fiej;ency increases due to aging of U10-3 per year or

higher). For these high cases, ike single and double contributios were sufficient lo

indicate high core melt frequey increases due to aging. The c=ributions were

manually checked for specificcases to validate their accuracy.

As was previously indicated, Ex the pointwise calculations and mertainty calculavbns

all the active components were assigned associated aging rates tcrepresent simultanaous

aging occurring in the componts. Because the PRAs truncate cztributions (truncate

the minimal cut sets), only tbh cut set contributions retained inthe PRAs were

evaluated Aging effects cou1! cause negligible components to beome important, which

could be examined in more coc prehensive evaluations.

Table 15 summarizes the diffmre-t data sets that were used for the aoint evaluations

these dzta sets were previously described in Sections 3, 4, and 5. Table 16 shows the

combination of different data s that were used for each point eeuation. As indiited

in the table for each maintenac program characterization, four Eferent aging da sets

were utilized. The pointwise alculations that were performed thb cover a range of

different aging rates and cover a range of different aging maintercce programs to

evaluate the resulting impacts cr the core melt frequency increase.

As supplements to the pointwis; calculations shown in Table 15, Appendices D and E

give additional calculations thr were performed for Plants A andE, which are variuits :

of the basic calculations. In the variant calculations, the increase I unavailability &.i for

each tornponent is allowed only to reach a given maximum value ad is not allowed to

exceed this value. This contro cn tc - corresponds to certain types of maintenance

programs which control compcrent performance. Because contrtiz were placed at igh

levels, the results for these varirt calculations were not significarty different from tie

results given in lbc succeeding sectiols and corrcsponding to Tab: 15.a

2C
.3 ,- __ ?,_ _ _ -* I

TABLE IS. SUhMARY OF THE DIFFERFr. DATA SmT TAT WERE

USED FOR THE POINTWISE CALCULATIONS

AGING RATE DATA BASES I

41

I

"I

.Data Set Twe Comment

TIRGALEX Basic data set

TIRGALEX-MODI TIRGALEX modified for

additional data

llRGALEX-MOD2 Aging rates corresponding to

20 year doubling times

7TRGALEX-MOD3 Aging rates corresponding to

I failure in S years

OVERHAUL INTERVAL DATA BASES

18 MONTHS Overhaul intenral = 18

months for all active

components

72 MONTHS Overhaul interval = 72

months for all active

components

TIRGALEX TIRGALEX effective

intervals

SURVEILIANCE INTERVAL DATA BA4SES

i

I

* d

II.

.j

1 MONTH Surveillnce interval =1

month for all active

conponents

Surveillance interval = 6

months for all active

components

6 MONTIHS

27
4 I : "A 4.,* - ' < .e -': '':-

TABLE 16. 1

r~~~~~~~~~~~~~~~~~, - .

WE DIFTEUE' POINTS CALCULATIOSS THAT WERE

SARRSIOUT -- / '

4ANCE PROGRAM AGING RATE DATA SEIS USED

.ERIZA7AON

I- CHARM(

Overhaul Interval - 18 M15ts 7lRGALEXC,MOD1)AODZMOD3

Overhaul Interval = 72 Months

Overhaul Interval = TIRGF'EX

Overhaul Interval = 18 Moxths

Surveillance Interval = 1 Manth

Overhaul Interval = 72 Mcths

Surveillance Interval = 1 Month

Overhaul Interval = 72 Months

Surveillance Interval = 1 Month

TIRGA1EX,.MODI,M0D2ZMOD3

TIRGALE)X,MOD1,MODZ2MOD3

I1RGALEX,MOD1,MOD2ZMOD3

T7RGALEX.,M0D1jMOD2ZMOD3

I

Q

I  i

-4

A'A

.4A

i . A..:o

A.. I3

i

I

I

'A

;

TIGAI.EX.M0Dl,MOD2,MOD3

I

II

Overhaul Interval = 72 Mouths

Surveillpnce Interval = 6 Months

TIRGALEX,MO0DlMOD2,MOD3

I

I. 28
7. UNCERTAINlYEVALUATIONS WEICII WERE CARRE OUT

lbe uncertainty evalustics were performed by assigning ranges to each PRA senszivi.y

coefficient, aging rate, ovetaul interval, and urveillance intervl to describe the

possible values which cock exist. A log uniform distribation was assigned to ead range

to descalbe the variatior ir the individual values. Monte Carlo sampling was then esed to

select an individual value from each distribution. Al: the nndoi variables were tmited

as being independent of mne another.

For a given Monte Carl trl, a set of sensitivity coefh ciets Si and S-j were selened and i

an aging rate, overhaul in val, and surveillance inteu al were ladependently selecd for

each component For the given selected values, a change ic cora melt frequency ass 

calculated using the Taykx expansion qua2tion (Equation (I) in Section 2). This ws{

repeated 1000 times and the 1000 values of the core melt frequecy increase were

ordered to give the empirica distribution of the core melt frequency increase. A pw of i

1000 trials were carried cc in this manner for each -rcertainty evaluation which vs;

performe& ;-

As was previously inrixmd, log uniform distributions wre used since they are fkz

distributions on a log scak and imply no structure to the v vertinty characterizatr-s

and no most likely value W'ith the log uniform distributio, all values are equalh Ekely . on a log sale over the rangc defined for the variable. For each Uncertainty evaluwn, an

eror factor of 5 was assiped to each PRA sensitivity coeffici= representing its S and

95% values This error fhtor was selected since if was aiproxinately equal to thr error

factor on thc core melt frequency. More accurate ermrt facsors cauld be determine: by

propagating the data unxctainties in the PRA to obtain the uncertainties and corrmaions

amnong the sensitivity coc!Ecicnts.,

Table 17 summarizes the ranges that were used for the unertairy evaluations fo ;:e

aging rates, overhaul irkrvals, and surveillance intervals. These ranges were dcs:-;ded

in the previous sections a:d are assembled in Trtle 17 for the cznvenience of the reader.

Table 18 summarizes the uncertainty evaluatior.m that were carrid out using these ranges.

As Table 18 indicates far each maintenance chargcterizatioc thrme aging data sets uce

utilized to evaluate the variability of the core melt ftequency inease which arises from

the variabilities in the ove-haul and surveillance ir ervals as drEned by their respnvc:

ranges. All aging rates, overhaul intervals, and surveillamic intervals were again tuated

as being independent of wne another. Correlation of intervals a; might occur in FiPt

practice would lengthen tLe tails of the distrilbtion on the rcsuhing core melt frectncy

increase. TIe actual Mxte Carlo simulations and uace'ainty Fropa[ ions were carried

out using software that vas constructed for the study and tfiwals written in Micrmoft ,

QuickBASIC. The rna;; number generato; utilize:J wai tIL: standard one avaiklle in

QuickBASIC The sof:Cwe was checked by manually checkiz specific results.

29
. .  .7, '.

... ... -- .- -- --

IiI

TABLE 17. SUMMARY OF RANGES THAT WERE USED

FOR THE UNCERTAINTY EVALUATIONS

RANGES ON AGING RATES

TJGAIlDCMODllMD2 Error factor of 10

II RANGES ON EFFECTIVE OVERHAUL INWRVALS

I

I

I

12-120 Months for EacL Component

TIRGALEX ranges for Each Component

RANGES ON EFFECITVE SURVEILLANCE INT RVAIS

1-12 Months fbr Each Component

30

,;. .:;

U

gw.'

I

M

IS

.a
-I

TABLE 1 THE DIFERENT UNCERTAMN EVALUATIONS THAT WERE

CAPRIEDOUT

MAINTENANCE CHARACTERIZATION

USED

Overhaul intervals

in the range of 12-120 months

for each component

Overhaul intervals

in the TIRGALEX ranges

Overhaul intervals

in the ranges of 12-120 months

and surveillance inteivals in

the range of 1-12 months

AGING RATE DATA SETS

TIRGALEXMOD1.MOD2

TIRGALEX,MODI,MOD2

TIRGAIEXIMDD1,MOD2

,I

4'tl

#'14

W.S

I

!i

I !a

I .

;A

3.:Ae

31
S . * POINT REUMV FOR PlANT A (H PWR)

The following pages give the pohifwlie results for Plant A, which is the PWR plant. The

results of the average corc melt frequnacy increases due to aging are organized according

to the characterization of the aging maintenance program. The results are given

immediately after these discussio;. The first results summarize the core melt frequency

increase from single component aging contributions, which is LSiAqi, and from double

component aging contributions, whid: is IS#jqiAqj, where the sum is overall pertinent

contributors. Tbe total core melt reqcncy increase is the sum of these two

contributions.

The detailed results following the c ec melt frequency summaries give the top 25 single

component aging contributors and the top 25 double component aging contributors for

each ma intenance program characinizrtion and each aging rate data base. For each

single or double contributor, the ctmpOnent designator is given, the core melt importance

factor, Si or SjS, is Oiven, and the unzrzilability increase factor due to aging is given, Aq;

or AqiAq-j. The produc: of all these fbzors is the core melt frequency increase

contribution. Appendix D gives xkdi5bnal results for further case studies in which the

unavailabiliy increase Aq was assumed to be controlled to be no larger than a given

value by the maintenance program Because the control value was fairly large (0.3), the

results are not significantly different Eom the results presented in this sect on.

8.1. Core Melt Frequency Ineases Versus Aging Maintenance Program

Characterization

The following pages present the avage core melt frequency ;ncrease AC (per year) for

the different aging maintenance pragrmn characterizations. The first pages Five the

results for aging maintenance progra.= which are characterized by having only overhaul

or replacement intervals with no ifteediate surveillance intervals. Ihe effective

overhaul intervals are L = 18 mo, L = 72 mo and L = the TIRGALEX effective

intervals. Tle following pages gc te rscults for aging maintenance programs which

are characterized by having both oi%=zaul intervals of L and aging surveillance intervals

of T. The effectivevalues of L andTsed are L = 18 mo, T = 1 mo: L= 72 mo, T = I

mo; and L = 72 mo, T = 6 mo. The dhcussions below summarize the results for each

maintenance program case; the resalts are presented after the discussions.

18 Month Overhauls Only

The core melt frequency increase AC (per year) is basically the same for TIRGALEX,

MODI and MOD2 aging rate data and is in the vicinity of 2.5-05. For MOD3. the 5-year

aging rates, AC is approximately a fa=- of 10 higher at 3.6-04. The summaries of the

single and double contributions sh- tiat the singie component aging effects are

generally domicant

Mhe symbol W'o" Jcnoa *mooths'.

32
72 Month Overhauls Only

The core melt frequency increase AC f 17RGALEX, MODI and MOD2 is simihr and

is in the vicinity of 1.03U. For MOD3 fiecr melt frqec inrae grw to214|

The double component aging contribrocs dominate in all cases.

TRGALEX Overhaul Intervals

For TIRGALEX aging rates aad for MW (the 20 year-doubling aging rates) AC is in

Ibe vicinity of 3.505 (the average of L9I05 and 5.0-05). For MOD1 and MOD3 aging

mt&A, AC is significantly larger and is 1.10 and 7.0-03 respctively. MOD1 and MOD3

aging rates arc characterized by larger dhmk- valve aging tes and the detailed

contributors show that check valves ac fqnificant contributors to the core melt

frequency increase for MODI and MOD3i The single contributors gec 'ally dominate.'

IS Month Overhauls and I Month Survzian*:ices

BC is similar for TIRGALEX, MODL an MOD2 and is in ahe vicinity of 2.06. For

IAOD3, the S-year aging rates, AC inacas to 2.5-05. 'Me single contibutions

dominate. As compared to 18 month ovehauls only, carrying out additional

surveillances at 1 month intervals lowers bhe average core r:lt frequency increase due to

aging by more than a factor of 10.

72 Month Overhauls and 1 Month Sunrvefince

For TIRGALEX, MODI and NIOD2 ACi in the, vicinity of 7-06. For MOD3 AC is

LI-04. The single contributions geneani dominate for all cases. Ihe 72 month

overhaul and 1 month surveillance prc-am control aging in reases somewhat better than

the 18 month overhaul only progran wi-I the average core melt frequency increase

lowered by a factor of approximnately 3.

72 Month Overhauls and 6 Month Survnces

For lIRGALEX, MODI, and h1OD2, the increase in core melt frequency AC is centered

wound 6405. For MOD3, AC increases ic 8.6-04. Tbe single contributions arc generally I

vxst significant with the doubles also coaributing. The 72 mor.th overhaul and 6 month

srveillance program provide control co;arable to the 18 month overhaul only

'Tc PRA truncated mukiple chcck valvc corrxms and if tbese w included, the double de& valve

mog contibutons could be signi o'-= lary .

33 I

-1.
S2 Detaied Component Contrlb|ors

The las pages of the results for Plant Ashow the top 25 single aging component

contributors and top 2 double aging cmponent contributors for each of the maintenance

cses analyzed The pages show the edfic system., component, and failure mode for

the contributor. Tbe pages give for eadt contributor, the increase in unavailability factor

Aq due to aging, the core melt imports factor S, and the core melt frequency increase

AC which is the product of the aging an! importance facors. The total core melt

fiequenc~y increase is the sum of the lnividual core melt frequency contnbuXL The

detailed contributors show that diesel generators (OEP-DGN) check values and motor

operated valves in the emergency core cooling system (eg., HPIkCV, IPI-MOV, LPICKV, IYI-MOV, ACC(XV) are gencally dominant contributors for all the

mainane cases with the absolute valz and detailed order shifting, depending on the

maintenance case. Motor driven and tufine driven pumps in the aux-feed system

(AFW.MDP, AFW-TPD) are also conabutors. These detailed contributors can be used

to focus aging analyses and aging contrL

34

.
PlkANT A

EFPECTIVE OVERHAUL INTRVAL =e18 MONTHS

TOTAL CORE MELT FREQUENCY CHANGE & C (yr-I)

TIRGALEX

MOD I

MOD2

MOD 3

AC:=

AC =

2.7E-05

2.9E-05

2.OE-05

AC = 3.6E-04

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE A C (yr-i)

-'1.

t

i

I

SINGLES

DOUBLES

TOTAL

TIRGALEX

2. 1E-05

S.5E-06

2.7E-05

MOD I

2.5E-05

4.4E-06

2.9E-05

MOD 2

1.5E-05

4.9E-06

2.OP,-O05

MOD 3

3.OE-04

6.4E-05

3.6E-,04

35

, ..- , .. . - u - --. 
F.ArT A

EFFECTVE ONURAL INTERVAL = 72 MON=

TOTAL CORE ISZ RAiBq1ENCY CHAN3E a C (YKTIRGAEX *C= I.Ec-03

MODI AC l.sE-03

MOD2 AC= I.E-03

MOD3 £C = 2.1E-02

CONTRIBUTORS TO COWXYEELT FREQUENCY CHANGE AC

I

i

I

. I

I

*1

33, I

TIRGAlat MOD I

SINGLES

DOUBLES

TOTAL

I3.ZE-4 4ME-0

1.i3-m3 15E-03

0VIO 2 by E2 S E 04 .cr- :r

IZE-03 :__

1.4E-03 :=

3'

.a . 4 -_ i. * _ S * 4 . - -
PLANTA

EFFECIIVE OVERHAUL INTER VAL = TLRGALEX

TOTAL CORE MELT FREQUENCY CHANGE £ C (yr-I)

TIRGALEX & C = 1.9E-05

MOD I SC= I.1E-03

MOD 2 &C= 5.OE05

MOD 3 SC= 7.0E-03

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE A C (yr-I)

TIRGALEX MOD I MOD 2 MOD 3

SINGLES 1.SE 1.11E-03 4.9E-05 6.9E-03

DOUBLES 9.9E-7 2.8E-06 1.2E-06 7.9E-05

TOTAL 1.9E-O5 1.11E-03 S.OE-05 7.0E-03

37 1 1
I

PLANTA -A

EFFECTIVE OVERHAUL INTERVAL = 18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL 1 MONTH

TOTALCORE MELT FREQUENCY CHANGE A C (yr-1)

TIRGALEX

MOD I

MOD2

MOD3

AC= 1.7E-06

AC= 2.IE-06

AC 1.3E-06

AC= 2.5E-05

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE A C (yr-l)

TIRGALEX MOD I MOD 2 MOD 3

SINGLES

DOUBLES

TOTAL

1.7E-06 2.1E-06 1.3E-06 2.5E-05

3.8E-08 3.4E-08 4.4E-07

1.7E-06

3. 1E-08

2. E-06 * -.r: 2.5E-05

I 4

41

_ _

38
PLANT A

-EFFECTIVE OVERHAUL ITERVAL =72 MONTHS l

EFFECTIVE SURVEILLANCE INTERVAL= 1 MONT

TOTAL CORE MELT FREQUENCY CHANGE A C (yr-1)

TIRGALEX AC = 7 5E-0

MOD I AC= 91E{-0

MOD2 AC= SM-06

MOD3 &C L."E-04

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE C (yr-I)

TIRGALEX MOD 1 MOD 2 MOD 3

SINGLES 6.9E-06 8.5E-06 S.tE-m6 1.OE-04

DOUBLES 6.1E-07 4.9E-07 5.E-07 7.1E4-06

TOTAL 7.5E-06 9.OE-06 5.E--M I.IE04

39 t
.. -

. ~~~~~

PLANT A';-

EFPEC11VW OVERHAUL OVAL 72n MONTHS

EFFECTVE SURVEIIAANC:E INTEVAL = 6 MONXTIS

} ~~~~TOTAL CORE MELT FREQUENCY CHANGE A C 6Tr1)

TIRGALEX

MOD I

MOD2

MOD3

£LC 6.4E-05

AC= 6.9E-O05

AfC 5.OE-05

.&C = 8.6E-04

C07RIBUTORS TO CORE MELT FREQJENCY CHANGE & C (yr-I)

TIRGALEX MODI MOD2 MOD 3

. SINGLES

DOUBLES

TOTAL

4.2E-05 5.IE-05 3. 1E-05 6.OE-04

2.2E-05 I.EE-05 1.9E-05 2.6E-0M

6.4E-05 6.9E-05 5.OE-05 8.6E--04

I

I I I
wish~ ~ ~ ~ ~~~kL- z~~ t?; T~

i

CONTRIBUTORS FOR

PLANT A

EFFECTIVE OVERHAUL INTERVAL = 18 MANTHS

41

d

TI

A I

IJ

4

I
,.th w X,....<.. w .~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~J.

EFFECTIVE ovERHAUL INTEVAL 18 MONTHS

Plant A TIRGALAX I 18 MO. [.

20-ct-S9 TOP SINGLE CONTPUTOP.S

04!05 PM

Tofti'AC-113j0,

Rank Compoomt Nano AqI SI * C

I HPI-MOV-Fr 1.2E-02 3.4E-0 4.0E-6

2 OEP-DON-FS-DOOI 1.23-02 2.31-04 2.31R-06

3 OGP-D0N-FR-6HDOI 1.23-02 2.12-04 2.51-06

4 LPR-MOV-PT 1.2R-02 1.3E4 1.6IR-06

S OEP-DtN-FS-D002 1.23-02 1.3E-04 1.5IE-06

6 OEP-DON-FS-D003 1.2E-02 IJ114 1.51E-06

7 OEP-DON-PR-611DOJ 1,21-02 1.211-04 1.4;-M4

AOEP-DGN-FR-6t4DG2 1.2E-02 1.1E-04 1.3E1-06 £4 9 Hpl-MOV-lr- 1350 1.2h-- 6.71;-05 RXon07

lO Osp-DcWN-rR-WOI 1.213-02 3.IN-05 4.53-07

11 AFW-TDP-FS-FW2 8.9E-03 2.9E-05 2.6E-07

12 LPR-MOV-FT-1862A 1.2E-02 2.;E-OS 2.SE-07

13 LPR-MOV-ff-I1620 1.28s, 2.111OS 2.5VW

14 LPR-MOV-NF-1960t 3 1.2R-02 2.0AR-0 2.SE-07

s 5LPr-MOV-PT-lINA 1.X02 >IROtZ.-m^

id ORP-rDON-FRAX10o3 la.ult1t.< 24et

17 OEP-DON-PR-'D02 1.23-02 2.011-05 2.313-07

to LPI-MDP-PS 7.2E-04 2.2-N04 1.6E-07j

19 PPS-MOV-FT-1S35 1.2E-2 9.SE-06 1.13-m07

20 AFW-TDP-FR-2P6HR 8.9E3- 1. IE-0S 1.013-07

21 LPR-MOV-F-I1l90B 1.2E-02 4.5E-0 5.3E1-01 it

22 LPR-Mov-YT-lNA0A 1.2-M02 4.53- .5 5.3-01

23 CVC-MDF-FR-2AIHR 7.2R1-04 6.713-0 4.901-01

24 HPI-MOV-Fr-1 I ISE 1.2E-02 4.1E-06 4.9E-OS'

25 HPI-MOV-FTIIISB 1.2E-02 4.1E-0 4.9E3-0,:

77. ,.!. 

. i
E EV OVERHAUL INEVAL -18 MONTHS

Plant A

20-Oct-39

04:06 PM

TJROALEXI I8 MO.

TOP DOUMLE CONTMUTORS

Total a C- 5.59-0

Rtank

I

2

3

4

5

6

7

9

9

10

I 1

12

13

14

is

16

17

la

19

20

21

22

23

24

25

Compoent Name

OEP-DON-FR-6HDW3

OEP-DON-PS-DOOI

OEP-DON-PS-DOOI

orlP-DON-PM-D003

O!P-DON-FS-DOOI

OEP-DWN-FS-D02

OEP-DON-FS-DOOI

OEP-DON-FR-4HD2

LPR-MOV-FT- 1862

LPR-MOV-FT-1I62A

LPR-MOV-FT- I 62A

LPR-MOV-FT-1l60A

LPR-MOV-Fr-19901

HPI-MOV-PT-III1B

IIPI-MOV-PT-t I ISC

OEP-DON-FR-DOOI

OPP-DON-PA-DO03

OEP-DON-PS-DW02

OWP-D0N-PS-DOOI

OEP-DN-FS-D001

OEP-DON-FR-DW2

OEP-DON-FS-DPS

OEP-DQN-FR-6HDG3

o0!r-DGN-rs-DO0l

OIUP-DGN-FS-DG02

AqI

1.2R-02

1.2E-02

1.2-02

1.2fl*07

1.2E-02

1.2E-02

1.2E-02

1.2E-02

1.2E-02

1.2.-02

I.2E-02

1.2E-02

1.2E-02

1.2E-02

1.2P-02

1.2E-02

I .25-02

1.2E 02

1.25-02

1.2E-02

1.2E-02

1.21-2

I.2F-02

1.2F-02

1.2-02

Component Nam

OPP-DOWNFR-HDOI

OPP-DON-PS-DW03

OEP-DON-FS-D002

onrr-DaN-mR-4t1I

OEP-DWN-FR-6HDO2

OEP-DON-FR-6HDOI

OEP-DON-FR-611D03

OEP-DWN-FR-6HDWI

LPR-MOV-FT-1860A

1.PR-MOV-TT-16211

LPR-MOV-FT-18609

LPR-MOV-Fr-1860B

LPR-MOV-FT-1590A

HPI-MOV-PT-IIISD

IIPI-MOV-FT-l I1s

OEP-DWN-FR-DW03

O P-DWN-PR-DOI

OFP-DON-PR-DO01

OPP-DWN-PR-DO02

ORP-DON-FR-DO03

OEP-DON-PR-DOOI

ORP-DON-PS-DC*3

OF.P-D0N-FR-6MD02

APW-TDP-PS-PW2

0EP-DON-PR-6H1O3

*q2

1.2R-02

1.2E-02

1.2E-02

1.2U-02

1.2E-02

1.2E-02

1.2E-02

1.2E5-2

1.2E-02

1.2R-02

1.2R-02

1.2E-02

1.2E-02

1.25-02

1.2E-02

1.2E-02

1.2R-02

1.25-02

1.2P-02

1.2R-0

1.2I-02

1.2P-02

1.2R-02

3.99-0M

1.25-02

S12

3.6h-03

3.11-03

3.15-03

2.4ft-03

2.4E-03

2.4A-03

2.4E-03

2.4-03

1.5E-03

1.5-w03

I.SE-03

1.5E-C3

1.5E-03

1.4E-03

1.4E-03

6.4r-0

6.0n-04

6.0i-04

6.o0-0

6.05E5.SF.-0d

2.2E-0

2.05-04

f <e9A

*ql *q2

AI 1.4 &e"2 -0

1.45-0

1.4E-04 E.410

1.4-04

1.4E-4

1.4E-0

1.45-04

1.4E-04

1.45-04

1.4E1.4E-04

; .45-0

1.45-04

1.4E-04

1.4n-0

1.4R1.4I -

i 14R-04

I A" RnAC

5.0e-a7

4.3E5O7

4.3B-07

S.45-07

3.4E-07

3.4E5-

3.4-07

3.4E-07

2.IE-07

2.2R-07

2.15-07

2.1E-07

2. 1h-07

1.95-07

I.9E-07

9.0F-0

.45-0

3.451-0

3.49-0

3.15-01

3. 1E-0t

2.3R-0

4 49 A a

-1

i.

.4

*

I.

A.$

A.

r

-S.

I

:, y

1.

,or.- I ul A . I n-vis

.9B (X1.48El 2.78-0 ).Ft

i ;

! ;.

I . - - _ .- - r

I. iS A' **.*~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
-

(

EPFECnIVE OVERHAUL INIEKVAL -

TIRGAE - MOD I / 18 MO.

TOP SINGLR CONTRiUTORS

Plant A

23-Oct-9

01:07 PM

18 MONTHS

Total aC- 2eEM-S

Rank

1

2

3

4

s

6

7

9

10

I

12

13

14

Is

16

17

1i

19

20

21

22

23

24

25

Componest Name

OEP-DON-FS-DO0t

HPI-CKV-FT-CV22S

OEP-D^N-PR-6HDO 1

HPI-CKV-Fr-CV410

HPI-CKV-FT-CV2S

OEP-DGN-FS-D(,03

OEP-DHN-PS-DfJ02

OEP-WXON-Ir:R-6HWD3

HPI-MOV-FT

OEP-DGN-FR-6HD02

LPI-MDP-FS

ACC-CKV-FT-CV12I

ACC-CKV *IT-CV145

ACC-CKV-rTTCV130

ACC--eV-r-Cv 141

LPR-MOV-PT

OEP-DWN-FR-D01I

HPI-MOV-FT- 1350

AJW-TDP-FS-FW2

CVC-MDP-FR-2AIHR

OEP-DWN-FR-DW03

OP.P-D<N-FIR-WO2

Arw-TDP-rR-2PCI1R

APW-MDP-PS

LPI-MDP-FS-SIIB

*ql

1.2E-02

1.2E-03

1.29-02

1.2E-03

1.2E-03

1.2E-02

1.21-02

I .2R-02

3.9E-03

1.2R-02

3.6E-03

1.2!-03

1.2E-03

1.2fl-03

3.9R-03

1.2E-02

3.9E-03

8.9E-03

3.6E-3

1.2B-02

I.2R-02

8.9R-03

3.6E-03

3.6R-03

St AC

2.3E-4 2.tE-06

2.SE-03 2.6E-06

2.1E-04 2.5R-6

1.4E-03 1.7E-06

1.4E-03 1.7E-06

1.3E-4 l.SE-06

1.2e-" 1.4E-06

3.4E-N 1.3E-06

1. 1E-04 1.3E06:

2.2E-04 .I-E07i

5.Ors-04 6.2F.-07;

5.OE-N 6.2E-07'

S.OR-04 6.2R-07

.0fnt-04 A.2fl-o I

1.3-N4 5.2E-07i

3.31-05 4.SE-07

6.7E-OS 2.7E-07

2.9E-05 2.6E-07

6.7E-05 2.4E-071

2.0E-05 2.4A-07

2.O'-05 2.3P.-07'

1.I -05 1.01n-7

2.6E-05 9.5ME2.51-05 3.91-013

,.

ef. .. . .1-,
EFFECTIVE OVERHAUL INTERVAL = 18 MONTHS

!

Plant A

/20-Oct-39

04:07 PM

Total ACTIROALEX -MOD 1 '18 MO.

TOP DCUBLE CONTRIBUTORS'

4.4E-06

Rank

2

3

4

5

6

7

A

9

10

11

12

13

14

15

. 16

17

18

19

20

21

22

21

24

25

Component Name

o0EP-DON-PR-6HDO3

OEP-DON-PS-DOOI

OEP-DGN-FS-DG01

OEP-DWN-FS-DG01

OEP-DWN-FS-DW01

OEP-DWN-FS-W003

oY!P-DON-ps-Dd0

CFr-D lN PR-DOOIm

OEP-D0N-PS-DG01

OEP-DON-PS-DO03

OEP-DWN-FS-W001

OEP-DGN-FS-DG02

OEP-WGN-FS-DG01

OEP-DWN-FR-DG02

OEP-DON-FS-DW02

Ol'P-DIXN-FR-6HD03

OILP-l)<iN-f'.S -IXJOI

OdP-WON-FS-DG02

OEP-DWN-FS-DG03

OEP-DGN-FR-6HDG1

LPR-MOV-FT-IR5862A

LPR-MOV-FT- I R62A

l.rR-MoV-rTr-I Re2n

LPR-Mav-rT-1R90n

LPR-MOV-FT-IR60A

Aq1

I .2E-02

I .2E-02

1.2E-02

1.2E-02

1.213-02

L.2E-02

I .21?-02

I.281-02

1.2F.-02

1.2F1-02

1.28-02

1.2E-02

1.2Ei-02 1.213-02

1.2E-02

1.2F.-02 1.711'02

I1.2E{102

1.2E-02 1.2E1-02

3.9E-03

3.9F-03

,.9F.-01

3.91'. -03

3.9E-03

Component N me

OEP- DN-FR-6HDO I

OEP-DON-1S-D002

OEP-DON-FS-DW03

0EP-DWN-FR-6HDW3

OEP-DGN-FR-6HWG2

OrlP-DON-FR-6HDO I

OR-P-DN-FR-6H0 I

Oilpl-nCN -rR A1 I-I I

*EP-DWN-PR-D003

OEP-DON-PR-DOOI

OEP-DON-FR-DW02

OEP-DON-FR-DOOI

OEP-DWN-FR-DG03

OEP-DGN-FR-D701

OEP-DON-FS-D003

OPP-DON-FR-6HD02

APw-TrDP-rF-PW2

OEP-DGN-FR-6HDW3

OEP-DGN-FR-6HDX2

AFW-TDP-FS-FW2

LPR-MOV-Fr-1962B

LPR-MOV-PT-IR6OR

I .PR-MOV-PT-I R6OA

l.PR-MOV-fT- I 090A

LPR-MOV-FT-1860B

A q2

1.23-02

1.2Q-02

1.28-02

1.2E-02

1.2E-02

1.28-02

1.211-02

I.7ft-m0

1.2E-02

1.2E-02

1.2E8-2

1.2E-02

1.23-02

1.2E-02

1.213-02

1.2s-02

.0on-03

1.2.-02

1.2E-02

8.9E-03

3.9E-03

3.9E-03

3.9 8-03

3.9n-03

3.9E-03

S12

3.dn-03

3.211-03'

3. 1E-03

2.41E-03

2.4E-03

2.411-03'

2.48-03'

7.4p -0il

6.4E-04'

6.08-04

6.08-04

6.0E-0

6.OE-N

5.IE-04

2.2F-4

2.0IE04

2.611 -04

1.9E-04

I.9E-04

2.4E-04

1.51E- 33

1.5E-03 t.SE-03

1.5R-0I

1.5P-03

Aql Aq2

1.4-04

1.4R-04

1.4E-0

1.4E-04

1.4E-04

1.4E-04

1.48-04

I.4t-04

1.4E-04

1.48-04

I.4E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-04

I.01%-04

1.4E-04

1.4E-04

1.0E-04

1.6E-05

1.6E-05

I .68R-O

1.615 n'

1.6E-05

AC

s.oe-07

4.31-07

4.38-07

3.41-07

3.4E-07

3.4E-07

3.41-07

3.4"-67

9.013-OR

t.4E-0t

9.43-01

t.413-0O

t.4E-0t

8.113-O8

3.18E2. RE-OR

2.7r-oR

2.7E-O

2.7E-0O

2.5E-0t

2.31-OS

2.31-OR

2.38-OR

2.3F-O4

2.3E-01

i-li A . s g . 4 r^a1-sv, 3:A .L - ;^f. -; . _ j^ .Ii- t.,. " - > :_- . .1 4. -S / a. rfjffli4'rs w * 4 S~~~~~~~~~~~. dfwsw- i
EFFECTIVE OVERHAUL INTERVAL 18 MONTHS

Plant A TIRGALEX-MOD 2/ 18 MO.

20-00-39 TOP SINGLE CONTRIBUTORS

04:09 PM

Total C- I.SEC0S

Rank Component Nme Aql Si AC

1 GEP-DON-FS-DOOI 1.3E-02 2.3E-04 3.1E-06

2 OEP-DON-FR-6HD1l 1.3E-02 2.IE-04 2.8E1--

3 OEP-DON-FS-DW03 1.3E-02 1.3E-04 1.7E-00

4 OEP-DON-PS-DW02 1.3E-02 1.3E-04 1.7E-06

5 OEP-D0N-FR-6HWD3 1.3E-02 1.2E-04 1.6E-06

6 OEP-DGN-FR-6HDW2 1.3E-02 1.IE-04 1.4E-06

7 OEP-DWN-FR-DG01 1.3E-02 3.8E-05 5.OE-07

R HPI-MOV-FT 1.3E-03 3.4E-04 4.SE-07

9 OEP-DWN-FR-DW03 1.3E-02 2.OE-05 2.6E-7

10 OEP-DON-ER-DG02 1.3E-02 2.0E-05 2.6E-07

11 AFW-TDP-FS-FW2 IS.9E-03 2.9E-05 2.6E-07

12 LPI-MDP-FS 9.9E-04 2.2E04 2.21E-07

13 LPR-MOV-FT 1.3E-03 1.3E-04 1.7E-07

14 HPI-CKV-FT-CV225 4.9E-05 2. 1E-03 1.OR-07

15 AFW-TDP-FR-2P6HR S.9E-03 1.1E-0S 1.OE-07

16 HPI-MOV-FT- 1350 1.3E-03 6.7E-OS 1.8E-08

17 HPI-CKV-FT-CV410 4.9E-OS l.4E-03 6.tE-08

18 HPI-CKV-FT-CV2S 4.9E-05 1.4E-03 6.8E-0R

19 CVC-MDP-FR-2AIHR 9.9E-04 6.7E-05 6.6E-0t

20 LPR-MOV-FT-18620 1.3E-03 2.1E-OS 2.7E-0t

21 LPR-MOV-FT-1862A 1.3E-03 2.1E-0S 2.7E-OS

22 LPR-MOV-FT-I360B 1.3E-03 2.1E-0S 2.7E-0S

23 LPR-MOV-FT-1860A 1.3E-03 2.1E-05 2.7E-09

24 AFW-MDP-FS 9.9E-04 2.6E-0S 2.6E-08

25 ACC--CKV-FT-CV145 4.9K-05 5.O130E 2.5E-OS

~~~~U~~~~~~~bw- - t~~~~~~~~~~4Qa& 1.-
EFFECrIVE OVERHAUL NTERVAL = 18 MONTHS

T1RtALX - MOD2 18 MQ.

TOP DOUBLE CONTPIDUTORS

PMt A

20-oc-89

04:10 PM

Totl AC- 4.96-0

-a

Rank

1

2

3

4

5

7

a

9

10

II

12

13

14

15

16

17

13

19

20

21

22

23

24

Compww Ne * ql

OEP-DGN-FR-6HD173 1.3E-02

OEP-DON-PS-DOO1 1.3l-02

OOP-DON-FS-b200 1.3E0-

OFP-DON-FS-Dm02 I1.3n-0

ORP-DmON-pS-DooI 1.30-m

oRP-DamN-Ps-DooI 1.3n-m

OEP-DON-FS-DO03 1.3E-02

OEP-D WN-FR-6fD0 1.3E-02

OEP-DON-FR-DOOI 1.3E-02

OEP-DON-FS-DG03 1.3E-2

OEP-DWN-PS-DW01 1.3E-02

OEP-DWN-PS-DWOI 1.3E-02

OP-DON-PS-DM02 I .JR -02

ORP-DON-FR-DO0 1.3,-02

ORP-DON-PS-DO02 1.3P-02

OEP-D0N-FR-61HD3 1.3E-2-

OEP-DON-PS-G03 1.3E-2

OP-DON-FS-DO02 1.3-02

OEP-DGN-FS-DG0I 1.3E-02

OrfP-DoN-FR-61Ml) 1.3F.

oEP-DoN-PS-Dm 1.36-02

OEP-DON-FS-DC03 1.3E-02

OEP-DGN-PR-6R1D03 1.3E-02

OEpP-DON-FR-61!=2 1.30*O2

ORP- DON-PS-DOOI 1.3 -0

Ceanem NMme

OEP-DON-FR-6HD0I

OE P-DON-F9-DO03

ORP-DON-SDO2

06P-DON-PR-GHDCI

RP-DWN-PR-6"DG2

OOP-DON-PR-611003

O6'-DON-PR-611D0I

ORP-DGN-FR-6HDOI

OEP-DON-FR-DG03

OEP-DGN-FR-DG0I

OEP-DON-FR-DO03

OEP-DON-FR-DW02

OPP-DON-PR-DO01

OEP-DON-PR-DOOI

OP-DON-FS-D003

OEP-DlN-R- 6HW2

OEP-D0N-FR-6HD02

OEP-DON-FR-6D03

AFW-TDP-FS-PW2

AFW-TDP-PS-PW2

APW-TDP-FS-PW2

AFW-TDP-FS-PW2

AIW-TDP-FS-FW2

AFW-TOP-MS-Pw2

AMw-TDP-rR-2P'11R

*q2

1.3E-02

136-4)2

1.3R-02

1.39-42

1.30-02

13R-02

136-2

13E-02

13E-2

13E-02

133E4

139-02

1.39-02

133-02

1.3B-02

13E-02

3JE-02

1.36-02

S.9E-03

S.9E-0

3.96-4

8.9E-3

.9R-03

3.9603

3.96-0

512

3.66-0

3.16-E

3.1E-03

2.48-03

2.AR-0

2.46-03

2.4E-03

6.46-0'

6.06-0

6.06-04

6.OR-04

6.0-04'

5.36-0

2.27n4

2.0OE-0

1.92-0

1.96-04

2.69-04

I4J-04

1.47E1.42-4

1.3E-0

1.26-04

9.59-05

Aql *q2

1.7E-M

1.7E-04

1.7E-0

1.78-04

1.7R-0

1.76-4

1.76-04

1.76-04

1.7E-04

1.76-04

1.7R-4

1.76-04

1.78-0

1.76-04

1.7B-04

1.78-0

1.7R-M

1.76-04

1.7E-04

1.26-4

1.29-04

1.2E-O

1.2S-04

1.2R-0

1.2R-N

Ac

6.26-07

5.3E-7

4.22-07

4.20-0

4.2p.-0

4.26-07

4.2-07

1.12-07

1.09-07

1.06-07

1.dO-07

3.06-07

3.019-07

3.36-0

3.40-0

3.36-01

3.09-01

2.36-0

1.6R-m

1.5G-0

1.16-4

-f - _ .- . -s L -. :: . * . _ s . .... i-ig; R . .....-. . ..................... ..........- .8J ; t . ' . llull~~~I W________E
EFFECTIVE OVERHAUL IN TERVAL = 18 MONTHS

Pant A TIRGALPX - MOD 3 / 18 MO. ,

20-Oct-89 TOP SINGLE CON1TREUTORS

04:37 PM

Total AC 3.CE-04

Rank Compoomet Name *ql Sl1 C

I HPI-CKV-FT-CV225 3.3E-02 2.1E-03 6.9E-05

2 HPI-CKV-FT-CV25 3.3E-02 1.4E-03 4.6E-05

3 HPI-CKV--T.-CV410 3.36-02 1.48-03 4.68-05

4 ACC-CKV-FT-CV14 3.3E-02 5.01-04 1.6E-05

5 ACC-CKV-PT-CV147 3.36-02 5.01-4A 1.6Q-05

6 ACC-CKV-FT-CVI3O S.iII-02 5.0of-04 Inlflaos

7 ACC-CKV-FT-CVI28 3.3R-02 5.OR-04 1.66-05

S llPl-Mov-Fr 3.3E-02 3.46-04 1.IE-05

9 OEP-DON-FS-WOIl 3.38-02 2.36-04 7,7E-06

10 LPI-MDrFrs 3.36-02 2.26-04 7.4E-6

I1 OEP-DCN-FR-6HDOI 3.3E-02 2. E-04 7.0E-06

12 LPR-MOV-FT 3.3E-02 1.31-04 4.3E-06

13 OEP-DON-FS-DO03 3.3E-02 1.3E-"4 4.1E1-06

14 OEP-DWN-FS-DGO02 3.3E-02 1.3E-04 4.1E-0

IS OEP-DON-FR-6HD03 3.3E-02 1.28-04 4.OE-06

16 0FP-DGN-FR-6HDG2 3.3E-X'? 1.IE-04 3.5E-0

17 HPI-MOV-FT-1350 3.3E 02 6.7E-05 2.2E-06

1i CVC-MDP-FR-2AlHR 3.3E-02 6.7E-05 2.2E-06

19 OEP-DON-FR-DOOI 3.3E-02 3.8E-05 1.2E-06

20 AFW-TDP-FS-FW2 3.3E-02 2.9E-05 9.56-07

21 AFW-MDP-FS 3.3E-02 2.6E-05 3.71-07

22 LPI-MDP-FS-SIIB 3.3E-02 2.5E-05 8. 1-07

23 LPI-MDP-FS-SIIA 3.3E-02 2.5-05 S.I6-07

24 LPR-MOV-FT-1162f 3.3f02 2.lIrOS 6.9f-07

25 LPR-MOV-IT- 1862A 3.3E-02 2.1E6-5 6.9E-07

t~~~~w~~~~hil>~~~~~A bh .,4 w.jusb, f i ...................... it r
i

I

I

I

I

I

I

II

I

I

EFFECTIVE OVERHAUL NMRVAL - 18 MONTHS

Plant A

20-Oct-39

04:41 PM

TIRGALEX - MOD 3 / 18 Mo.

TOP DOUBLE CONTRIBUTORS

Total AC - 6.45-05

Ranl

2

3

4

5

6

7

9

10

Il

12

13

14

1S

16

17

to

19

20

21

22

23

24

25

Component N me

OFP-DWN-PR-6HDW3

Ol!P-DON-PS-DO01

OEP-DON-PS-DOOI

ORP-DON-PS-DOOI

OEP-DON-PS-DW02

OEP-DWN-PS-DW01

OEP-DON-PS-DO03

OEP-DGN-FR-6HW02

LPR-MOV-Fr-1962A

LPR-MOV-FT- I 62A

LPI-MDP-PS-SIIB

LPR-MOV-FT-1862B

LPR-MOV-Pr- I 1o901

LPR-MOV-FtT-1628

LPR-MOV-Fr-186OA

LPR-MOV-Fr-lt60A

LPR-MOV-FT-1862A

LPI-MDP-FS-SIIA

HPI-MOV-FT-I 115B

UPI-MOV-FT-I I 15C

CPC-MDP-FS-SW lOB

LPI-MDP-FS-SIIB

LPR-MOV-FT-1860B

LPR-MOV-FT-IS62A

LPR-MOV-PT-I162B

Aql

3.3E-02

3.3-.I02

3.3F-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3m-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

Component Name

OEP-DWN-FR-6HDWI

OrMP-DON-PS-D002

OEP-DON-PS-DW03

OEP-DON-FR-6HDW3

06P-DWN-FR-6HDWI

OEP-DON-FR-6HWD02

OEP-DON-PR-6HDOI

OEP-DGN-FR-6HDWI

LPR-?.lOV-Fr-ldOB

LPI-MDP-FS-SIIB

LPI-MDP-PS-SIIA

LPI-MDP-PS-SIIA

LPR-MOV-1T-1 390A

LPR-MOV-Fr-1860A

LPI-MDP-PS-SI I B

LPR-MOV-Fl-1860B

LPR-MOV-Fr-19628

LPR-MOV-FT-1860B

HPI-MOV-FT-I I1SD

HPI-MOV-PT-II 15E

CPC-MDP-FR-SWA3H

LPI-MDP-FR-A21HR

LPl-MDP-PR-A21HR

LPI-MDP-FR-B2tHR

LPI-MDP-FR-A21HR

A q2

3.3E-02

1.38-0

3.3-02

3.3£-02

3.38-02

3.3-02

3.3E{-2

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.35-02

3.3,E02

3.3E-02

3.3E-02

3.3E-02

3.3E-2

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3C-02

3.3E-02

812

3.6E-03

3.1R-03

3.15-03

2.46-03

2.49-03

2.4E-03

2.4E-03

2.4E-03

I.SE-03

1.5E5-

1.55-03

.SE-03

1.5S-03

1.5E-03

1.5Q-03

1.5E-03

I.SE-03

1.55-0

M.4E-03

1.4E-03

1.d9-03

1.0E-03

1.0E-03

I.QE-03

1.0EAql Aq2

I.IE-03

1. 5-03

1.15-03

t. 1E-03

1.1-0

1.IR-03

1.15-03

1.IE-03

1.IE-03

1.IE-03

1.15-03

1. IE-03

1.11-03

1.15-03

1. IE-03

1.IE-03

1.1E-03

1.15-03

1.1E-03

1.IE-03

1. 1I-03

1.IE-03

1.IE-03

1. 12-03

1. I E-03

AC

3.9E-06

3.3E-06

3.39-0

2.69-0

2.65-0

2.65-06

2.6E-06

2.6E-06

1.6E-06

1.6E-06

1.69-06

1.6F-06

1.6E-06

1.6-06

1.6E-06

1.6E-06

1.6E-06

1.6E-06

I.SE-06

1.5E-0

1.1I-0

1.1E-06

I.tE-06

.1E-

( L. IE-06

UE _~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~. C_ e 
CtN¶IBUTORS FOR

PLANT A

EFFECTIVE OVEEAU!, INTERVAL = 72 MONYh

.-¶r e

3,.

p *

4

a

I

U

so
Plant 

A

20-Oct-89

03:14 PM

EFFECTIVE OVERHAUL INTERVAL = 72 MONTHS

TIRGALEX / 72 MO. 

i

TOP SINGLE CONTRBUTORS

Total AC- 3.3E04

I s

UC

Rank234567a9

10

I1

12

13

14

iS

16

17

Is

19

20

21

22

23

24

25

Component Name

HPI-MOV-FT

OEP-DWN-FS-DW01

OF.P-DON-FR-6HDG 

I

LPR-MOV-FT

OEP-DON-FS-D0W02

OEP-DCN-FS-W03

OEP-DWN-FR-6HDW3

OEP-DON-FR-6HD02

HPI-MOV-FT- 1350

OEP-DWN-FR-DGW0

AFW-TDP-FS-FW2

LPR-MOV-FT- 1 862A

LPR-MOV-FT- 1621

LPR-MOV-F, 

- I RM60

LPR-MOV FT-1960A

OEP-DCIN-FR-D(103

OEP-DGN-FR-DG02

LPI-MDP-FS

PPS-MOV-FT- 1535

AFW-TDP-FR-2P6HR

LPR-MOV-FT- I 9011

LPft-MV*--rT-lto"A

CVC-MDP-FR-2A IHR

HPI-MOV-FT-1 I tSE

HPI-MOV-PT-1115

A ql

1.9E-01

l.9E-01

I.9E-O1

1.9E-01

1.9E-01

1.9E-01

I.9E-0O

1.92-01

IS.9E-0

1.9E-01

1.4E-01

I .9E-01

1.9E-01

I.9E-01

1.9E-01

I.9E-01

1.9E-01

1.2E-02

1.9E-01

1.4E-01

1.91-01

1.Yt-ol

1.2E-02

1.9E-01

1.9E-01

SI'

3.4E104

2.3E-04

2.1 E-04

1.3E-04

1.3E104

1.3E-04

1.2E-04

I.IE-04

6.7E2-S

3.SE-OS

2.9E-05

2.1E-O5

2.1E-05

2. 1 E-05

2.1E-05

2.0R-05

2.0E-05

2.2E-04

9.5E-06

1.IE-05

4.56-06

4.sl-om

6.7K-05

4.1E-06

4.1E-06

AC

6.4E-05

4.4E-05

4.0E-OS

2.SE-05

2.4E-05

2.4EK-S

2.33-05

2.0E-05

1.3E-05

7.2E-06

4. 1E-06

4.OE-06

4.0E-06

3.9E-06

3.9E-06

3.E-06

3.7E-06

2.6E-06

I.tE-C6

1.6E-06

3.5r-07

3,5n-07

7.32-07

7.8E-7

7.82-07

IW 24'

I

til

4
;

i ?" , .-. , w.:.: ."f. i, .. .. ! .'I . . I m.. :.",

EFFECTIVE OVERHAUL INTEMVAL = fl MONTHS

TIRGALEX / 72 MO. i

TOP DOUBLE CONTRIBUTORS

PInt A

20-oet-a9

03:17 PM

Totl aC- 1.46-03

cm

Rank

1

2

3

4

5

6

7

9

10

I11

12

13

14

is

16

17

1I

19

20

21

22

23

24

25

Component Name

OEP-DGN-FR-6HWD3

OEP-DGN-FS-DC0I

0EP-DGN-FS-DO0I

OEP-DGN-FS-DW03

OEP-DWN-FS-DW01

OEP-DGN-PS-DW02

OEP-DWN-FS-DGW0

OEP-DWN-FR-6HDU2

LPR-MOV-FT-1t62B

LPR-MOV-FT- I 862A

LPR-MOV-FT-1862A

LPR-1 IOV-FT-1 360A

LPR-MQ;V-PT- 13909

HPI-MOV-FT-1 115B

HPI-MOV-FT-1115C

OEP-DGN-FR-DGOI

OF.P-DON-FS-DW03

OEr-DON-FS-DW02

OEP-DWN-FS-DW0!

0EP-DWN-FS-DGW0

OEP-DWN-FR-DG02

OEP-DGN-FS-DGO02

OEP-DWN-FR-6HDW3

OEP-DGN-FS-DC;01

OEP-DON-FS-DW02

Aql

1.9E-01

I.9E-01

1.9E-01

1.9E-01

I.9E-01

l.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

L9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9-0 1

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

I.9f-01

1.9E-01

Component Name

OEr-DGN-FR-6HDGI

OEP-DGN-FS-DG03

OEP-DGDN-FS-DO02

OEP-DG.N-FR-6HD I

OEP-DON-FR-6HWD2

OEP-DGN-FR-6HD I

OEP-DWN-FR-6HDG3

OEP-DWN-FR-6HD I

LPR-MOV-FT-1860A

LPR-MOV-FT-I 9620

LPR-MOV-PT-13609

LPR-MOV-FT-1860B

LPR-MOV-FT-1890A

HPI-MOV-FT-1 I 15D

HPI-MOFV-T-l l15E

OEP-DGN-FR-DG03

OEP-DON-FR-DGOI

OEP-DGN-FR-D01l

OEP-DON-PR-DW02

OEP-DWN-FR-DW03

OEP-K;N-FR-DGOI

OEP-DGN-FS-DG03

OEP-DWN-FR-6HD02

AFW-TDP-FS-FW2

OEP-DON-FR-6HD03

a q2

1.9E-01

I.9E-01

1.9E-01

1.9E-1

1.96-01

I.9E-01

I.9E-01

I.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

I.9E-01

1.9E-01

1.9E-01

1.9E-01

I.9E-01

.9-E01

I.9E-01

1.9E-01

1.4E-01

1.98-01

S12

3.6E-03

3.1 E-03

3.1E-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

1.SE-03

1.5-03

1.5E-03

1.SE-03

I.SE-03

1.4E-03

1.4E-03

6.4E-04

6.0E-04

6.0E-04

6.06-04

6.0E-04

5.8E-04

2.2E-04

2.0E-04

2.6E-04

1.9E-04

*ql q2

,3.6E-02

3.6E-02

3.6E-02

i.6E-02

3.6E-02

3.6E-02

3.6E-02

3.6E-02

3.6E-02

3.6E-02

3.6E-02

i66-02 i6E-02

3.6E-02

3.6E-02

i.6E-02

3.6E-02

3.6E-02

3.6E-02 '3.6E-02

3.616-02

12.7E-02

3.6E-02

*C

1.3E-0

1.IE-04

1.11-04

3.1E-05

3.3E-05

1.SE-0S

3.8E-OS

3.7E-05

5.4E-05

S.4E-05

5.46-5

S.4E-0

5.4E-OS

4.9g-OE

4.91!-0C

2.3E-05

2.2E-0S

2.26-05

2.2E-OS

2.2E-05

2. 1E-0S

7.8E-06

7.1E-06

7.OE-6

6.9n-06

I
EFCV OVERHAUL INTRVAL = 72 MONTHS

TIRGALEX - MOD I 72 MO.

TOP SINGLE CONTREBUTORS

Plant A

20-Oct-89

03:18 PM

Total C- 4.1h-04

Rank

2

3

4

5

6

7

9

10

11

12

13

14

Is

16

17

18

19

20

21

22

2A

24

25

Compomet Name

OEP-DWN-FS-W01

HPI-CKV-FT-CV225

OEP-DWN-FR-6HWD

HPI-CKV-FT-CV4 10

HP[-CKV-rt-CV25

OPtP-DN-1S-4M03

OEP-DON-rS-Dm02

OFP-DON-FR-6HD03

HPI-MOV-PT

OEP-DON-FR-dHDO2

LPI-MDP-FS

ACC-CKV-FT-CV128

ACC-CKV-rr-CVl41

ACC-CKV-FT-CV130

ACC-CKV-FT-CV147

LPR-MOV-FT

OEP-DWN-FR-DG01

HPI-MOV-FT- 1350

AFW-TDP-FS-FW2

CVC-MDP-FR-2AIHR

OEP-DGN-FR-DG03

OEP-DON-FR-DW02

APWv 1 n1 1 11-114*slif

AFW--MDP-PS

LPI-MDP-FS-SI IB

a& qt

1.91-01

2.0E-02

1.9E-01

2.0E-02

2.0f-02

1.9r. 61

I rIN-0

' j'-02

2.0E-02

2.OE-02

2.E1-02

6.3E -02

1 9E-01

6.3E-02

I.4E-01

S.RE-02

1.9E-01

1.9E-0t

1.41k-01

S. 8-02

5.SE-02

St

2.3E-O4

2. 1E-03

2.1h-04

1.4E-03

.4A-03

.3E-04

;.3E-04

i.2'R-04

3.46-0

IIE04

2.2E-04

S.OE-04

5.0E-04

5.OE-04

S.OE-04

1.3E-04

3.BE-05

6.7E-05

2.9E-05

6.7E-0S

2.0E-05

2.01-05

I, fn-01

2.6e-05

2.56-05

*C

4.4E-05i

4.2E-05

2.RE-0

2.811-05

2.40-03

2.4E-0

2.311-S'

2.26-05

2.0E-OS.

1.3E-05

1.0E-0O

1.0E-05

I.06E-05

1.0E-OS

8.3E406

7.2E-06

4.2E-06

4.1E-06i

3.9E-06

3.E-06

3.7E-0

1.5E-06

1.4E-06

p

's., *.

,., .

1%

1

r-dr

.

-- - - --- --- - - - -- ' _.I- * k s 
I

EFFCTIE OVERHAuL iNERVAL = 72 MONTHS

Plant A

20-Oct-89

0):16 PM

IROALEX -MOD I / 72 MO.

TOP DOUBLE CONTRBUtO

i i

Total aC- 1.18-03

Rank Cnmpnnent Name

I 01rr WIxN 1'R-6tLIX)

2 OEP-DWc-FS-DGOI

3 OFP-DGN-FS-DW01

4 OEP-DGN-FS-DG01

S OEP-DWN-FS-DG01

6 OEP-DGN-FS-DG03

7 01P-rXIN-FS-DC02

a Or.P-DoN-PR-611r)2

9 OEP-DGN-FR-DGW0

10 OEP-DGN-FS-DG03

I I01P-DGN-FS-DW01

12 OEP-DGN-FS-DG02

13 0EP-DWtN-FS-DG01

14 OEP-DGN-FR-DG02

15 OEP-DGN-FS-DO02

16 OEP-DGN-FR-6HDG3

17 OEP-DGN-FS-DW01

18 OEP-DGN-FS-DG02

19 OEP-DWN-FS-DG03

20 OEP-DGN-FR-6HDWI

21 LR -MOV- t-I162A

22 I.PR-MOV-FT-l1fs2A

23 LPR-MOV-FT-11629

24 LPR-MOV-Fr-19908

25 LPR- MOV-Fr-I860A

aql

1.9"-01

I.9E-01

I.9E-01

I.9E-01

I.9E-01

1.9E-01

1.91-01

1.9E-401

I .9E-01

I.9E-01

1.9p1-Ct

1.9F,-01

I.9E-01

I.91E-01

I.91E-01

I.9E-0I

.91E-01

I.9E-Oi

i.9E-01

I.9E-01

6.111-2

6.3F.-02

6.3E-0

6.3E-02

6.3F-02

Conpomdi Name

olip-MXIN PR-61VDG

OEP-DGN-FS-DG02

OEP--oGN-r3-DC03

OEP-DGN-FR-6HDW3

OEP-DGN-FR-61W2

OEP-DWN-1R-6HDGI

011P-DON-FR-6ot I

Or P-DON-PR-61f! I

OFP-DCN-FR-DG03

OEP-D0N-"-DG01

OP-DGN-PR-DG02

OEP- DON-FR-DGOl

OEP-DGN-FR-DG03

OEP-DWN-FR-DOOI

OEP-DGN-PS-DCX03

OFP-DGN-FR-6HD02

AFW-TDP-FS-FW2

OEP-DWN-FR-6HDG3

OEP-DGN-FR-6HWD2

AJW-TDP-FS-FW2

LPt MoV-PT-126211

LPR-MOV-lT- I on

' PR-MOV-PT-1860A

LPR-MOV-FT-I190A

LPR-MOV-Fr-116O1

Aq2

1.911-01

1.9E-01

1.9E-01

1.9E-01

1.9E-01

I.9E-01

1.9-61

1.9-01

19E-01

.91E-01

1.91-01

1.9p1-01

1.9E-01

1.9E-01

1.9-01

1.9E-01

1.4E-01

1.9E-01

1.9E1-OI

I.4E-0I

6.R-02

6.3P.-02

6.3E-02

6.3E-02

6.3fl-02

812

3.6ft-0

3.M1E-03

3.1E-03

2.4E-03

2.41-03

2.4E-03

2.4ft-M

2.49-0

6.4E-04

60E6.011-

6.0ri-04

6.0E-0

S.AE2.2E-04

2.01E2.6E-0

1.9E-0

1.9-04

2.413-0

1.5fl-0

1.511-03

L.SE-03

I.SE-03

;.5R-M

aqt aq2

3.R1-2

3.6E-02

3.6-02

3.6E-02

3.6E-2

3.6E-02

3.61-M

', 3.611-02

3.61-02

3.6E-02 3.611-0

3.6E-M

3.61-02 3.611-02

2.7E1-02 3.611-2

3.6Ei-02

2.7E-2

4.0Q-0

4.0F.-03

* 4.0E4-3

4.011-3

4.011-03

*C

1.311-Bt

I.IE1.1I.-E

$.3F-SE

3.tE-05

.tE-05

IRo-S

3.71-05

2.3R-0

2.2E-0S

2.2R-05

2.211-OS

2.2E-05

1IE-05

7.81-06

7.1E1-6

7.0E-06

6.9R.-06

6.9E-06

6.4E6.0n-06

6.01-0

6.01-M06

6.0E-06

6.06-0

C', .y.

, AftI

l vf t -

I is f rt

* K

1.4$

.S

i .,*1 s
EPFECTIE OVERHAUL IN IRVAL =77 MONTHS

MAn A TRGALEX - MOD 2172 MO.

1 ( 20.-o29u TOP STMLB CONTRITrORS

01:70 PM, s. 7

ToWl AC- 2.59-4.

Rest C.npmw Nam Aql 1 I ; -&

I OFP-DON-FS-DG0t 2.16-01 2.39-0 4.9E6-,05

2 OEP-DON-FR-6HD1- 2.1E-01 2.16-04 4.SE6-05 k .

3 OEP-DGN-FS-DK03 2.IE-01 IJE-0 2.66-05

4 OEP-DrN-FS-D002 2.11-01 1.3E-04 2.6E:-0

S OEP-DGN-FR-6HDG3 2.11-01 1.2E-04 2.66-05

6 OEP-DGN-FR-GHDG2 2.16-01 .1E- 2.26-0-

7 OEP-DGN-FR-DO0I 2.16-01 3.E-05 7.9E606

t HPI-MOV-Tr 2.1E-02 3.41-0 7.1E3-06

9 0EP-DGN-FR-DG03 2.1E-01 2.0E-05 4.23-06

10 OEP-DGN-FR-DG02 2.1E-01 2.06-05 4.1E3-06

I1 APW-TDP-FS-FW2 1.43-01 2.9E-05 4.1E3-06

12 LP1-MDP-l1S 1.6rF-m 2.2E-0 3.SE6-06

13 LPR-MOV-Fr 2.1E-02 1.3E-04 2.3E406

14 Hrl-CKV-FT-CV225 7.96-04 2. E-03 1.7E-6-

IS AFW-TDP-FR-2P6HR 1.46-01 I.IE-05 O.6E-06

16 HPI-Mov-Fr-T350 2.IE-02 6.76-05 1.4E-06

17 HM-CKV-PT-CV410 7.96-04 I.4I-0 I.36-0

I I1Pl-CKV-PT-CV25 7.9E-0 1.4E03- I.IE-06

19 CVC-MDP-FR-2AIHR 1.6-E02 6.7E-05 L.3E-06

20 LPR-MOV-FT-1l62B 2.13-02 2.IE-05 4.46-07

21 LPR-MOV-FT-1962A 2.6-02 2.E-05 4.4A67

22 LPR-MOV-Fr-IN6OB 2.1E-02 2.1 -05 4.41-07

21 IPR-MoV-rr-13i*A 2.11-0 2.1R-05 4.4h-07

24 AI'W-MD-rs I .an 2.6-0 4.26-07

25 ACC-CKV-Fr-CV145 7.96-04 5.01-04 3.91-07

,,S,.

.~~~ ~'~7'"9~ * *. 7t'!-~A " 
EFFECTIVE OVERHAUL INTERVAL " 72 MONTHS

PlntA TIRGALEX - MOD 2 /72 MO.

j -Ocst 2 9 TOP DOUBLE CONTR UTORS

! ~~03:21 PM , ''

Total AC 1.2E-03

Rank Comrmoeent Namne AqI Component Ntme q2 S12 ql *q2 aC iC;'.

I OEP-DO-NR-4H-D 3 2.1E-01 0EP-DWN-FR-6HDW 2.1E-01 3.6E-03 4.4:-02 1.46E-0

z ORP2-4N-PS-D002 2.10-01 OrPDON-R-DOOI 2.10-01 2.4-03 4.46-02 1.r-.4.

3 OEP-DGN-FS-DOOI 2.1E-01 OEP-DON-PS-WD02 2.16-01 3.1E-03 4.4e-M 1.9-04N

4 OEP-DON-FS-DO02 2.1h-01 OFP-DON-FR-6HD03 2.1E-01 2.4E-03 4.4E 02 1.1-041

7 OEP-DWN-FS-DG01 2.1E-01 0EP-DGN-FR-6HDW2 2.1E-01 2.4E-03 4.4k-02 1. 1 -04

6 OEP-DGN-FS-DG0I 2.13-01 OEP-DGN-FR4HDO3 2.E-01 2.46-0 4.4EiO2 1.116-04

7 OEP-DWN-FS-DG03 2.1E-01 OEP-DON-FR-6DHO 2.1E-01 2.4E-03 4.4)t-02 I.IE-04

1 OEP-DON-FR-6HD 2 2.I1-01 OEP-DWN-FR-6HD1 2.1E-01 2.46-03 4.41-02 1.1E-04

i9 OEP-DaN PR-WDOI 2.1A-01 OEP-DON-PR-D003 2.11-01 6.40-04 4.4tl-02 2.76-05

10 OEP-DWN-FS-DO03 2.1E-01 OEP-DWN-FR-D012 2.1E-01 6.0E-04 4.4E-02 2.7E-05

13 OEP-DGN-FS-D01 2.1E-01 OEP-DGN-FR-DW03 2.1E-01 6.0E-04 4.43-M. 2.7E-05

12 OP-DGN-FS-D00I 2.1E-01 OEP-D0WN-R-DGD2 2.1h-01 6.06-4 4.4E-02 2.76-05

13 OEP-DON-FS-DG02 2.1E-01 0EP-DWN-PSR-D01 2.1E-01 6.2E-04 4.4E-02 2.7E-05 .:

14 OEP-DON-FR-HD02 2.1E-01 OEP-DON-PR-DG01 2.1E-01 5.0E6-4 4.4E-02 2.6E-05

17 OTP-DON-FS-D002 2.1h-01 OEP-WtN-PFS-WD03 2,1E-01 2.296-4 4.4E-02 9.7E-06

16 0RP-DWN-PR-6HDG3 2.1R-01 0PP-D()N-PR-6HtDG2 2. 1 t-01 2.OIR-04 4.49-M 2ARP.4 M

17 OrP-DON-PS-wo03 2.1E-01 OEP-DGfN-PR-6HD02 2.16-01 1.968-0 4.46-02 3.5E0

19 OEP-WON-FS-W02Z 2.1E-01 ORP-DEON-PR-6111)(3 2.1B-01 IARl-0 4A4102 I.SR .m

19 OEP-DWN-FS-DOOI 2.16-01 AFW-TDP-PS-PW2 1.4E-01 2.6E-04 3.0E-02 7.AE-06

20 OEP-DGN-FR-6PS r 2.1E-01 AFW-TDP-FS-FW2 1.4d-01 2.4E- 3.61-02 .2E-06'

21 OEP-WN-FS- 62 2.1E-01 AFW-TDP-PS-FW2 1.41101 1.4E-4X 3.9-02 4.2E-06

22 OIIP-DON-PS-D003 2.1R-01 AI'W-TDP-P3-2 1.46-01 1.4h4 3.69-02 4.2R-06

23 OEP-DGN-FR-6HD03 2.1I-01 APW-TDP-PS-PW2 1.49-Ol 1.36-04 J.?9-02 3.9.-06

24 OEP-DON-FR-6HD02 2.1E-01 APW-TDP-PS-MW2 1.4E-01 1.2B-04 3.06-02 3.7R-06 3

25 OEP-DON-FS D001 2.11-01 AFW-TDP-PR-2PdHR 1.46-01 9.53-0 3.09-O2 2.AE-06
EFFECTIVE OVERHAUL ITRVAL = 72 MONTHS

TIRGALEX 

- MOD 3 / 72 MO.

TOP SINGLE CONTrIUtroRs

Plant 

A

20-Oct-19

04:03 PM

Toat C'- 4.1-03

-a

RankI23456799

tO

I 

I

12

13

14

is

16

17

1I

19

20

21

22

23

'4

25

CompeflI Nome

HrPT-CKV-FT-CV225

HPI-CKV-FT-CV25

HPI-CKV-FT-CV4 10

ACC-CKV-FT-CV 145

ACC-CKV-FT-CV 147

ACC-CKV-VT-CV130

ACC-CKV-rT-CV 121

HPI-MOV-PT

OEP-DWN-FS-DWOI

LPI-MDP-FS

OEP-DGN-FR-6HDD 

I

LPR-MOV-FT

OEP-DWN-FS-DG03

ORP-Da N-FS- D002

OEP-DWN-FR-6HDW3

O1~P-DaN-rR-6v1 02

Bpt-Mov-PT- 1350

CVC-MDP-PR-2A I HR

OEP-DON-FR-W301

AFW-TDP-PS-PW2

AFW-MDP-FS

LPI-MDP-FS-SIIB

LPI-MDP-I'S.-SllA

IJ'fl-Mnv-rT- I M7n

LPR-MOV-FT-1162A

AqI

5.39-01

5.36-01

5.3E-01

5.3E-01

5.3E-01

5.3R-01

S.38-01 5.3E-01

5.3E-01

5.3R-01

5.3n-01

5.3E-01

5.36-01

5.39-01

5.3E-01

5.3t-01

5.31-01

5.3E-01

S.3.-0I

5.38-01

5.3E-01

5.31-01

S1

2.19-03

I.4E-03

1.41-03

5.0E-04

5.01-04

5.01-04

5.0!!-04

3.4-04

2.3E-4

2.21-04

2.1 -04

1.3E-04

1.3E-04

1.39-04

1.2E-04

I.*19-04

6.711-05

6.7E-05

3.tE-05

2.9.-OS

2.66-OS

2.5S-05

2.59-0S

2. 1 -01

2.16-05

AC

1.19-03

7.39-04

7.3E-4

2.6E-4

2.6E-04

2.6r -04

2.6R-04

1.13-04

1.2E-04

1.26-0

1.19-04

6.9E-05

6.6E-05

6.61-OS

6.4E-05

5.6na

3.SE-05

3.SE-0

2.0E-05

1.SE-05

'1.48-05

1.36-OS

1.3I-OS

1.1n-OS

5.

1

A

t.

.

,

I i _ _ 

-

I

.... i ,. -.. I I I__ : __r i_ 

,
EPFECTIVE OVERHAUL INTIRVAL = 72 MONTHS

TRGALEX - MOD 3 72 MO.

TOP DOUBLE CONTRmLWORS

Plant A

20-Oet-89

04:04 PM

Total &C- 1.611-02

(Aon

Rank

2

3

4

5

6

7

a

9

to

10

12

13

14

is

16

I1

18

19

20

21

22

23

'.4

25

Component Name

OE1P-DON-FR-611003

ORP-DON-FS-DG0I

o01P-DON-Fs-D001

0EP-DGN-FS-DG0I

OEP-DON-FS-D002

OEP-DON-FS-DOOI

OEP-DON4-FS-D003

0EP-l)0N-FR-6HDG2

LrR-NM.OV-FT-I1462A

LPR- ?%40V-PT-I962A

LPI-MDP-FS-SIIRB

LrR-M0V-FTr-t8 62B

LPR-MOV-PT-I390B

LPR-MOV-PT-I8620

LPR-MOV-FT-1 860A

LPR-MOV-1IT-I 180A

LrIM-MOV-1T-1862A

LPI-MDP-FS-StIA

HP[-MOV-FT- IIIS1B

HlPI-M V-17T-11151C

CPC-h,' 'jP-FS-SWIl0B

LPI-MDP-FS-STIB

LPR-MOV-rFT- I1960

*ai~v-Mov.-rT- 18n2

LPR-MOV-FT- I 62B

Aql

S.311-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

S.3E-01

5.3E-01

S.3E-01

5.11r-01

5.3E-01

5.3E-01

5.31E-01

5.3E-01

5.3E-01

5.31-01

S.3.-Ol

5.311-01

S.3E-01

5.31E-01

5.3E-01

5.3E-01

5.3E-01

5.311-01

3.3LT-01

5.311-0

Colmpont Nome

OEP-DON-FR-6HD I

0RP-l)N-rq-D002

OEP-DON-FS-DW03

OEP-DWN-FR-6HWD3

OEP-DGN-PR-6HD0 I

OEP-DON-FR-61tD02

0EP-DGN-PR-6HDOI

OEP-DON-FR-6HDO I

L.1R-MOV-Pv- 18601

LPI-MDP-PS-SIIB

I .Pt-MDP-FS-SI 1 A

LPI-MDP-FS-SIIA

LPR-MOV-PT-1890A

LPR-MOV-PT-IR60A

LPI-MDP-FS-SiI 1B

l.lR-MOV-rT- l 8(n

LPR-MOV-PT- 1t620

LPR-MOV-Fr-I860B

HPI-MOV-FT-IIISD

HPI-MOV-FT-l 111SE

CPC-MDP-FR-SWA3H

LPI-MDP-FR-A21HR

LPT-MDP-1R-A2111R

LPI-MDP-PR-02111R

LPI-MDP-PR-A2lHk

A q2

5.3E-01

.3R1-1

5.3E-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

5.31E-01

3.311-ol

5.3E-01

S.3E-01

5.3S-01

5.3E-01

5.3E-01

5.311-01

5.3ft-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

S.3£-01

5.3R-01

5.311-01

5.31-01

S12

3.6-03

3.111-03

3.1 E-03

2.4E-03

2.41E-03

2.41E-03

2.46-03

2.M1E-03

1.51-03

1.5EM-03

1.5E-03

1.5E-03

1.SE-3

1.5E-03

1.5E-03

1.Sn-0o

1.51-03

I.Sh-03

1.41E-03

.41E-03

1.OE-03

1.OE-03

1.0R-03

1.08-03

1.0h-03

Isql &q2

2.AR-01

2.811-01

2.tE-01

2.3E-01

2.tE-01

2.8E-01

2.tE-01

2.18-01

2.8E-01

'2.AE-01

2.81-01 2.81-01

Q2tE-01 2.t11-01

2.8E-01

2.8E-01

2.tE-01

2.8E-01

2.8E-01

2.81-01

2.J1-01

2.8E-01

9.911-0

6.811-04

6.81E-04

6.81-04

6.31E-0

6.711-0

4. 1 -04

4.111-44

4. 1 E-0

4AR1-04

4.11E-04

4.111-0

4A11-04

4. 1 R-04

4.1IF.-04

4AE1-04

I.81-04

I.3E-01

2.31E-04

2.811-04

2.61104m

2.811-04

2.1-8E-

& .4I

.

Av go I 60,11-140

kw .-.0*4w

re.

-W
.. , <<I: ' < . . _ ---4,z-v- S+,.sa '- .*,LI, -~'r^ A R..> . -a. r-. ~ .At . -- - - .-.. - ; '.

-Si

I

:.t'

4s

* --

CONTRIBUTORS FOR

- - PLANTA

EFFECTIVE OVERHAUL INTERVAL = TIRGALEX

.I

.4I

-S

0,

.5

I

I

S9
EFFECTIVE OVERHAUL INTERVAL TIRGALEX

Plant A TIRGALEX I TIRGALEX

20-Oct-19 TOP SINGLE CONTRIBUTORS

02:54 PM

Total a C- 1.R-05

Rank Compoent Name A*ql 91 *C I

I HP[-CKV-r!-CV225 1.5E-03 2.1 E-03 3.25-06

2 HPI-CKV-FT-CV2S 1.5E-03 1.4E-03 2.1E-06.

3 HPI-CKV-FT-CV410 I.SE-03 1.4E-03 2.1E-06

4 OEP-DWN-FS-DG01 4.4E-03 2.3E-04 1.0E-06 I

5 OEP-DWN-FR-6HW1D 4.4E-03 2.1E-04 9.4E-07

6 ACC-CKV-FT-CV145 1.5E-03 5.OE-.4 7.7E-07

7 ACC-CKV-FT-CV12¶ 1.5E-03 5.0E-04 7.7E-07

3 ACC-CKV- "T-CV147 1.51-03 S.OR-04 7.7R-07

9 ACC-CKV-FT-CV 130 1.SE-03 5.0t-04 7.7E-07

10 AFW-TDP-FS-FW2 2.01-02 2.95-05 S.AE-07

11 OEP-DWN-FS-DW03 4.4E-03 1.3E-04 5.6E-07

12 OEP-DGN-FS-DG02 4.4E-03 1.3E-04 S.65-07

13 OEP-DWN-FR-611U03 4.4E-03 1.2E-04 5.45-07

14 ORP-DON-rPR-M1D02 4.4AM-03 1.15t-04 4.75-07

15 LPI-MLIP-11S 1.65-03 2.25-04 3.7.-07

16 HPI-MOV-l'T 9.1-04 3.41-44 3.1 E-07

17 APW-TDP-rR-2P61IR 2.0E-02 3.1-05 2.3E-07

I OEP-DON-r'R-DOOI 4.4F.-03 3.1E-05 1.7E-07

19 LPR-MOV-Fr 9.1E-04 1.3-04 1.2E-07

20 CVC-MDP-FR-2A1HR 1.6E-03 6.7E-05 l.1E-07

21 OEP-DON-FR-DC;03 4.46-03 2.0E-05 3.AE-0,

22 OEP-D0N-FR-DC02 4.4E-03 2.0E-05 1.7E-0t

23 OEP-CRB-FT-15H3 2.6E-04 2.4E-04 6.35-03

24 HPI-MOV-FT-1350 9.1E-04 6.7E-05 6.1E-08

25 SIS-ACT-FA-SISB 2.83-03 I.SE-0S 4.9E-03

I~~ I,
EFFECTIVE OVERHAUL INTERVAL = TIRGALEX

.1

1i

TROALEX / TRMGALEX

TOP DOUBLE CONTRIBUTORS'

Plant A

20-Oct-89

02:57 PM

Total AC- 9.9E-07

0%

Ronk

1

2

3

4

5

6

7

8

9

10

I1

12

13

14

15

16

17

Is

t9

'A0

21

22

23

24

25

Component Nmwe

OEP-DGN-FR-6HWD3

OEP-DON-PS-DOOW

OEP-DWN-FS-DW01

SIS-ACT-FA-SISB

OEP-DKN-PS-D003

OEP-DWN-FS-DW01

OEP-DON-FS-DWOI

OEP-DON-FS-DG02

OEP-D<GN-FR-6HWD2

AFW-TDP-FS-PW2

ORP-DON-FS-nPo

OEP-DWN-FR-6HD I

AFW-TDP-FR-2P6HR

OEP-WDN-PR-D'301

OEP-DGN-FS-DW03

OEP-DON-FS-DG02

0EP-DWN-FS-DO01

OEP-DON-FS-DW03

OFP-DGN-FS-DG01

OIPP-DON-Pq-1DO02

OEP-DGN-PR-6HDW3

RMT-ACT-FA-RMTSA

OEP-DON-PR-DW02

OEP-DGN-FR-6HDW2

AFW-TDP-FR-2P6HR

A' I

4.4E-03

4.4E-03

4.4A-03

2.RE-03

4.4E-03

4.4E-03

4.4E-03

4.4E-03

4.4E-03

2.011-0

4.41-03

4.4E-03

2.0E-02

4.4E-03

4.4E-03

4.4E-03

4.4E-03

4.4E1-03

4.4E-03

4.4r -03

4.4E-03

2.88-03

4.4E8-3

4.4E-03

2.0E-02

Component N~ng

OEP-DGN-FR-6HDWI

OEP-DON-FS-DW02

OEP-DON-FS-DW03

SIS-ACT-FA-SISA

OEP-DWN-FR-611D I

OEP-DWN-FR-6HD02

OEP-DON-FR-6HD03

OEP-DGN-FR-6HDOt

OP-DGN-FR-6HDO I

AFW-TDP-FS-U2FW2

AFW-TDP-FS-PW2

AFW-TDP-PS-FW2

AFW-TDP- FR-6HRU2

OEP-DON-FPR-DW03

AFW-TDP-FS-FW2

AFW-TDP-FS-FW2

OEP-DGN-FR-DW02

OEP-DGN-F'-DO01

0P-DWN-FR-DW03

OrP-DON-PR-DaOI

AFW-TDP-PS-FW2

RMT-ACT-FA-RMTSB

OEP-DWN-FR-DG01

AFW-TDP-FS-FW2

AFW-ACT-FA-PMP3A

Aq2

4.4E-03

4.4E-03

4.4E-03

2.t3-03

4.41-03

4.4E-03

4.4E-03

4.4E-03

4.4E3-03

2.01-02

2.0E-02

2.0E-02

2.OE-02

4.4E-03

2.OE-02

2.0E-02

4.4E-03

4.4E-03

4.48-03

4.4 8-03

2.0E-02

2.8E-03

4.4E-03

2.0E-02

2.8E-03

S12 '

3.6E-03

3.IE-03

3.1E-03

6.SE-03 i

2.48-03

2.4E-03

2.4E-03

2,4E-03

2.4E-03

8.7E-05

2.6E-04

2.4E-04

3.4E-OS

6.4E-04

1.4E-04

1.4E-04

6.08-04

6.08-04i

6.OE-04

1.3E-04

1.SE-03;j

5.$E-04

1.2E-04':

1.8E-04 !

sql Aq2

2.OE-05

2.08-05

2.0E-05

7.6E-06

2.0E-05

2.0E-05

2.0E-05

2.OE-05

2.0E-OS

4.0E-04

3.38-05

8. 1E-0S

4.0E-04

2.OE-05

3.138-05

1.AE-05

2.08-05

2.0E-OS

2.0E-05 2.0E-05

2.Ott-05

t.R8E-05

7.6E-06

2.0E-05

8.8E-05

5.5E-0S

AC

7.0E-0

6.08-03

6.0E-0t

4.9E-0O

4.11-01

4.tE-0t

4.81-03

4.tE-08

4.81-03

3.5E-Ot

2.31-02

2. IE-08

1.4E-0O

1.3E-0t

1.2E-0t

1.2E-0O

1.2E-03

1.2E-0t

1.2£-0t

1.2n-"

1.2E-0O

'. IE-01

I.1E-08

.IE-03

9.9E-0

I. ..

_,>j~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~_ 
EFFECTIVEg OVERHAUL iNTERVAL TIRGALEX

PlM A TMROALXX - MOD I / TIROAI=

2 9-Oet-3 TOP SINGLE CONTRUBMTRS

03:00 PM

TOWt C 1.19-0I

C _mPom* Name Aql Si C

I HPI-CKV-FT-CV225 1.SE-01 2.IE-3 3.2E-04

2 HT1-CKV-Fr-CV25 1.SE-01 1.4E-03 2.IE9-0

3 HPI-CKV-Fr-CV410 1.5E-01 1.4E-03 2. IE0

4 ACC-CKV-FT-CV130 l.SE-01 5.09-04 7.7E-M

5 ACC-CKV-PT-CV145 I.59-01 5.0O9B 7.7E-0S,

6 ACC-CKV-Fr-CV147 I.SE-0I 5.OE-4 7.79-W

7 ACC-CKV-FT-V128 1SE-01 S.OE-04 7.79-0

I LPI-MDP-FS 3.1E- 2.2E4 1.3-06

9 OEP-DUN-FS-DGOI 4.4E9- 2.3E-4 1.09-0

10 OEP-DCJN-FR-4IID)I 4.4R9- 2. 1IR4 9.4R-7

II APW-CKV-JF-CVIS? 1.9S-01 5.4-0 8.49-07

12 APW-CKV-T-CV 172 1.59-01 S.4-06 3.4-07

13 MSS-CKV-PT-SODHR 1.59-01 4.1E-06 6.2E9-7"

14 AFW-TDP-FS-FW2 2.09-02 2.9E-0S 5.3E-07!

IS OF.P-DN-FS-DX0 4.49-03 1.1-4x 5.6-0

16 OEI'-DGN-FS-DC03 4.4E-M 1.3E-04 5.6E-07

17 CVC-MDP-FR-2AIHR 3.19-3 6.7E-0 5.SE-7

13 OEP-DGN-FR-6HDG3 4.4-3 1.2E-0 S.4E-7

19 OEP-DGN-r-Rl;Do2 4.4-03 I.IE-4 4.7E-!0

20 AFW-TDP-FR-2P6HR 2.OE-2 l.E-05 2.3E-07

21 AFW-MDP-FS .IE-03 2.6E-0 2.IE-47

22 LPI-MDP-FS-SIIB 3.1E-0 2.59-0 2.OE-07

23 LPI-MDP-FS-SIIA 3.19-03 2.5E-0 2.0-07 !

24 0EP-DWN*FR-DGI 4.4-03 3.3e-0 1.7E7S AFW MDP-IS-FW3A .lE-03 1.5E- 1.3E0,

| e ~~~~/
- - - l

EFFECI-VB OVERHAUL INTERVAL = TIRGALEX

TIRALX - MOD I J TIRALGi

TOP DOUBLE CONTRIBUTORS

PFlw A

20-ct-"9

0302 PM

Tcdd *C-- 2.35-M

Rank

I

2

I

4

5

6

7

a

9

10

II

12

13

14

is

16

17

19

20

21

22

23

24

25

Co _pmw Ho

APW-TDP-FR-2P6HR

AFW-TDP-FR-2P6HR

LPI-MDP-FS-SlIB

OEP-DON-FR-6HDG3

LPI-MDP-FS-SIIA

LPI-MDP-FS-SIIB

CPC-MDP-FS-SW10B

Orp-DON-FS-DUoo

ORP-DON-P3-DOOI

tiS-ACT-FA-S1lfn

OFP-DON-PS-DOO2

OrP-DON-rS-DOOI

OEP-DON-FS-DW03

OEP-DON-PS-DGOI

OEP-DGN-FR-6HDG2

AFW-TDP-FS-FW2

AFW-TDP-FS.FW2

LPI-MDP-PS-SIIA

Lfl-MDP-PS-SIIB

LPI-MDP-FS-SIIA

LPI-MDP-PS-SIIB

AFW-TDP-FR-2P6HR

APw-TDP-FR-2P6HR

AFw-TDP-FS-FW2

AFW-TDP-FS-FW2

*Aqi

2.0%-02

2.0E-02

3.IE-3

4.4E-03

I.IE-0

3.IE-03

1.IE-03

4.4R-03

4.4F-03

2.35-01

4.45-03

4,4n4.4E-3

4.4E-03

4.4E-0

2.OE-02

2.0r%02

3.I 3K1. I E-03

3. 35-03

3.3I E5-

2.OE2.OE-Q2

2.0E-02

2.0E-02

Cnrnpimm Na

AFW-CKV-FI -CV 157

AFW-CKV-PT-CVI2

LPI-MDP-FS-SIIA

OEP-DGN-FR-6HDGI

LPI-MDP-FR-B2IHR

LPI-MDP-FR-A21HR

CPC-MDP-FR-SWA3H

O5P-fON-PSt-Dm03

OF.P-DWN-PS-DOO2

SM-ACT-PA-S19A

OIRP-DON-PR-6HDOI

OPP-DaN-PR-At6fl8

OEP-DON-FR-GHDO I

OEP-D0N-PR-6HD02

OEP-DGN-FR-6HDOI

AFW-MDP-FS

AFW-TDP-FUn-W2

sMScr-PA-SISTI

SIS-ACr-FA-SISA

LrT-MDP-FR-B24HR

LPI-MDP-FR-A24HR

AFW-MDP-FS-FW3B

AFW-MDP-PS-FW3A

AFW-MDP-PS-FW3B

AFW-MDP-PS-FW3A

Aq2

3.5E-01

1.5E-01

tSAE-m3

4.4E-W

3.15-0

S.IE--

3.IE-03

4.46E13

4.4E-03

2.35-03 4.4R-03

4.4E-03 4.AE-03

4.45-0 4.45-03

I.IE-m

2.OE-02

2.35-03

2.11-03

I.15-03

I.IE-M 3.1E-03

1.15-03 I.IE-M

S12 jqtaq2

I.E-04 .I-0E

I.35-04 A.1E-03

1.5E-03 .6E-05

3.6E-03 i.E1.0E-03 i.6E

I.OE-03 .6E

1.OE-03 .6E

3.1E- 0-

3.1-0 p.

6.&K-03 7.6

2.4R5-3 2.0Q5-

2.45-03 2.05R05

2.45-03 2.oe-0

2.4fi-03 12.0E-05

2.4E5- !2.0E-05

2.2E4 ;1.6E-0

3.7E-0 ;4.0E-04

I.jrv5 - 12.29-M5

1.5E-03 12.2E-05

5.0R-04 6.6-E05

5.0-04 ;6.6E-0O

2.05-04 1.65.-0

2.5E-04 1.6E-04

1.9E-M 1.6E4

1.9E0 1.6E-0

.j; .1 !

AC

5.59-0

5.55E4Y

9.9E-1

7.05-0

6.6E-1

6.6E-1

6.6E-1

6.5-083

6.05-0

4.9n-M

4.21P.-

4.35-O

4.3R40

4.3E-0

4.9R4M

3.6E4M

3.5S-M

3.4-0

3.4e-0

3.35-0

3.39-01

3.29-0

3.2.-0

3.2E-0

3.2rs-f

I

'. 1. 4- 1

4-$~~~~~~~~~~~~~~~~~~~~~~~~11~ ;: 11 10-0 ,T #* -"; .0 ' ., WL '?
I

EFFECTPTE OVERHAUL INTERVAL =7 rGALEX

Plbnt A TIRGAL FIX - MOD 2 I TIRGALEX

20-Oct-89 TOP SINGLE CONTITBUTORS

03:07 PM

Total & C- 4.9-S 0

Rank Component Name Aql Si AC

I HPI-CKV-FT-CV225 6.1-03 2.1E-03 1.3E-OS

2 HPI-CKVFrT-CV2S 6.1E-03 1.4E-03 8.4E06!

3 IIPI-CKV-'Tr-CV410 6.11-03 1.48-03 .4R-04:

4 ACV-ECKV-PT* CV130 6.19-43 5.05-04 3. o5-0!|

5 AC(!-C"KV-I'I'-CV 14.1 5.3l-01 3.50504 30R-ohf

nl '(r' tKV-vt(-V147 6.1I5-01 5.0t1-04 inn-oni

7 ACC-CKV-frr-cVl2U 6.A1-03 5.0R-04 3,011-061

1 ORP-MMIN-P'S-l1)301 4.9E-03 2.3R-04 I.li-06'

9 OEP-DGN-FR-6HDOl 4.9E-03 2.1E-04 .OE-M6

10 OEP-DWN-FS-DW02 4.9E-03 1.3E-04 6.2E-07

Il OEP-DGN-PS-DG03 4.9E-03 1.3E-04 6.2E-07*

12 OFT-I1)IN PR-6111X33 4,9E-03 1.2E-04 6.0E-07'

13 APW-T'l)l' 15-IW2 2.01(-02 Z.9t1-05 $,Sfl-07

14 0EP-DGN-FK-6HDW2 4.9E-03 1. IEO4 5.3E-07'

15 LilP-MI)P-1-9 2.21R103 2.21H)M 5,n0R-0

16 AF*-TDP-FR-2P6HR 2.0E-02 I.1E-05 2.3E-01

17 OEP-DWN-FR-DW01 4.9E-03 3.5E-05 1.9E-07

It CVC-MDP-FR-2AJHR 2.271-03 6.7E-05 1.5E-02

10 OP-IXN-FR-DG03 4.9E-03 2.OE-05 9.8q-Ot

20 OEP-fl(1N-FR-D002 4.9s-03 2.0t!-03 9.711-0d

21 01.P-CRfl-FT-15H3 2.6E-04 2.4H-04 6.3E-06

22 Prw-Mnr rS 2.2F-03 2.60-05 5.os-ot

23 LPl-Mb)P-rS-SllD 2.2rs-03 2.533-05 s.lr-t

24 LPl-MDr-rs-SlIA 2.2E-03 2.5E-05 S.SE-08

25 SIS-ACT-FA -SISR 2.85-03 1.ou-05 4.911-0

I.

I - Li. I .  .

im, ''lg . e .90 rl"W. k' N - I 1

'; . I.!' "wi: ';.; 1. -. .
Plant A

20cft-)9

03:09 PM

Total CRank

2

3

4

5

6

7

8

9

10

I1

12

13

14

is

16

17

1R

19

20

?1

22

23

24

25

.1.2E-06

Comnonent Name

< ,r-DGN-FR-6HD03

On' -DGN-FS-DW01

OEP-DWN-FS-DGOI

OEP-DWN-PS-DG02

OEP-DGN-FS-DG01

OEP-r3N-FS-DG01

OE:P-DGN-FS-DG03

OEP-D N-FR-6HDW2

SIS-ACT- FA-SISB

AFW- T)P-FS-F' 2

OEP-LWON-FS-DG01

OEP-D0N-FR-6HDO 1

AFW-TDP-FR-2P6HR

ArW-TDrp-rtc 751fR~

OEP-DGN-FR-DGOI

OEP-DGN-**rs-Do02

OEP-DMG - n-DGO3

OEP-DGN 'PS-DG01

OEP-DGN-rFS-11001

01:1I-DON +I ,0)'1.i'

OEPDGN-FS-D<;U2

AFW-TDP-FR-2PGHIR

OEP-DGN-FR-61 Ix;?2

Aql

4.9£-03

4.9E-03

4.9E -03

4.9E-03

4.9E-03

4.9E-03

4.9E-03

4.9E-03

2. RE-03

2.OE-02

4.9E-03

4.9E-03

2.0E-02

2.08.-02

4.9F-03

4.9E-03

4.9E-03

4.9E-03

4.9E-03

4.9F-03

4.9r-03

4.9E-03

2.OE-02

4 .9E.03

4.9E-03

EFFECTIVE OVERHAUL INTERVAL-ljIRGALEX

TIRGALEX - MOD 2 / TIRGALEX

TOP DOUBLE CONTRIBUTORS

Component Namne Aq2 S12 q1 q AC

OEP-DON-FR-6111D1 4.9E-03 3.6E.0J 2.4E-0: 1.61-0

O8P-DGN-FS-D002 4.9E-03 3.1E-03 2.4E-01 7.48-01

OEP-DON-FS-DW03 4.9E13 3. 1E-03 2.4E-0S1 7.41-08

OEP-DWN-FR-6HDW1 4.9E-03 2.4E-03 2.41-0I 5.98-08

OEP-DGN-FR-6HDG3 4.9E-03 2.4E-03 2.4EoSjI 5.9E-0N

OEP-DGN-FR-6HWD2 4.9E-03 2.48-03 2.4E-OS S.9S8-0

OEP-DON-FR-6W1101 4.9E-03 2.48-03 2.4E OS 5.9E-08

OEP-DWN-FR-6HDG1 4.9E-03 2.43-03 2.4E-0 5.91-0O

SIS-ACT-FA-SISA 2.3E-03 6.5E-03 7.63-00 4.93-09

AFW-TDP-FS-U2FW2 2.0E-02 1.73-05 4.0E04 3.5E-0

AFW-TDP-FS-FW2 2.01-02 2.6E-04 9.SE-051 2.63-08

AFW-TDP-FS-FW2 2.0E-02 2.4E-04 9.tE-05 2.3E-08

AFw rKV-FT-CV172 6.18-03 1.8E-04 1.2E-0 2.28-08

ArI-W.CKV.-r-TCV57 6.Il-03 1.LR-04 1.2E-041. 2.2rt-0t

OEP-DON-PR-D003 4.9.-03 6.4e-04 2.4E-05[ 1.5E-0t

OEP-DGN-FR-DWO1 4.98-03 6.0E-04 2.48-05 1.5E-08

OEP-DGN-FR-WD01 4.9E-03 6.0E-04 2.4E-05i 1.5E-08

OEP-DGN-FR-DG02 4.9E-03 6.0E-04 2.4E-05i 1.5E-08

OEP-DGN-FR-DG03 4.9E-03 6.08-04 2.4E-05, 1.SE-OR

OPP-D3J-rTR-DJoI 4.9F-03 5.RV.-04 2.48-OS; 1.4R-08

I'W-l'nr-:s -1W2 2.0rTAY2. 1.4r-.-N 9.1tr-05i, l.4p OR

AFW-TDP-FS-FW2 2.0E-02 1.4E-04 9.1E-051i 1.4E-08

AFW-TDP-FR-6HRU2 2.08-02 3.4E-05 4.0E 04I 1.4E-08

ArW-TDP-Fs-FW2 2.01--02 1.3E-04 9.Rfl-05; 1.3E-O0

AFW-TDP-FS-FW2 2.0E-02 1.2E-04 9.8R-0SI! 1.2E-01

ii

.-'.. '..

, .>

I 

i.r.s

I b' 

j4y .$

1

4

ii

1

/
i 

;

Plant A TIRGALEC X - MOD 31/ TIRGALEX -,

20-Oct-9 TOP SINGLE CONT BUTORS 

:

03:04 PM 

-

Total C- 6.9E- 0 

3

Rsank Coripnet 11am Aql Si *C !s

1 l4Pi 'KV-FT-CV225 l.OE.0 2.IE-0 2.1E-03

2 HPI-CKV-FT-CV2S 1.OE+00 1.4E-03 1.4E1-03

3 HPI-CKV-FT-CV410 1.OE+0 1.4E-03 1.4E1-03

4 ACC-CKV-FT-CV145 1.OE+OO 5.OE-04 S.OE-04

S ACC-CKV-FT-CV12S l.OE+OO 5.0E-04 5.013-04

6 ACC-CKV-PT-CV147 I.OE+OO S.OE-04 5.OE-04

7 ACC-CKV-rT-CV130 L.OE4O0 S.OE-0 5..OE-04

8 LPI-MDP-FS 7.4E1-2 2.2E-N 1.7E1S3;

9 AFW -'KV-FT-CV172 I.OE+O0 5.4E-06 5.4E-06 

;

10 AFW-CKV-ir-CV157 1.OE0 S.4E-06 5.4E6-;

! I CVC-MDP-FR-2AIHR 7.41E-02 6.7E-0S S.OE-06

12 MSS-CKV-PFT-SODHR 1.OE.O0 4.1E-06 4.1E3-0

13 ORP-DON-PS-DoOI 1.2r%-2 2.36-04 2.9R- ,.

14 OEP-DON-FR-6HDWI 1.2E-02 2.1E-N 2.6E13-

15 AFW-TDP-FS-FW2 7.4E-02 2.9E-05 2.1E-06

16 APW-MDP-FS 7.4E1-2 2.6E-05 2.0E-O6

17 LPI-MDP-PS-SIIA 7.4E-M 2.SE-OS .IE-16

It LPI-MDP-FS-SIIB 7.4E-02 2.SE-05 1.8E-06

19 OEP-DON-P7-DO03 1.2i-02 1.39-04 1.5136

20 OEP-DO?;-FS-DO02 1.21-02 1.31-04 1.51-06f

21 OEP-DGN-FR-611DH3 1.2E-02 1.21E-0 1.51;-06

22 OEP-DGN-FR-6HDG2 1.21-02 1.113-4 1.31-06

23 AFW-MDP-FS-FW3A 7.4E-02 1.SE-05 1.IE3-0

24 AFW-MDP-FS-FW3B 7.4E-02 I.SE-05 l.lE06 I q. 

25 LPI-MDt' rR-D2IlR 7.41-02 1.39-05 0.6-07m
1!. EFFERCTIVE OVERHIAUL INTERVAL TIGAX

TlRGALEX - MOD 3 I T7RGALJVC

TOP DOUBLE CONTRIBUTORS I

. I

* ~~~~~~~~p

Plant A

20-oct-39

03:05 PM

Total AC'- 7.911-05

Rank Comrwwnt Name

1

2

3

4

5

6

7

3

0

10

I I

12

13

14

Is

16

17

Is

19

21

22

23

24

25

ArW-TDP-rR-2P6HR

AFW-TDP-PR-2P6IIR

LPI-MDP-PS-3t I

CPc-MDP-PS-SWIOD

LPI-MD'P-FS-SIIR

LPI-MDP-FS-SIIA

LPI-MDPl FS-SI IA

LPI-MrP-FS-S I P

ArW-TDP-Pr-r-W2

Arw-MDP-rP FW311

AM;W TbP- I'R-2PffIR

AUW-TDP-PR-2P6HR

AFW-TDP-FS-FW2

AFW-TDP-FS-FW2

A FW-TDP-FS-PW2

AFW-TDP-FR-2P6HR

AFW-TDP-FS-FW2

ArW-TDP-FR-2P6HR

AFW-TDP-FR-2P6HR

Arw-TD)P-PR 217?411

clwf DowN-rR-6IIix3

AFW-TDP-FS-PW2

OEP-DON-FS-1)301

OEP-DWN-FS-DG01

OEP-DGN-FS-DG0I

Aql

7.4E-02

7.4r-07

7.4F. -.

7.411-02

7.4E-02

7.411-2

7.4E-02

7.411-02

7.411-02

7.4.1-02

7 4-.02

7.4E-02

7.4E-02

7.42-02

7.4E-02

7.4F-2

7.4E-02

7.4E2-.

7.4E-02

7.4t -0

1.21-02

7.411-02

1.211-02

1.2E-02

1.2E-02

Component Nam

AFW-CKV-PT-CV157

ArW-CKV-PT-CV172

LPI-MDP-PS-Sl IA

CPC-MDP-PR-SWA3H

LPI-MDP-FR-A21HR

LPI-MDP-FR-B21HR

LPI-MDP-Nt-B24HR

LPI MDP-FR-A24HR

Arw-Mnr-P.q

APW-MDP-rs-FW3A

APW-MrP-PS-PW3A

AFW-MDP-FS-FW3B

AFW-MDP-FS-FW3A

AFW-MDP-FS-FW3D

AFW-MDP-PR-3A6HR

AFW-MDP-FR-3B6HR

AFW-MDP-FR-3B6HR

AFW-MDP-FR-3A6HR

AFW-MDP-FS

Arw MIr-r.P

AFW-TDP-PS-U2MW2

OEP-DON-PS-D03

OEP-DWN-FS-DW02

OEP-DWN-FR-6HDW3

A q2

1.01+00

1.0E400

7.4E-02

7.41-02

7.4E-02

7.413-2

7.4E-02

7.46-02

7.411-0

7.41-02

7.4P-02

7.41-02

7.4E-02

7.4E-02

7.411-0

7.4E-0

7.41E-02

7.4E-02

7.4E-02

7.4nt-0

1.2ft-0

7.4E-02

1.21E-02

1.2E-02

1.21E-02

812

1.381-04

I.8E1.5F,-03

1.0E1-03

1.0E1-03 I.SR- 1.013-03

5.05-03 5.013-04 5.09-"

2.21-0

2.28-04

2.09-04

2.0E-04

1.95-04

1.91E-04

1.131-01

1.131-

1.81-04

1.7E-04

1.411-4

3.711-05 1.78-05

3.11E-03

3. 1E-03

2.4E-03

7.4202

S. f1r-03

5.SF.-03

S.5Eq0

S.SE0

5.5B 01

5.51-03

5.5-m03

S.SE-03

5.SA-03

S.5E 03

S.st-03 S.SAN

S.SE-03 5.58-03

5.si-3

1.5f-04 1.5E-0

1.5*0

AC

1.3-05

.2X-05

5.513-0

5.SE-06

5.51-06

2.7E-06

2.7E-06

1.21-N

1.2B-0

1.32-0

1.IE-06

l.lE-06

1.IE4-06

9.13-07

9.31-07

9.E11-07

9.8E-7

9.62-07

7.q11-7

S.4AR-0

4.3R-0

4.711-07

4.7E-07

3.7E-07

I.

L. :*.,K.. I

A

V

I
CONTRIBUTORS FOR

PLANT A

EFFECTIVE OVERHAUL INTERVAL = 18 MONTHS

EF ECrlE SURVEILLANCE INTERVAL = 1 MONTH

68
I

EFFECTIVE OVERHAUL INTERVAL = 18 MONTHSI

EFFECTIVE SURVEILLANCE INTERVAL 1 MONTH

Plant 

A

23-Ot-t9

09:19 AM

TERGALEX I 1J MO. / I MO.

TOP SINGLE CONTRIBUTORS

Totil A C- 17E-06

I

Rank1234S67S9

10

I1

12

13

14

15

16

17

is

19

20

21

22

23

24

25

Coamoment Ncmw

HPI-MOV-FT

OEP-DON-FS-DOOI

OEP-DGN-FR-6HDG 

l

LPR-MOV-FT

OEP-DON-FS-DW02

OEP-DCWN-FS-DW03

OEP-DGN-FR-6HDW3

OEP-De'N-rR-611fD2

HPI-MOV-FT-1350

OEP-DON-FR-DOOI

AFW-TDP-FS-FW2

LPR-MuV-FT- I 362A

LPR-MOV-FT-1862B

LPR-MOV-Fr- Mlon

LPR-MOV-FPT-I 80A

OEP-DWN-FR-DG03

OEP-DWN-FR-DG02

LPI-MDP-PS

PPS-MOV-Pr-1535

APW-TDP-rR-2P611R

LPR-MoVPT7- I 0O9n

LPR-MOV-FT- I 890A

CVC-MDP-FR-2AIHR

lmPI-MOV-nT- 115E1

HPI-MOV-FT-1 I 15B

A ql

9.9E-4

9.9E-04

9.9E-04

9.9E-04

9.96-04

9.9E-04

9.9E-04

9.9E-0

9.9E-04

9.9F.-04

7.4E-04

9.9E-04

9.9E-04

9.n-04

9.9K-04

9.9E-04

9.9E-04

6.0E-05

9.9E-04

7.4P-04

9.9R-04

9.9E-04

6.0E-05

9.9El04

9.9E-04

Si

3.4E-04

2.3E-04

2.1E-04

1.3E-0

1.3e-04

1.3E-4

1.2E-04

1.19-04

6.E-05

3. H-0

2.9E-OS

2. 1E-05

2.IE-05

2.A 5-03

2.1E-05

2.0E-05

2.0E5-S

2.2.-04

9.5E-06

1.I5-01

4.fn-M

4.SE-06

6.7E-05

4. 150

4.1E-06

*C

3.4E-07

2.3E-07

2.1E-07

1.3E-07

1.2E-07

1.2E-07

1.2E-07

.IE-07

6.6E-08

3.7E-R

2.JE-01

2. 5E-0

2. 1E-0

2.05-0

2.0E-01

2.0E-Ot

l.9E-Ot

1.42-08

9.38-09

1.411-00

4.4n-09

4.49-0

4.1J-09

4.1E

4.1E-09

I.IiiIIIIiiiII

11 IIiLiIIi

iiIiIiIiIIi

.4

*1t

.I

.2

I ,
EFFECTIVE OVERUAUL INTMVAL = 18 MONTHS

ImrCInVE SUREvILLANCs INtvIL - MONTH

Plot A

2-oct-19

0444 rM

T[ROLEC / 18 MO. I MPO.

TOP DOUBLE a I roRs

Tobl AC - 3.38.-

%a

R"I

1

2

3

4

S

6

7

a

9

10

I I

12

13

14

15

16

17

Is

I,

20

Coeamwu N

OFP-DON-FR-6#DG3

OEP-DWN-FS-DGoI

ORP-De-o(IpS-IDoo

OEP-DWN-FS-DG03

OEP-DGN-FS-DGOI

OEP-DGN-FS-DW02

ORP-DGN-rS-DG0I

OEP-DQN-FR-611DG2

LPR-MOV-PT-I t629

LPR-MOV- FT- 1 62A

LPR-MOV-PT- I62A

LPR-MOV-FT- II A

LPR-MOV-PT- 190B

HPI-MOV-FT- I IsB

IWPI-MOV-FT-I 115C

OEP-DWN-FR-DG01

OEP-DWN-FS-IW,03

OEP-DON-FS-IX02

0EP-DtN-FS-DG01

OrPr-flN-FI-DO01

£ql

9.9R-04

9.9E4

9.9E4

9.9E-04

9.9E4

9.9E-4t

9.9E-04

9.9E-04

9.9E-0

9.9E4

9.9e-04

9.9E-04

9.9E-04

9.9E-04

9.9E-04

Cauqwwwi Nam

OFP-DGN-FR-6Hm0

OEP-DGN-Fs-D=;

OEP-DON-Ps-Dot2

OEP-DON-FR-6VDOI

0EP-DGN-FR-6HDt2

OEP-DGN-FR-6WDI

OEP-DGN-FR-6H-G3

OEP-DON-PR-61TDO I

LPR-MOV-Fr-I160A

LPR-MOV-FT-1628

LPR-MOV-Pt-IM60OR

LPR-MOV-Pr-It10

LPR-MOV-PT-1090A

HPI-MOV-PT-I I ISD

HPI-MOV-TT-1 115E

£q2

9.9s-e

9.9E-ft

9.9r-04

9.9-04

9.3E-0

9.9E-04

9.9E-04

9.9P.-04

9.9E-04

9.9e-04

9.98-04

9.9E-04

9.9E-4

9.9E-04

9.9E-04

9.9E-04

9.9F.-04

9.9-04

9.9E-04

9.9E-m

9.9n-0

9.9OP

9.98-04

7.48-*4

9.CB312

3.68-03

3.IE-M

3.1E-03

2.4-03

24E-03

2.4E-03

24E-0

248EI3-03

I.5E-03

1.5I-03

15E-03

1.39-0

I.4E-

.4E-03

6.4E6.DF-04

6.0F.-

6.0E-0

6.08-04

S.t2.2E-04

2.01-04

2.6r-04

l.9sn4

Aq1 q2

9.78-7

9.7E 47

9.7J 07

9.7E-07

9.7EM

9.7847r

9.7E,-W

9.7R-7

9.78-07

9.7F-07

9.7fl-.-

9.78-07

9.7E-07

9.71;-07

9.78-0

9.70-07

9.7-07

9.78-07

9.78-7

9,m-(g1

9.74-O

9.7t-07

7.30-m

9.78-0

AC

3S3-0o

3.08-09

3.09-09

2A4E8-

2A4-09

2.49-9

2.4E-09

2A4R1.5R-0

1.5W-09

1.5E-M

1.5E-ao

358-09

1.3E8-

13E-09

6.2E-10

5.9E-10

5.9P-10

5.9P-10

5.9E-10

5.6p-tO

21P.-10

1 .9-.10

.0r. 10

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j

6,

9.9E-04 0EP-DGON-FR-D0-

9.9E-04 OEP-D0N-FR-DG01

9.9s-04 OEr-DGN-PR-DaoI

9.9E-04 OEP-DGN-FR-DrV.2

9,98.-0 OEP- WXN-FR-DG=

9.9F-( 1 0P-DGN-PR-DGOI

9.OA-04 op'-MIN-ps-ba03

9.1-0E OFP-tXIN-PR-gllr)02

9.9r - 0 ArW-TDP-r3-PW2

9.91P-04 OFTP-DON-PR-61ID03

21 O(P-XN-Fk-DG02

22 OEP-DGN-FS-D(a02

?J Otr-WX1N-PR-6(13

?4 OtiP-UN- FS-DO01

25 O0-.P-DON-PS-DO0
.rm :.Tvr , . S 

!s

Mont A

23-Ot-89

09.17 AM

I

RJ~t

1

2

3

4

s

6

7

I

9

10

12

13

14

16

17

'I

19

20

21

22

23

24

*25

EPPECIVE OVRIUL INTERVAL =18 MOfTIIS

EFI7ECfl; SURVEILLANCE INTERVAL -1 MNON

TnPGALRX- MOD 1 1t8 MO. I I MO.

TOP SIMLE CONTRMUi'

Tftal *C- 2.1n-06

Cmvmm Name £ql S1 AC

OEP-WN -S-DG01 9.9E-04 23F-Qt 2.3E47|

HP1-CYV-Pr-CV72S 3.01-04 2. I-03 2.21-4

YEP-DON-FR-61lD0l 9.95-04 2.t5-04 2.15E1rP-CKV-Pt-cV410 1.017-0 3.4-M I.4-7

Hln-CKV-Pr-CV75 .1.-04 1.41-W 1.:4tOpR-llm-Flt-m 9.9R-64 13.3R1-04 1.2?1-

OEP-DOIN-PS-DOM 9.95l-04 1.3n-04 1.21R-4

OFP-DON-FR-611D03 9.911-04 1.21R-04 1.29-W

IWPI-MOV-PT 3.3E-04 3.45-0 1.1n77j

OEP-DGN-FR-61HI02 9.9-0 L.IE- 1.1E-07

LPI-MDPPFS 3.0U04 2.E20 6.%EI.

ACC-CICV-FT-CVI2 1.0-04 5.0- 5.21-06

ACC-C1V-PT-CV145 1.0U-4 5.-4m 5.2t1-4

ACC-CKV-FT-CV130 I.OE-04 S.OR- 5.22-0

ACC- MV-FTr-CV147 L.04 5.01-04 5.2 20 -.

LPR-MOV-FT 3.3-04 1.3E-04 4.35-01

^~on-r~nw-fm__~nn n or.--fu 12 *CAc 12 M

i, ,'A

'.I

I.+

m-t-fov-FrT--350

ArW-TDP-FS-FW2

CVC-MDP-PR-7-ZA 1R

OEP-D;N-F't-DG03

OEP-DGN-Fr.-DGOZ

AFrW-TDP-FR-2P6tR

APW-MnP-PS

LPl-MDP-PS-Sfll

3.3E-0

7.4-

3.05-04

9.95-04

9.S-04

7.4-04

3.0I04

3.0E04

6.711-41

2.97 -05

6.7P.-OS

2.011-05

2.011-05

1.55-05

VW0-W

2M-M

2.2.5-01

2.15-05

2.CR-01* U1EM

ISR-m

3.Ar-09

7.9i-09

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EECTIE OVERHAUL WI TRV AL i 1S MONTHS

EFFECTIE SURVEILLANCE INTERVAL = 1 MONTH

A

Dct-39

46 PM

TIRGALEX - MOD I / 18 MO. I I MO.

TOP DOUBLE CONIUTORS

ac go 3.1E-01

Rank

I

2

3

4

5

6

7

a

9

10

I

12

13

14

15

16

17

to

19

20

21

22

23

24

25

Co _neet Nawe

OEP-DGN-FR-6HD03

0EP-DWN-FS-DIG0

OEP-DON-FS-WG01

OEP-DGN-FS-DG01

OEP-DGN-FS-DG01

OEP-L)WN-FS-DW03

OEP-DON-FS-DW02

OEP-DON-FR-6HD02

0EP-DWN-FR-DW01

OEP-DON-FS-DO03

OEP-DON-FS-D00O

oEP-DON-FS-D=02

OEP-DGN-FS-DO01

OEP-DON-FR-D002

0OP-DWN-FS-DQ02

OF.P-DOW-FR-6RD03

ORP-DON-PS-DOOI

OEP-DON-FS-DO02

ORP-DON-PS-D003

OPIP-DON-PR-HDOI

l.PR-MOV-PT- I 162A

LPR-MOV-PT- I 62A

LPR-MOV-FT-18629

LPR-MOV-Fr-1I908

LPR-MOV-F- 18960A

aql

9.9F-04

9.9E-04

9.9E-04

9.9E-04

9.9E-04

9.9E-0

9.9E-04

9.9E-04

9.9E-04

9.9E-04

9.9E-04

9.9n-04

9.9E-04

9.9E-0

9.9E-04

9.9E-04

O.oP.-04

9.9E-04

9.9E-04

9.9E-04

3.36-04

3.3E-)4

3.3E-04

3.3E-0

3.3E-04

compornt Name

Opp-DON-PR-6HDOI

OEP-DWN-FS-DG02

OEP-DON-FS-D003

OEP-DCN-FR-6HDC3

OEP-DWN-FR-6HD02

OEP-DON-FR-6HWl 1

O6P-DON-PR-61MO1

0EP-DON-PR-614D 1

OEP-DON-FR-DO03

OEP-DGN-FR-DG0I

OEP-DON-FR-D002

OFP-DON-PR-DO01

0EP-DWN-FP.-DW03

0EP-DWN-FR-D01l

OFP-DON-PS-D003

0EP-DON-FR-611D02

APW-TDP-P.-PW2

OEP-DON-PR-6HDO3

OEP-DON-FR-6H02

AFW-TDTP-PS-PW2

LPR-MoV-PT- I wn

LPR-MOV-"T-l 8U

LPR-MOV-Fr-I8f0A

LPR-MOV-FT-1890A

LPR-MOV-FT-11608

Aq2

9.9-04

9.9,-04

9.9E-04

9.9E-04

9.9E-04

9.9E9.9a-0

9.9E-04

9.96-04

9.9E-04

9.9E4

9.9E-04

9.9E-04

9.96-04

9.9E-4

9.96-04

7.4A-4

9.99-04

9.9E-4

7.46-4

3.3R-04

3.36-0

3.3R-04

3.3E-04

3.39-04

812

3.6R6-

3.16-0

3.16-0

2.4E-03

2.46-03

2.46-0

2.4E-03

2.4E-03

6.4£-04

6.0-04

6.06-04 6.06-04

6.0E-04

5.89-" 4

2.2E-04

2.6-04

1.9E-4

1.96-04

2.04R

1.39-03

L.S6-

1.5E-03

L.SE-03

1.56-03

Anl Aq2

9.7R-0

9.7E-0

9.7E-7

9.7E-07

9.7E6-

9.7E-07

9.76-07

9.79-07

9.7E607

9.7E-0

9.7-07

9.7-07

0.7E6-

9.7E0.7E-07

9.71-0M

7.3R-0

9.7e-ar

9.76-07

7.37-07

1.R-07

1.12-07

.6E-m7

1.IE-07

1.19-07

AC

3.56-09

3.09-09

3.0E-09

2.4E-0o

2.4E-09

2.4E-OP

2.4E-09

2.49-09

6.2h-10

5.96-10

5.9E-10

5.9n-10

S.9H-10

5.6E-10

2.AE-10

1.9E-10

1.9s-10

.9s-10

I.SE-10

1.7B-10

1.6R-10

1.66- 10

1.6E-10

1.6E-10

1.6-10

4

.4

w

9..

IS

If
EFFECTIVE OVERHAUL INTERVAL 18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL = MONM

Plet A 7RGMALX - MOD 2 / 18 MO. I tMO.

23-Oct-n9 TOP SINGLE CONTRIBUTORS

09:16 AM

Total &C- 1.3E06C

Rank Compoent Name Aql Si AC

I OEP-DGN-FS-DW01 1.IE-03 2.3E-04 2.6E-07

2 OEP-DGN-FR-6HWDG 1.1E-03 2.1E-0 2.3E-07

3 OEP-DXIN-FS-DG03 1.IE-03 1.34 1.4E5-7

4 OEP-DGN-FS-DCJ02 I.IE-03 1.3E-04 1.4E-07

5 OEP-DGN-FR-6HDW3 1.IE-03 1.2E-04 1.3E-07

6 OEP-DaN-FR-6HDCw2 1.IE-03 1.1E-N 1.26-07 j

7 OEP-DON-FR-DoOI 1.IE-03 3.E-05 4.16 -08

8 HPI-MOV-FT 1. IE-4 3.4E-0 3..'E5-0

9 OEP-DWN-FR-D003 1.1 -03 2.0E-OS 2.2-R 0

10 OEP-DGN-FR-DW02 1.IE-03 2.0E-05 2.26--OS

11 AFW-TDP-FS-FW2 7.4E-04 2.9E-05 2.1 E-0

12 LPI-MDP-FS 8.2E-05 2.2E-04 L.E-08

13 I.?R-MOV-FT 1.1E-04 1.3E-04 1.45-0S

14 HPI-CKV-FT-CV225 4. IE-06 2. IE-03 8.69-0

15 AFW-TDP-FR-2P6HR 7.4E4 1. IE-05 .46E-0

16 HPI-MOV-PT-1350 1. I E- 6.7H-05 7.46-E

17 HPI-CKV-FT-CV410 4.1E-06 1.4E-03 5.7E-09

18 HPI-CKV-1'T-CV2S 4.1E46 1.4E-03 5.7E-09

19 CVC-MDP-FR-2AIHR 3.2-05 6.7E-05 S.SE20 LPR-MOV-7T-1862B l.lE-04 2.1E-05 2.3E-9

21 I.PR-MOV-F- IR62A 1. I .- 04 2.I05 2.35 -09

22 LPR-MOV-FT-1fl60 1.I-04m 2. 1-05 2.396-0

23 LPR-MOV-FT-1860A 1I.15-4 2.1E-05 2.3E- ,

24 AFW-MDP-FS R.2E-05 2.6E-05 2.2E-09

25 ACC-CKV-FT-CV145 4.1 E06 S.OE-0 2.05-09

% I.t, t -~~~~~~~~

/
WYIW Ii' - *ttfig w*| -. r**9, s.w: DwY .,W .9**U" - >* *St " %

. . 4 .

I

EFPECIIVE OVERHAUL INTERVAt =18 MONTHS

EF F

ECTAV SURVEILLANCE INTBIWAL 1 MONTH

TrROALPX - MOD 2 / 18 MO. / 1 MO.

TOP DOUBLb CONTRIBUTORS

Moant A

20-Oct-89

04:49 PM

Totil AC 3.4AE-

..A

Rank

2

3

4

5

6

7

8

9

/ 10l0I t

12

13

14

15

i6

17

I8

19

20

21

22

23

24

25

Component Name

OFP-rKfN-FR-6HD(]3

OEP-DWN-PS-W1)G

OEP-DON-PS-WOI

OEP-D'3N-FS-DO00

OEP-DG:I-FS-DG01

OEP-DGN-FS-DW01

OE5P-DWN-FS-DW03

OQSP-DON-FR-6H002

OEP-DGN-FR-DG01

OEP-DWN-FS-DW03

Or1P-DON-FS-DO01

OP-DGN-FS-DO01

OEP-DON-FS-DW02

OEP-DGN-FR-DW02

OEP-DGN-FS-D02

OEP-DGN-FR-6HDW3

OEP-DGN-FS-DG03

OEP-DON-FS-D002

OEP-DGN-FS-DG0l

OEP-DGN-FR-61D0 I

OEP-DON-FS-DW02

OEP-DCN-FS-D003

Ol.P-DON-FR-6HD03

OEP-DWN-FR-6HWD2

OEP-DWN-FS-DW01

Aql

1. I E-03

1. I E-03

1. I E-03

I.IE-03

1. IE-03

1.IE-03

1.IE-03

.IAE-03

1.IE-03

1. IE-03

1.1E-03

1.Ir-03

I.IE-03

1.IE-03

1.1E-03

1. I E-03

I.IE-'3

I.IE-03

1.IE-03

I.IE-03

I.IE-03

I.1E-03

1.1 E-03

Component Name

OEP-DON-FR-61fD t

OEP-DON-PS-DW03

OEP-DON-PS-DO02

OEP-D0N-FR-6HD I

OEP-DGN-FPR-6HDG2

OFP-DWN-FR-6HDG3

OEP-WGN-FR-6HDO I

O1.P-DON-FR-6HDCI

OEP-DON-FR-DW03

OEP-DWN-FPR-DOI

OEP-DWN-FR-DW03

OEP-DWN-FR-DG02

0EP-WDN-FR-DOG0

OF.P-DGN-FR-DWOI

OEP-DWN-FS-DW03

OEP-DGN-FR-6HDW2

OEP-DGN-FR-6HDG2

OEP-DWN-FR-6HDG3

AFW-TDP-FS-PW2

AFW-TDP-ES-FW2

AFW-TDP-FS-FW2

AFW-TDP-FS-PW2

APW-TDP-FS-FW2

A q2

1. lE-03

1. 1E-03

1. 1E-03

1. IE-03

t.IE-03

1. IE-03

1. IE-03

1. IE-03

1.I1-03

1.IE-03

1.IE-03

1. IE-03

L.1E-03

1. IE-03

1. IE-03

1. I E-03

1. lE-03

1. IE-03

7.4E-04

7.4E-04

7.4E-04

7.4E-04

7.4E-04

7.4A-04

7.4E-04

812

3.6E-03

3.1I-03

3.1-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

6.4E-04

6.0E-04

6.0E-04

6.0E-04

6.05-04

S.RE-04

2.2E-04

2.OE-04

I.9E-04

I.9E-04

2.6E-04

2.4E-Q4

1.4E-04

1.4E-N

1.3E-04

1.2S-04

9.5E-05

Aql .q2

1.25-9.6

1.2E-06

1.25-0

1.2E-)6

1.2E-06

1.2E-06

1.2E-06

1.2E-06

1.2E-06

1.2E-06

1.2E-06

1.2E-06

1.25-06

1.2E-06

1.2E-06

1.2E-0b

1.2E-06

1.2E-06

8.1E-07

8.1E-07

8.1E-07

3.1E-07

.1E-07

.1P,-07

8.1AE7

*C

4.3E-M

3.7E-09

3.75-09

2.9E-09

2.9E-09

2.9E-09

2.9E5-0

2.9E-09

7.7E-10

7.2E-10

7.2E-10

7.2E-10

7.2e-10

6.9E-10

2.6E-10

2.4E-10

2.3E-10

2.3E-10

2.IE-10

I.9E-10

1.IE-10

1.IE-10

1.1E-10

1.0E-10

7.7E-1 I

1.1E-03 AFW-TDP-FS-FW2

1.IE-03 AFW-TDP-FR-2P6HR
EIFECTIVE OVERHAUL INTERVAL 18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL 1 MONTH

PlatA T1RGALE - MOD 3 / 18 MO.f I MO.

23-Oct-39 TOP SINGLE CONTR)UTORS

01:09 PM

Total AC- 2.55-05

Rank Conwnt Name AqI Si A C

I HPI-CKV-FT-CV225 2.7E-W 2.IE5- 5.7E-0

2 HPl-CKV-FT-CV25 2.7E1-1 1.4-m3 3.IIE3 HPI-CKV-FT-CV410 2.7£-03 14AF-03 3.35-0

4 ACC-CKV-FT-CV145 2.7E-0 5.0E-4 1.4E-06

5 ACC-CKV-FT-CV147 2.7E5- S.OE-04 1.4E-06

6 ACC-CKV-FT-CV130 2.7R?03 5.0E-0 1.4E7 ACC-CKV-FT-CV128 2.75-03 5.OE-04 1.411-0

t HPI-MOV-1T 2.7E-03 3.4E-04 9.31-07

9 OEP-DWN-FS-DG0I 2.7E-03 2.3E-0 6.4E-07

10 LPI-MDP-l'S 2.71-03 2.2P-04 6.25-07

11 OEP-DWN-FR-6H1I 2.7E-03 2.1£-04 5.35-07

i l? 17 LPR-MOV-PT 2.7E-03 - 1.3E104 3.6E-07

13 OEP-DON-FS-DO3 2.7-03 1.3E-04 3.48-07

14 OE0-DON-FS-D0 2.7E-03 1.35-04 3.4E-7

15 OEP-DGN-FR6RW3 2.71-03 1.2E-04 3.35-07

' 16 OEP-DWN-FR-6HD02 2.7E-03 1.1-04 2.95-07

17 HPI-MOV-1:1-13S0 2.75-03 .7E-05 1.8-07

1 CVC-MDP r-R-2AIHR 2.711-0 6.75-05 1.35-07

19 OEP-DON-FR-DOOI 2.78-03 3.35-05 1.05-07

20 AFW-TDP-r'S-FW2 2.7E-03 2.9E5 7.9E-0

21 AFW-MDP-PS 2.7E-03 2.6R-03 7.2E-0

22 LPI-MDP-FS-SIIB 2.71-03 2.5E-05 6.35-08

23 LPI-MnP-rq-tlA 2.75-0 2.5B- 6.CIE24 LPR-k OV-FT-1862B 2.7E-03 2.1E-05 5.7E-03

25 LPR-MOV-FT-1862A 2.7E-03 2.1E-05 S.73-03
. ".-ri;r- "Ar

EFFECTIVE OVERHAUL INTERVAL -18 MONTHS

EPFECTIVI SURVEILLANCE INERVAL - 1 MONTH

Plant A

20-Oct-89

04:52 PM

ToNal AC- '

T11OAL13X - MOD 3 / 18 MO./ I1 MO.

TOP DOUBLE CONTRIBUTORS

4.413-0

Rank

2

3

Comronent Name

OEP-DON-FR-614D03

ORP-DON-rS-D000

OrlP-DON-FS-DOI

4 OEP-DON-FS-DOWI

0o

I

1.

5

6

7

9

9

10

I

12

13

14

15

16

17

Is

19

20

fl

OEP-DON-FS-Do02

OEP-DON-FS-r)a01

OEP-DON-FS-DW03

OEP-DON-FR-6HD02

LPR-MOV-FT-1862A

LPR-MOV-PT-I862A

LPI-MDP-FS-Si in

LPR-MOV-FT- I 862f

LPR-MOV-FT- I 9091

LPR-MOV-rT-1862n

LPR-MOV-Fr- I 160A

LPR-MOV-PT- I 60A

LPR-MOV-Fr-1862A

LPI-MDP-FS-S1IA

HPI-MOV-FIT-IIISB

HPI-MOV-FT- 1115C

CPC-MDP-FS-SWI0B

L.PFwM1)P-FS-'1R

A 1

2.713-03

2.7P,-03

2.7E-03

2.7E-03

2.7E-03

2.71-03

2.7E-03

2.73-03

2.7E-03

2.7E-03

2.7E-03

2.7E-03

2.73-03

2.7E-03

2.7E3-03

2.7r.-03

2.7E-03

2.7E-03

2.7E-03

2.7F,-03

2.7E-03

2.7F2-03

2.7u-0i

2.7E-03

2.7H-03

Compooent Name

OEP-DON-FR-61H1>

0EP-DON-PS-nnf32

OEP-DON-PS-D103

OEP-DWN-FR-6HDW3

06P-DtXN-PR-611DI1

OEP-0XN-FR-6HWD2

OEP-DON-FR-6HNXJ

OEP-DGN-FR-6HDWI

LPR-MOV-FT-1860B

LPI-MDP-FS-SI1 R

LPI-MDP-FS-SIIA

LPI-MDP-FS-SIlA

LPR-MOV-FT- I 890A

LPR- MOV-rT- I 860A

LPI-MDP-FS-SI I B

LPR-MOV-FT-I 960n

LPR-MOV-FT-IR62B

LPR-MOV-FT-IR60B

HPI-MOV-FT-II ISD

HPI-MOV-FT- l 1SE

CPC-MDP-FR-SWA3H

LPI-MVP-FR-A21HR

LPI1-M13P-PR-A2111K

LPI-MT)P-FR-B211HR

LPI-MDP-PR-A2IHR

a. q2

2.7E-03

2.7E-03

2.76-03

2.7E-03

2.76-03

2.7E03

2.7E-03

2.7E-03

2.7E-03

2.12-03

2.7E-03

2.7E-03

2.7h-03

2.71t-03

2.7E-03

2.7E-03

2.716-03

2.7E-03

2.7E-03

2.76-03

2.7E-03

2.7F-03

2.71t-03

2.7H-03

2.78-03

S12

3.66-03

3.1 -03

3.1E-03

2.4E-03

2.46-03

2.4E-03

2.46-03

2.4E-03

1.5E-03

1.5E-03

1.5E-03

1.5E-03

1.s-03

I.52-03

1.5F-03

1.SF,-03

I.SE-03

1.5R-03

1.4E-03

1.4E-03

1.0E-03

1.01-03

L.O6R03

1.0E-03

1.06-03

Aql Aq2

7.SE-6

7.5SP-06

7.5E-06

7.5E-06

7.56-06

7.51-06

7.5E-06

7.5E-06

7.5F,-06

7.5E-06

7.5E-06

7.5E-06

7.5F-06

7.-M06

7.5F-06

7.5F,-06

7.5E-06

7.SE-06

7.5E-06

7.5E-06

7.S-06

7.5E-06

7.5t-06

7.5E-06

7.5R-0

AC

2.71-OS

2.32-08

2.36-09

1.3E-OS

1.86i-OS

L.1E-08

1.16 -081

1.1I6-03t 1. IE-0

I. IE-OS

1. 1.16-03 I.IEm I6-OS

1. IE-01

1.09-0

7.SE-O9

7.5-09

7.SR1-0

7.56-09

7.56-09

23 LPR-MOV-PT-1#6011

24 LPR-MOV-FrT-162A

25 LPR-MOV-Fr-1862B

-;
CONTRIBUTORS FOR

PLANT A

EFFECTIVE OVERHAUL IN'TERVAL = 72 MONTS

EFFECTIVE SURVEILAC INEVAL = 1 MONTH

77
;M iA 7fROALIRX172 MO. I MO.

23-Oct-39 TOP SNLB COMUTORS

01:19 PM

Ttftl AC- 6.96-06

Refi E*emgw Mn" ^Aq1 pi AC

I Ii-Mov-r

t r 3.91t-M M.4-04 1.311-0

2 o111-DN-OS-Ot 3.91-0 236-N 9.211-0

3 OEP-DGN-rR-6HDOr 3.9E-03 2.IE-04 8.46-7

4 LPR-MOV-FT 3.9E-03 1.3E-04 5.2E-07

S OEP-DGN-FS-DC02 3.9E-03 1.3R-04 5.OE-0

6 OEP-DN-FS-D003 3.9E-03 1.3E44 5.0R-0

-a 7 OEP-DGN-FR-61IDG3 3.9E-03 1.2E-04 4.SE-07

8 OEP-DGN-FR-6HDG2 3.9E-03 1. IE-04 4.2E-07

9 HPI-MOV-FT-1350 3.9s-03 6.7F 2.7E-07

1:JO O'1-.IXIN I'R-DG01 1,9r-O3 1.)R-05 1s.5E-7

7'11 IAFw-TDP-rs-rw7 3.01-03 2.9-F05 3.6.-01

12 LPR-MOV-Fr-1862A 3.9E03 2.1E4-O S.2B-0

13 LPR-MOV-Fr-19627l 3.96-03 2.16-05 8.7E-0

14 LPR-M(JV-FT-1X(10 3.9E-03 2.1E -OS .22-0

IS LPR-MOV-Fr-160A 3.9R6-3 2.19-05 h.2U-01

16 OFP-DGN-FR-DG03 3.9E-03 2.03-03 7.MR-0

1 O7t r-n` N-PR-DM02 3.9n-03 2.06-05 7.16-0

Is I.pI Mol I-t 7 41t-fm 7n7M.f4 51.41-0

la Pl'S M'V 1'1- q 1,4 2.O5t "I 9,1f nf 1.71t ON

1l AI W 11110 N 41'9Iflt 4 lih H I-.Ift ft 1.41W 411

ft I Mt Pt# IV U * I ,A I "*.is 0 4 tl, Om I *off

'I I 'Vs folio, I'll " I" A 4h 11 4pe o.. 4 **,

:.2 Iii t * | i il $51l4 ag %d a *j b"*p&

It|| I,,t, | 1 '1|it"st1 4 i i* u l tj' leg
EFFECTIVE OVERHAUL INTERVAL = 72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL - MONTH

Plant A

20-Oct-89

04:54 PM

TIRGALEX 1 72 MO.I I MO.

! TOP DOUBLE CONIRIBUORS

I

TolI aC- 6. 1 E-07

. i

Rank

2

3

4

5

6

7

8

9

10

I 1

12

13

14

15

16

17

IN

19

20

21

.22

23

'4

28"

Component Nate

OEP-DWN-FR-6HDG3

06P-DON-FS-DOOI1

OFP-DON-FS-DO01

OEP-DON-PS-D003

OEP-DWN-FS-DGOI

OEP-DGN-FS-DG02

OEP-DGN-FS-lG0t

OEP-DGN-FR-GHDG2

LPR-MOV-FPT-I626

LPR-MOV-FT-I162A

LPR-MOV-PT- I 862A

LPR-MOV-FT- I 60A

LPR-MOV-FT-18908

HpI-MOv-FTr- I I1sn

HPI-MOV-FT- 1115C

OEP-DGN-FR-bGOI

OEP-DGN-FS-D003

OEP-DON-FS-D02

OEP-DON-FS-W001

OEP-DON -FR-DW02

OEP-DON-FS-D002

OEP-DON-FR-6HMG3

OFP-MN-F1-Ml0

nr ap ru-Mfni

Aql

3.9'J-03

3.9E-03

3.91-03

3.911 03

3.9E-03

3.9E-03

3.9E-03

3.94-03

3.9E-03

3.911-01

3.9E-03

3.9E-03

3.9E-03

3.9R-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.90E-03

3.9E-03

3.9E-03

3.PE-03

3.9E-03

IVR-01

1.9r.-oj

Componedt Name

OEP-DWN-FR-6HDWI

ORP-DON,-PS-DO03

0FP-n01N-PRq-DCI02

OEP-D0N-FR-6HDWI

OEP-DWN-FR-6HDW2

OEP-DWN-FR-6HWDI

OEP-DGN-FR-6HDG3

OEP-DGN-FR-6HDGW

LPR-MOV-FT- I 160A

LPR-MnO-FT-IR62R

LPR-MO V-T- 1860B

LPR-MOV-Fr-13608

LPR-MOv-Fr-I990A

HPI-MOV-PT-1 I 15D

HPI-MOV7FT-1 1 ISE

OEP-DGW-FR-DW03

OFP-DGN-FRt-DG0t

ORP-DON-PR-DOOI

OFP-MN-PR-D)00

OEP-DGNPR-DO03

OEP-DON-FR-D001

OEP-nGN-PS-DMO3

OEP-DONLFR-6HWD2

AFW-TD0P-P-PW

ajtr-N-mI(-6IIW3

£ q2

3.9zi-03

3.9E-03

3.011-03

3.9e-03

3.9E-C3

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

.9E-03

3.911-03

3.91-03

3.9F.-03

3.9E-03

3.9E-03

3.9E-03

3.01-01

.o0-OS

S12

3.6E-03

3.18-03

3. 1 R-03

2.4A-03

2.4E-03

2.4E-03

2.41-03

2.41-03

1.5E-03

1.5R-03

1.5E-03

1.SE-03

1.5E-03

I.4E-03

1.4A-03

6.4E-04

6.0o1-04

6.08i-04

6.06-04

6.0E-04

5.86-0

2.29-04

2.01-04

I.OR-04

Aql *q2

1.6E-05

1.6r nS

1.6%-05

i.6E-05

1.6E-05

I.6E-05

1.6E-O5

1.63-05

1.6E-05

1.613-05

1.6E-05

1.6E-05

1.6E-0S

1.6E-05

1.6E-05

1.6E-0S

t.611-05

1.66-05

1.11-05

1.6E-05

1.6E-0O

L.66-05

1.6E-0S

.n211-0

1.611-m

AC

5.6E-0t

4.811-01

4.411-04

3.13t-01

3.81-01

3.RE-08

3.81-01

3.8E-08

2.3E6-

2.3E-011

2.36-09

2.3E-0"

2.3E-08

2. 11;-Ot

2. IE-08

1.0E-03

9.411-09

9.411-0

9.4n-0

9.4E-09

9.0H-0

3.4A6-

3.1E-09

'.06.-C

3.011-09

I

/

1* -Ci-
EFFECTIVE OVERHAUL INTERVAL = 72 MONTHS

EFFECTIVE SURVETJLANCE INTERVAL =1 MONTHM

Plant A

23-Oct-19

01:21 PM I

TMOAM - MOI) 1I n 7 MO. / I MO.

'IOP SINGLB CONTUTORS

Total C- 8.S-06

Rank

1

2

3

4

5

6

7

9

9

10

Compmuent Name

OEP-DGN-rS-D001

HPI-CKV-FT-CV225

OEP-WGN-FR-6HDG I

HPI-CKV-FT-CV4 10

HPI-CKV-FT-CV25

oEP-DWN-FS-W003

OFP-DGN-PS-DW02

OEP-DGN-FR-6HDW3

HPI-MOV-FT

OEP-DGN-FR-6HDG2

11 LPI-MDP-FS

12 ACC-CKV-FT-CV12t

13 ACC-CrV-rT-CV145

14 ACC-CKV-FT-CV130

15 ACC-CKV-FT-CV147

16 LPR-MOV-FT

17 OEP-DWN-FR-D01l

18 HPI-MOV-FT-1350

19 AFW-Tnr FS-FW2

20 CV('-MI)I';I'R-7AIIIR

21 nRP WlfN PR-fl103

22 OEP-DWN-FR-DW02

23 AFW-TDP-FR-2P6HR

24 AFW-MDP-FS

25 LP1-MDP-rP-SIID

A qi

3.9a-03

4.2E-04

3.9E-03

4.2E-04

4.2E-04

3.9E-03

3.96-03

3.9E-03

I.3E-03

3.9E-03

1.26-03

4.2E-04

4.2E-04

4.2E-04

4.2E04

:1.3E-03

3.9E-03

;1.3E-03

:3.0-03

I3.9E-03

i3.06-03

1I.2E-03

1.28-03

Si

2.3R-0

2.1 E-03

2.IE-04

I.4E-03

1.4E-03

I .3E-04

1.3E-04

I .2E-04

3.4E-04

1. I E-04

2.2E-4

5.0E-04

5.0E-04

5.0E-04

5.OE-04

1.3E-04

3.RE-05

6.7E-05

2.9R-05

6.7I!- 01

2.06-01I

2.OE-0S

1. IR-05

AC

9.2e-07

R.7E-07

8.4E-07

5.tE-07

S.tE-07

5.0E-0

5.0E-07

4.9E-W

4.5E-07

4.2E-07

2.7E-07

2.1E-07

2.11-07

2.1 E-07

2.1E-07

1.7E-07

L.SE-07

S.AE6-

3.6E03"

B. I -"

7.AR-OR

7.8E-03

3.4A-08

2.61-O5 3.2E-08

2.SE-05 3.0E-08
_ ,, _ - " ",a ,,v- , ,

EFFECTIVE RENEWAL INTERVAL = 72 MONTHS

EFPEC77Vt SURVEILLANCE INTERVAL = 1 MONTH

TIRGALEX - MOD I 172 MO. / I MO.

TOP DOU LB CONTRIBUTORS

Plant A

23-Oct-19

0123 PM

Total AC ' 4.9.o-07

I

Rank

2

3

4

5

6

7

9

10

I1

12

13

I4

lS

16

17

is

19

20

21

22

23

24

Cnmptmsnt Nam"

OEP-DON-FR-6HDC3

OEP-DGN-FS-DGOI

OEP-DGN-FS-DG01

OEP-DON-PS-DOOI

0EP-DGN-FS-DGOI

OrP-nN-r8 r.'

01 r-x'14f l(1o)

OEP-DON-FR -6HDO2

OEP-DGN-FR-DW01

OEP-DON-FS-DG03

OEP-DWN-FS-DW01

OEP-DON-FS-DW02

OEP-DON-FS-DrJOl

OriP-DON-FR-DO02

OEP-DON-FS-DGO02

OEP-DWN-FR-6HD03

OP.P-DON-FS-DO01

OEP-DON-FS-DGO2

OEP-D(ON-FS-DG03

ORP-DON-FR-6HD1 I

LPR-M10V-FT- I 62A

LPR-MOV-FT'-1862A

LPR-MOV-FI-l8628

LrR-MOV-FT-1890r1

Aqi

3.91E-03

3.913-03

3.9E-03

3.9r-03

3.917-03

1.or-n1

3.9E 03

3.9E-03

3.9E-03

3.911-03

3.911-03

3.9E-Ol

3.913-03

3.91E-03

3.0F-01

3.9E-03

3.913-03

3.9F.-03

1.313-03

1.311-03

1.3E-03

1.3E-03

1.3E1-03

Compn t Name

OEP-DON-PR-6H1`1l

OEP-DGN-FS-DW02

OEP-DWN-FS-WO3

OFP-DON-R-614DO3

OF.P-DGN-FR-611Da2

orWP-nc0N-PRt"1t~D0 I

nEP-DGN-FR-ltfDOI

OEP-DON-FR-DWO3

OEP- DWN-FR-DG01

OEP-DGN-FR-DC;02

OEP-DWIN-FR-DI02

OFP-rX1N-rR-rG03

OEP-DC)N-PR-1301

0EP-DWN-FS-Dt303

01-P-DON-rR-69DG2

AFW-TDP-rS-FW2

OEP-DCN-FR-6Hl03

OEP-DGN-FR-69DG2

APW-TnP-FS-r'W2

LPR-MOV-FT- 18626

LPR-MOV-FT-IR608

LPR-MOV-PT-IR60A

LPR-MOV-FT-I10A

LPR-MOV-FT-1 SOB

A q2

3.911-03

3.9E-03

3.9E-03

3.911-03

3.9E-03

3.91E-03

3.913-03

3.9E-03

3.9E-03

3.91E-03

3.9E-03

3.91-03 3.913-03

3.9E-03 3.OE-03 1.0E1-03

3.9E-03

3.911-03

3.017 03

1.31E-03

1.3E-03

1.311-03

1.3E-03

I.3E-03

*q2 8l2 S1~ 

3.6E-03

3.11E-03

3.113-03

2.411-03

2.411-03

A.4Rt-0:

2.4P.-03

2.4E-03

6.41E-04

6.0L -04

6.01E-04

6.0E-04

6.01,-04

5.J-04

2.2E-04

2.0E-04

2.6E1-04

IS.9E-04

1.9E04m

2.413-04

I.SE-03

1.SE-03

1.5E-03

I.SE-03

1.S11-03

&ql &q2

1.611-05

1.6E-05

1.61E-05

1.611-05

1.611-05

I.613-05

I 1.61E-05 .611-05

1.6E-0O

1.6F1-05

1.61E-0S

1.6E1-05

1.61E-05

1,6E1-0S

1.61E-05

1.2FI-05

1.671-0

1.6E1-OS

1.211-05

1.71E-06

1.71-06

1.7E-06

1.71E-06

1.7E1-06

AC

S.611-ES

4.8E-08

4.E-011

i 1111-011

3.311P-O

3.211-08

3.811-0O

1.0E-04

9.411-09

9.411-E

9.4E-09

9.401-

9.0£-09

3.4E-09

3.1 E-09

3.01-09

3.0E-09

3.011-09

2.AR-09

2.6E-09

2.6E-09

2.6E1-

2.6E-09

2.611-09

I

I

I

i

I

I

2Z LR-MOV-FT-I360A

.j
w.- Ton -iF--I

EFFECTIVE OVERHAUL INTIRVAL = 72 MONTHS

EFFECTIVE SURVEILLANCE INTRVAL = 1 MONTH

pA A TIRGALFX - MOD 2172 MO. I 1 MO.

23-Ot9 TOP SINGLE CONTR UTORS B 

09:14 AM

Totl .hC- 5.18606

Rank CemporenNNme Aqi Si AC

I OEP-DGN-FS-DG0l 4.4E-03 2.3E- 1.0-06 I s

2 OEP-DGN-FR-6HDGI 4.4E-03 2.1E-04 9.3E-07

3 OEP-DGN-FS-D003 4.4E-03 1.3E-04 5.SE-07

4 OFl'-DON-PS-IC02 4.4R-03 1.36 04 S.S6-07

5 OEP-DON-FR-6HDW3 4.4E-03 1.2E-4 5.3E-07

6 OEP-DON.FR-6HD02 4.4E-03 I.IE-04 4.7B-07

7 OEr-DCN-FR-DO01 4.4E-03 3.BE-05 1.7E-07

I HPI-MOV-Fr 4.4E7 3.4E-04 I.SE-07

9 OEP-DON-FR-DG03 4.4E-03 2.0E-05 8.76E-0

10 OEP-DWN-FR-DW02 4.4F,.03 2.0E-05 t.6F' 0R

It Arw-TDI IrS FW2 3.vn6O3 2.9n-05 8.068-O

12 LPI-MDP-FS 3.3E604 2.2E-04 7.4E-0S

13 LPR-MOV-FT 4.4E-04 1.3E-0 5.RE-08

14 HPI-CKV-FT CV225 1.6E-05 2.1E-03 3.4E-0'

15 AFW-TDP-FR-2P61HR 3.0E03 L.1E-S 3.4AE-0

16 HPI-MOV-rT-1350 4.404 6.76-05 2.9F-OS

17 HPI-CKV-PT-CV4I0 1.6M-os 1.4I-03 2.3F-O

1t HPI-CKV-rr-CV2S 1.6E-05 1.4E-0 2.3r-08

19 CVC-MDP-FR-2AIHR 3.3i-04 6.7E-05 2.2E-Ot

20 LPR-MOV-FT-1862B 4.4rs04 2,16-05 9.211-09

21 IR . MOmv-rr-tR67A 4.n004 2.3PA-oS 9.2!-O00

22 LPR-MOV-FT-18606 4.4E-04 2.1 E-S 9.1E-09

23 LPR-MOV-FT-1860A 4.4F-04 2.IE-OS 9. 1-09m

24 ArW-MI)P-PIS 3.31l-04 2.Ofl-05 1.711-09

23S ACC-CKV-ffT-CV14S 1.6n-os 5.06-04 1.26-09

i.
H #*-&

PYPPICTIVE OVERHAUL INT MVAL -72 MONTHS

EFFECTVE SURVEILANCE INTIRVAL 1 MONTH

TIRGALX - MOD 2 72 MO. I I MO.

TOP DOUBLE CONTRIBUTORS

Pbnt A

23-Oct-89

I 01:24 PM

Total * C- 5.4FI

Fank

I

2

3

4

S

6

7

A

9

10

11

12

13

14

15

16

17

Is

19

20

21

22

23

24

i5

Cmrorwnt Nano

OEP-DON-PR-6H1O3

OEP-DON-PS-DOOI

OEP-tON-1FS-DW0l

OEP-DWN-FS-DG02

OEP-flON-FS-DOO)

oIr-bN-mr-Dot

OIP-DON-PS-DOO!

ORP-flON-PR-6HIbG2

Ot e-DON-FR-WD01

OEP-DON-FS-DG03

OErP-DWN-FS-DW01

OIp-baN-pM-maI

oEPr-r'N-PS-Do02

onr-PHN-FR-DC002

OEP-DON-FS-DG12

OEP-WGN-FR-6HlD3

OEP-DWN-FS-DW03

0FP- tMN-FS-70(2

Oip-DO1N-Ps-DOOt

OPP-DON-FR-6HDOI

OEP-DON-FS-DO02

OEP-DON-FS-D003

OEP-DrN-FR-6HWD3

OEP-DGN-FR-6HD02

OFP-OON-FS-r100I

Aql

4.i4-03

4.4E-03

4.4E-03

4.4E-03

4.4-03

4.40-03

4.4rt-03

4.4E-03

4.4E-03

4.4E-03

4.4E-03

4.4P-03

4.4E-03

4.4r!-03

4.4E-03

4.4E -03

4.4L-O3

.4ri -o0

4.4AF-03

4.4P.-03

4.4E-03

4.4E-03

4.4E-03

4.4F-03

4,4dt n1

Compnent Nome

OEP-DGN-FR-dHDOI

OEP-DON-FS-DO03

OEP-DGN-FS-DK;2

OEP-DGN-FR-6H01

OEP-DGN-PR-6HW2

OEP-DON-rR-OHD03

orl'-DGN-PR-6f1D0I

OrEP-DON-FR-dHDOI

OE!-DGN-FR-D003

OEP-DWN-FR-DOOI

OEP-DGN-FR-D003

Or:P-DWN-PR-DO02

OF.P-ON-FR-D<;OI

Or-PIr)N-PR-DO0I

OEP-DON-FS-DW03

OEP-DON-FR-6HDC72

OEP-D;iN-FR-6HWD2

orr- MaN-PR-AIIDwX

APtW-TDP-PS-PW2

AFW-TDP-PS-2

AFW-TDP-PS-FW

AFW-TDP-PS-FW2

Ar-W-TDP-PS-F

AFW-TDP-FS-FW2

ArW-TDP-PR .2r11R

a q2

4.4£-03

4.49-03

4.4E-03

4.4E-03

4.45-03

4.4E-03

4.45-03

4.4E-03

4.4E-03

4.4E-03

4.4E-03

4.4R-03

4.4-W03

4.4A-03

4.4E-03

4.4E-03

4.4E-03

4.4AR-01

3.0R-03

3.05-03

3.0E-03

3.0E-03

3.0E-03

3.0E-03

J.0R-0J

512

3.6E-03

3. 1-03

3.1E-03

2.4E-03

2.48-03

2.48-03

2.40-03

2.49-0

6.411-0

6.0E-04

6.01-04

6.0-0(4

6.05E5.RE-04

2.21-4M

2.0E-04

1.9E-04

I.R-N04

2.6P-,

2.4E1.4E1.4E-04

1.3E04

1.2E-04

9.5K-cS

&ql &q2

l.9E0S

1.9E-05

1.9E-05

1.9Z-05

1.95-

I.9R-05

1.911-05

1.91-05

1.9R-05

1.9E-05

1.9-E05

1.95-OS

1.9E50S

1.91-05

1.9E-0S

1.9E-05

.9E-05

1.90-05

1.3E-05

1.3-05

1.3-05

1.3E0S

1.3E-0S

1.3E-0S

1.35-0

AC

6.9E-0S

5.98-01

5.9E-0o

4.71-08

4.7P'-

4.75-01

4.71101

4.7E501

1.2EOS

1.2-OS 1.211-0t 1.25-01

1.2R-01

1.21-01

L .IE-Ot

4.2E-09

3.85-0

3.7-09

3.7R-09

3.45-09

3.1-09

1.8l-09

1.81-09

1.71-09

1.6E-09

1.25-09

1' *

f..t

A

K

A

I

I.
EFPECTIVE OVERHAUL INTRVAL =72 MONTHS - EFFCTVE SURVEILLANCE IN TERVAL 1 MONTH 

(

Pbmt A TIRGALEX 

- MOD 3 / 72 MO. / I MO.

TOP SINOLE CONTRXUTO1S

03:26 PM

Toal AC 1.09-04

Rank CAnnravmnmt Nql St A 

C

I HPI-CKV-FI-CV225 1. IE-02 2. 1h-03 2.3E-05

2 HPI-CKV-Fr-CV25 1.I9-0 1.4E-03 1.5E-05

3 HPI-CKV-FT-CV410 1.19-0 I.E-02 1.5E-05

4 ACC-CKV-FT-CV145 1.IE-02 5.09-04 .5E-06

5 ACC-CKV-rr-CV147 1.19-02 5.0o9a 5.5E-06 

;

6 ACC-CKV-FTI-CV130 1.19-02 5.09-04 5.51-06

7 ACC-CKV-FT-CV129 1.19-02 s.0o-0a 5.5E-06

9 lPX-Mov-rT 1.19-02 3.4E-04 3.79-06

9 OEP-DCN-PS-DO0I 1.19-02 2.39-04 2.6E-06 

i

10 LPI-MDP-FS 1.1E-02 2.29-04 2.59-06

11 09P-DUN-FR-6fIDl 1.19-02 2.19E4 2.3E-06

12 LPR-MOV-PF I.IE-02 1.3E-04 1.4E-06

13 OEP-DWN-FS-DW03 1. IE-02 1.3E-0 1.4E-06

14 OEP-DWN-FS-DG02 1.1E-02 1.3E-04 1.4E-06

15 OI;P-DON-FR-614DWJ 1.1 h'2 1.2fR-0 1.3i9-0

\ 16 ORP-D0N-PR-611l12 

.IP-02 1.1R-04 1.7?-06

17 HPI-MOV-Fr-1350 1.19-02 6.7E-05 7.49-07 

$

11 CVC-MDP-FR-2A)HR 1.1-02 6.7E-05 7.4E-07

19 OEP-DGN-FR-DG;I I.1F-02 3.8E-05 4.1E-07

20 AFW-TDP-FS-FW2 L.E9-02 2.99-05 3.2E-07

21 AFW-MDP-IFS l.lE-02 2.6E-05 2.91i- -''

22 LPI-MDP-rF-SIfl 1.19-02 2.5E-05 2.79-07

23 LPI-MDP-P.I-.IA 1.11-02 2.IM-05 2.79-07 i.

24 LPR-MOv-lrr-1862D L.1E-02 2.iE-05 2.3E-07

25 LPR-MOV-FT-1R62A 1.IE-02 2.1E-05 2.3E-01

! t ;~~r~
* - ~~~ ~~ ~~ ~~ ~ V ~ ~~~~~~~t-~~~~~~~';;.~

'M

t _ 1 ~~~~~~~~~~~~~~~~~~~~~~~~~~~e

EFFECTIVE OVERHAUL INTERVAL 72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL = I MONTH

Plnt A TIROALIX - MO0D 3 / 72 MO. / I MO.'2

20ct-89 TOP DOUBLE CONIUTORS

04:59 PM

Toutl AC- 7.1E-06

(Rank ComponentoNme Aql Compot NMme 3q2 S12 *ql q2 AC

I OPP-DON-FR-6TDa3 1.1E-02 OEP-DON-PR-611DOI 1.18E-02 3.6F-03 1.2I-04 4.3E-07

2 OEP-WDN-FS-DG0I 1.IE-02 OEP-DGN-FS-D0O2 I.IE-02 3.1E-03 1.2- 3.7E-07

3 CEPWDGN-FS-W01 I.IE-02 OEP-DWN-FS-DGO03 .IE-02 3.1E-03 1.2E-04 2.7E-07 .A;

4 OEP-DWN-FS-DG0I I.IE-02 OEP-DON-FR-6HDX3 1.IE-02 2.4E-03 1.2E-4 2.9E-07

5 OEP-DGN-FS-DG02 1.lE-02 OEP-DWN-FR-6HDW1 l.E-02 2.4E-03 1.2t-04 2.9E-07

6 OEP-DON-FS-DOOI .IE-02 OEP-DON-FR-6HD02 1.IE-02 2.4E-01 1.28-04 2.99-07 i ;

7 OEP-DON-FS-D03 I.IE-02 OEP-DON-FR-6HWDI 1.1E-02 2.4E-03 1.2E-04 2.9E-07

3 OEP-DWN-FR-611DH2 1.IE-02 OEP-DON-PR-6HDOI 1. E-02 2.4i-03 I.25-04 2.9E-07

9 LPR-MOV-FT-1862A 1.IE-02 LPR-MOV-Fr-18608 1.IE-02 1.5E-03 1.2M-04 I.85-07

10 LPR-MOV-1I.-1862A 1.1E-02 LPI-MDP-FS-SlIB 1.IE-02 1.5E-03 1.2E-04 L.E-07

11 LPI-MDP-PS-SIIB 1.IE-02 LPI-MDP-FS-SIIA 1.1E-02 1.5E-03 1.2E5- l.tE-07

12 LPR-MOV-FT-1862B 1.8E-02 LPI-MDP-FS-SIIA 1.IE-02 I.SE-03 1.2E-04 1.RE-07

13 LPR-MOV-FT-18908 I.1E-02 LPR-MOV-FT-1990A 1.IE-02 1.5E-03 1.2E-04 I.SE-07

14 LPR-MOV-FT-19629 1.11-02 l.PR-MOV-VT-l"-X60A 1. 1E-02 1.SR-03 1.71-04 1.Anf-07

I1 LrR-MOV-rr-l-R6OA 1.18-02 l'l-lMDP-PF3-3I1B 1.1.-02 I.58-03 1.2E-04 L.IE-07

16 LPR-MOV-FT-1060eA L.IE-02 LPR-MOV-PT-1860? I.lh-02 1.5R-03 1.28-04 L.88-07

Il LPR-M0V-1tr-lR62A 1.LE-02 LPR-MOV-FT-1620 1. 1802 1.5E-03 1.2M-04 1.88-07 i j.,

1 LPI-MDP-FS-SIIA 1.1E-02 LPR-MOV-FT-18609 IE-02 1.5E-03 1.2E-04 I.S:-07

1I H P-MOV-FT- II511 l.lE-02 HPI-MOV-PT-1115D 1.IE-02 1.4E-03 1.2E-04 1.6E-07

20 HPI-MOV-FT-1115C 1.IE-02 HPI-MOV-FT-I1lSE L.E-02 1.4E-03 1.2E-04 1.6E-07

2k CPC-MDP-FS-SW10B l.lE-02 CPC-MDP-FR-SWA3H 1.8E-02 1.0E-03 1.2E-04 1.2E8-,

22 LPI-MDP-FS-SIIB 1.1E-02 LPI-MDP-PR-A21HR l.tE-02 1.0E-03 1.2E-04 1.2E-07

23 LPR-MOV-FT-13608 l.1E-02 LPI-MDP-FR-A21HR 1.1E-02 1.0E-03 1.2E-04 1.2E-07

24 LPR-MOV-FT-1862A 1.IE-02 LPI-MDP-FR-B21HR 1.IE-02 1.0E-03 1.2E-04 1.2E-01

25 lPR-MOV-FT-1967H 1.15-o2 l.rl Mnr) FR-A21tlR 1.1101 1.011-03 1.25-04 1.28-07
- f ~ *~~~~~~~~~!. ~ ... ~ ~ ~ ~ ~ j

i

CONTRIBUTORS POR

PLANT A

EFFECTIVE OVERHAUL INTERVAL =72 MONTHS

EFFECTIVE SURVEILLLANCE INTERVAL = 6 MONTHS

8K
|' 7~~~~~~~~~~.-

EFFECTIVE OVERHAUL INTERVAL = 72 MO

EFFECrIVE SURVEILLANCE INTERVAL = 6

Plent A TrRGALrX 7 2 MO. / 6 MO.

23-Oct-89 TOP SINGLU COWRIBUTORS

01:31 PM

Total A C - 4.2E-05

Rank Componnt Namne Aq Si C

I HPI-MOV-FT 2.4E{-2 3.4E-04 8.0E-06

2 OEP-DWN-FS-DGW0 2.46-02 2.3E-04 5.Si-06

3 OEP-DGN-FR-6HDW1 2.4E-02 2. IE-04 5.0E-06

4 LPR-MOV-FT 2.4E-02 1.3E-04 3.1m.06

5 OEP-DWN-FS-DW02 2.4E-02 1.3E-04 3.0E-06

6 OF.P-DWN-FS-DW03 2.4E-02 1.3E-04 3.0E-06

7 (EP-WGN-FR-6HDW3 2.4E-02 1.2E-04 2.9E-06

S OEP-DWN-FR-6HDW2 2.4E-02 1.IE-04 2.51-06

9 HPI-MOV-FT-1350 2.4E-02 6.7E-05 1.66-06

10 OEP-DON-FR-DG01 2.4E-02 3.81-05 8.9E-07

II AFW-TDP-FS-rW2 1.86-02 2.96-05 5.11-07

12 LPR-MOV-FT-1862A 2.4E-02 2.1E-05 4.9E-07

13 LPR-MIOV-FT-1862B 2.44-02 2.lE-05 4.96-07

14 LPR-MOV-FT-IR60B 2.4E-W 2.1 E-05 4.9E-07

IS LPR-MOV-FT-1860A 2.4E-02 2.16-05 4.96-07

11 OEP-DON-FR-DW03 2.4E-02 2.06-0S 4.74-07

17 OEP-DWN-FR-DW02 2.4E402 2.0E-05 4.7E-07

18 LPI-MDP-FS 1.4E-03 2.2E-04 3.3E-07

19 PPS-MOV-FT-1535 2.4E-02 9.5E-06 2.2E-07

20 AFW-TDP-FR-2P6HR L.8E-02 l.IE-0S 2.0E-07

21 LPR-MOV-FT-1I90B 2.46-02 4.5E-06 1.1E-07

22 LPR-MOV-FT-1890A 2.4E-02 4.5E-06 1.1E-07

23 CVC-MDP-FR-2AIHR 1.4E-03 6.7E-0 9.7E6-0

24 iPI-MOV-FT-1115E 2.4E-02 4.1E-06 9.7E-0

25 HPI-MOV-PT-1ttS1l 2.4P.-02 4.1R-06 9.76-01

INTHS

MONT14S
r. ,

' r1

* ,. :

t.. ' . *1

I 

I.. I ,, t.

EFFECTIVE OVERHAUL INTERVAL 72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL = 6 MONTHS

TIRGALUX / 72 MO. / 6 MO.

,roll DOUBLu coCNTRBUoRs

Plant A

21. 4)etAq

01:32 PM

Total AC - 2.22-03

Rank Component Name

1

2

3

4

S

6

7

a

9

t0

I1

12

13

14

'5

16

17

la

19

20

21

22

23

24

25

OEP-DGN-rR-6HDW

OEP-DGN-FS-DG01

OPP-DON-FS -DOOI

OrP-D(1N-PS-Do03

oRPT-nON-rs-Daom

OEP-rDN-FS-DcJO2

OEP-DGN-FS-DGW0

OEP-DON-FR-61HWD

LPR-MOV-FT-I 62B

LPR -MCOV-FT- 1162A

LPR-MCOV-FT-I 62A

LPR-MOV-FT-IR60A

LPR-MOV-FT-I190B

HPI-MOV-FT-I II5B

HPI-MOV-FT-I I 15C

OEP-DON-FR-DG01

OEP-DWN-FS-DW03

OEP-DON-FS-DG02

OEP-DGN-FS-DW01

OEP-DWN-FS-DW01

OEP-DON-FR-DO02

OEPDON-ES-DW02

OEP-DON-FR-6HDO

O FP- DON-FS- WOlt

OEP-DON-FS-DW02

A qI

2.4E-02

2.4E-02

2.4E3-02

2.4E-02

2.41!- 02

2.4E-02

2.4E-02

2.4E2-

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.41E-02

2.41E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4h-02

2.4E-02

Component Name

OEP-DON-FR-61HD0 I

OEP-DWN-FS-DG03

OEP-DON-FS-DG02

OEr-DON-ri-6I DO!

ORP-DON-rR -61 11)l12

0EP-DlON-.R-6HDO I

OEP-DGI-FR-6HDG3

OEP-DON-FR-6H1D1

LPR-MOV-FT- I160A

LPR-MOV-FT- I 3628

LPR-MOV-FT- 1 3608

LPR-MOV-PT-l160B

LPR-MOV-FT-1890A

HPI-MOV-FT-I I ISD

HPI-MOV-FT-I 115

OEP-DWN-FR-DG03

OEP-DGN-FR-DC;0I

OEP-DWN-FR-DG01

OEP-DON-FR-DW02

OEP-DON-FR-DC03

OEP-DGN-FR-DG01

OEP-DON-rES-DO03

OEP-DWN-FR-6HD02

APW-TDP-PS-FW2

OEP-DON-r:R-6HD03

A q2

2.4E-02

2.4E-02

2.4E-02

2.4F.-02

2.4t2-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02.

2.4E-02

2.4E-02

2.4E-02

2.4A-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.42-02

1.11f-02

2.4E3-02

S12

3.6E-03

3.1E-03

3. 1-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

1.SE-03

1.5E-03

1.5E-03

1.5E-03

1.5E-03

1.4E-03

1.4E-03

6.4E-04

6.0E-04

6.0E-04

6.0E-04

6.OE-04

5.RE-04

2.2E-04

2.0E-04

2.6E:-04

1.9E-04

Aq1 Aq2

5.6E-04

5.6E-04

S.6E-04

S.6E-04

5.62-04

5.6E-04

5.63-04

5.6E-04

S.6E-04

5.6E-04

5.6E-04

S.6E-04

5.6E-04

S.6E-04

3.6E-04

5.6E-04

5.6E-04

5.6B-04

5.6E-04

5.6E-04

5.6E-04

S.6-04

5.6E-04

4.21-04

5.68-04

AC

2.0E-06

1.71-06

1.73-06

1.4e-0

1.41-06

1.4E-06

1.4E-06

1.4E-06

t.4E-07

3.4E-07

3.42-07

1.4E-07

8.4E7.1E3-07

7.7E-07

3.6E-07

3.43-07

3.4E-07

3.4E-07

3.4E-07

3.2R-07

1.2E-07

1.12-07

1.iR-07

1.11-07

I
EFPEEC7VE OVERHAUL INTERVAL - 72 MONTHS

EFFEC1'VE SURVEILLANCE INTERVAL 6 MONTHS

Plat A TRGALEX - MOD I / 72 MO. / 6 MO.

23-0ct-89 TOP SINGLE CONTRIBUTORS

01:33 PM

Tobl aC- 5.16-05

Rank Comntwmet Name Aql SI At (

I 0EP-DON-PS-DO01 2.4-02 2.3E-04 5.5fi-06

2 HPI-CKV-FT-CV225 2.5E-03 2.tE-03 5.2S-06

3 OEP-DWN-FR-6HDWI 2.4E-02 2.1E-04 5.0F-06

4 HPI-CKV-FT-CV410 2.5F-03 1.4A-03 3.5E-06

5 HPI-CKV-FT-CV2S 2.5£-03 1.4E-03 3.5E-06

6 OEP-DGN-FS-DW03 2.4E-02 1.3E-04 3.0E-06

7 OEP-DWN-FS-DG02 2.4E-02 1.3E-04 3.0E-06

S OEP-DWN-FR-6HWD3 2.4E-02 1.2E-04 2.9E-06

9 HPI-MOV-FT 7.9E-03 3.4E-04 2.7E-06

10 0EP-DGN-FR-6HDG2 2.4E-02 l.E-04 2.5E-06

I I LPI-MDP-PS 7.26-03 2.2R-04 1.66-0

12 ACC-CKV-r 7T-CV128 2.56-03 S.-0E 1.26-06

13 ACC-CKV-FT-CV14S 2.56-03 5.0E-04 1.2E-06

14 ACC-CKV-FT-CV110 2.5r-03 5.06-04 1.2E-0I

: 15 ACC-CKV-FT-CV147 2.SE-03 5.OE-4 1.2E-6-M

16 LPR-MOV-FT 7.9E-03 1.3E-04 1.0E17 OEP-DGN-FR-W01 2.4F-0 3.E-05 96E-07

1 lI~r-MOV-FrT-1350 7.,oE-03 6.7E-05 5.3E6-0

19 AFW-TDP-FS-FW2 l.8E-02 2.9E-05 5.1E-07

20 CVC-MDP-FR-2AIHR 7.2E-03 6.7E-0 4.96-07

21 OEP-DWN-PR-DW03 2.4E-02 2.0E-OS 4.7E-07

22 OEP-DWN-FR-DW02 2.4E-02 2.0E-05 4.7E-07

23 AFW-TDP FR-2P61IR 1.86-02 I.IE-05 2.06-07

24 AFW-MDP-FS 7.2E-03 2.6E-05 1.9E-07

25 Lrl-MDP-FS-Sll 7.2F-03 2.56-05 1.386-0
EFFECTIVE OVERHAUL INTERVAL a 72 MONTHS

EFFECTIVE SURVEILLANCE INTRVAL = 6 MONTHS

Plat A TIRGALEX - MOD I 72 MO. / 6 MO.

23-Oct 9 TOP DOUBLE CONTRIBUTORS

01:34 PM

T~ol ^AC- 1,11w 01

Rank

2

3

1 ~~4

5

6

9

I0

I I

I)

14

16

17

is

'9

70

24

25

Componwnt Nome

OEP-DGN-FR-61=D3

OFP-DGN-FS-D001

OFP-DCN-FS -DC01

0FP-DGN-FS-DG01

OEIV-D(;N-FS-DG01

OEP-AIN- FS-DW03

OEP-i ,4 -N S-D02

oi!r*I)IN PR-6111KJ2

0t:P-lrfN-f-R-D0I

OPP- l10N IT#I rw103

OEP-1)CIN-P'S- DUO1

OIl'I) lI1N 1'S IWOn)

OF '1) N- -is-rxJ()

OEP-DON -r R-WO02

OEP-DWN-F.S-D02

OEP-DWN-FR-6HWD3

OEP-DWN-PS-DG01

OEP-DO N-FS-DW02

OIwI'- IWJN- I~tI-fl( 10

1'l : l ivN It AIII.11

I 1`14 S14V 11 I I WA

Lilt NoVt1-17-I0h.I1

I.PR-MOV-IrT- 1I00o

LPR-Mo V-T- I NWAo

Aql

2.4E -02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4F.-02

2.41-02

2.411-02

2.4rt-02

2.4e-02

2.411-02

2.4r-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.411-02

7.4 P -fl,

2.41t W(

7 01i (it

7 .911 -ElI

7.91i-01

7.11-03

7.91F-03

Component Name

0EP-DON-FR-611D 1

OEP-DGN-FS-DW02

OEP-DON-FS-D003

OEP-DIXN-FR-6HDG3

0EP-DGN-FR-6HDW2

0EP-DON-FR-6HWD I

OEP-DON- FR-61 1101

OFPA-XIN-I-R-6 11X1 I

OPP-tMJN-I:R-D!)00

O11 tIN r,1 1)(10I

OFP-W[N-IR-DlO02

01:1' ImN -rit m)(ol

0FP--rXIN-v:R-nYo)

OEP-DWN-FR-D(;OI

OEP-"ON-FS-DG03

0EP-DGN-FR-6HD02

AFW-TDP-F.' -FW2

0FP-DCN-FR-61HW03

(111P WIN ri tl1nn2

AIv'W IWI I'l lIW)

I PIH MEZ V l l I M^}ll

I.Iln-Ml oV PI I"nEi

LPR-MOV-rT- I 90A

LPR-MOV-F1 -160n

A q2

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.42-02

2.417-02

2.41-02

2.41t-02

2.40-02

2.41-02

2.4E-02

2.41-02

2.41E-02

2.4E-02

1.82-02

2.412-2

2,411-m

I .Utt'4)2

7,of 0.1

7,011-03

7.98-03

7.90-03

S12

3.6E-03

3.1E-03

3. 1 E-03

2.4E-03

2.4E-03

2.4A-03

2.43-03

2.4.-03

6.41-04

6.OF.-04

6.01-4

6.011-N

6. 0r-04

5.RE-04

2.22-04

2.0E-04

2.6E-04

1.91-04

I ,@1-cm

7.41-04

I.. 1-E11

jIll-01

1,5.110i

I.521-03

1.51-03

£ql &q2

5.6E-04

5.6-04

5.6E-04

5.6E-04

5.6E-04

5.613-04

5.61E-04

5.6F-04

5.611-N

5.6E-04

4.2E-N

5,62-04

mm-m

S.6I-04

S.6E-04

5.6E-0

4.2E-04

5.6R-4~

5.fitt-o0l

4.211-4)4

6.2R8-0

6.2-OS

*C

2.0E-06

1.7E-06

1.7E-06

1.4E-06

1.4E-06

1.42-06

1.4E-06

1.42-0

3.63-0

3.4E-07

3.43-07

3.41-07

3.4e-07

3.22-07

1.2h-M7

1. IE-07

1.IE-07

1.1 -07

I .011-07 .in-no

9.311-03

0.311-06

9.33-02

0931-or

* A"*. 

ni ..

4

I .*'

I .

...- ,

A..: *- .r*

1

ffr*' '

9
.i

~. 4.

1 E

I

IF

EFFECTIVE OVLRfiAUL PL7TEkVAL = 72 MOTS

EFFECTVE SUPNEILLANCE NEBRVVAt 1 MONTH ..A

rlant A

23-Oct-29

01:36 PM

EROL* -- mD 2 72 MO. / 6 MO.

TOP SINGLE CONTRIBUTORS

Total Cm 3.1E-0S;

I,

RAnk

2

3

4

S

6

7

2

9

to

I It

12

13

14

is

16

17

Is

19

20

21

22

23

24

25

Come Ntosrme

OrFP- MN-PR-6HD l

OrP-[XDN-PS-DO3

OEP-DGN-FS-DW;02

OEP-DGN-FR-6HfD0

OEP-DGN-FR-6HDGO

OFP-DIXN-FRt-W01

HPI-MOV-FT

OEP-DcN-FR-DO03

OE-P-DON-FPR-DO02',

AFW-TDP-FS-FW2

LPI-MDP-PS

LPR-MOV-FT

IlII-CKv-Fr-CV225

AFW-TDP-PR-2P6F('

HPI-MOV-FT-1350

HPI-CKV-FT-CV410 1

lIPI-CKV-FT-CV23

CVC-MDP-FR-2AIH1

LPR-MOV-FT-ig62Bn

LPR-MOV-FT- 1 R62A

LPR-lMOV-FT- I lK Fl

I.PR-MOV-PT- 1860A5

AFW-MDP-FS I

ACC-CKV-7-T-CV 143

A qi

2.61-*02

2.66-02

2.6E-02

2.6E-2

2.6E-02

2.6E-02

2.6E-02

2.6E-03

2.6E-02

2.611-02

1.25-02

2.0-03

2.9-W3

9.811-05

1.1R-02

2.68-03

9.26-05

9.8E-0

2.0E-03

2.60-03

2.6v-03

2.61-03

2.66-03

2.OE-03

9.26-OS

$I

2.31-04

2.18-04

1.3E-04

1.36-04

1 .2E-0

2.IE-04

3.9E 05

3.46-04

2.0E-05

2.0E-05

2.29-04

1.36-04

2.1 E-03

1.1-05

6.7E6-5

I.4E-03

1.4E-03

6.7VE-S

2.IE-05

2.16R-0

2.1R-05

2. 1E-05

2.66-S

5.0E-04

AC

6.22-06

, .66-0

3.31-06

3.3E-06

3.2E-06

2.CE-05

9.91-07

8.96-07

5.2E-M

.5.2E-07

5. 16-07

4 .d6-07

3.5E-

:2.16-0

2.011-07

1.811-07

1.4E-07

1.4E-07

1.3E-07

* .5-S

5.5z!-0

w5.56-OS

5.26.03

4.9E-0t

.,

.. I . . -  -- -*&q i.&" k1lallm,111,1111" .. I 4 Wim -. 1 - -1 1. . .h- 1ANNO qj w i-kq grew -- --- I - ;I

4

. ..
i;

EFFLACTIVE OVERHAUL IRVAL = 72 MONTHS

EF CVE SURVEILLANCE INTE;RVAL = 6 MONTHS

TInAtMC - MOD 2I72 MO. / 6 MO.

I TOP DOUBLE CONTRIBUTORS

I

Pltnt A

23-Oct-"9

01:39 PM

Totul a C - I.9E-05

Pank

2

3

4

5

6

7

a

9

10

I1

12

13

14

1s

16

17

Is

19

20

21

22

23

24

25

Crtmponet Nm*e

OEP-DGN-FR-6HDG3

OEP-DWN-FS-DGW0

OEP-DWN-FS-DGW0

OEP-DON-FS-D002

OEP-DWN-FS-DG01

OEP-DWN-FS-DW01

OEP-DWN-FS-DW03

OEP-DGN-FR-6HDW2

OEP-DGN-FR-DGOI

OEP-DWN-FS-DW03

OEP-DWN-FS-DGOI

OEP-DGN-FP-DG0l

OEP-DWN-FS-DW02

OEP-DON-FR-DW02

OEP-DGN-FS-DW02

OEP-DWN-FR-6HDW3

OEP-DWN-FS-DCW03

OEP-DON-FS-DW02

OEP-DON-FS-DOOI

OEP-DWN-FR-6HDG I

OEP-DWN-FS-DO02

OEP- DN-rS-rXK3

OEP-DWN-PR-6HWD3

OEP-DWN-FR-6HWD2

OEP-DWN-FS-DW01

£ql

2.6E-02

2.6E-02

2.6E-02

2.6E-0

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6F.-02

Cemt Nanm

OP-DdN-FR-6BD0 I

OEP-DoN-FS-DO03

OEP-DON-FS-DGM2

OEP-D¢N-FR-6UW I

OEP-D¢N-FR-6HDG2

ORP-D;N-FR-6HDG3

OEP-D0N-FR -6HW I

OEP-D"N -FR-6HDO I

OEP-DI;N-FR-DG03

OEP-DN-FR-DG0I

OSP-D N-FR-DC03

OEP-D¢N-PR-DG02

ORP-DON-FR-DOOI

OlEP-D6N-PR-DG0l

OEP-D6N-FS-DG03

OEP-DCN-FR-6HW02

OEP-D N-PR-611D02

OEP-DdN-FR-6HDU3

AFW-T1P-FS-FW2

AFW-TbP-FS-FW2

AFW-#rP S-PW

AFW-TbP-FS-FW2

AFW-TpP-PS-PW2

AFW-TtP-PS-FW2

AFW-TbP-FR-2P6HR

q2

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-02

2.6E-t2

2.6E5-2

2.6E-02

2.6E-02

2.6E-02

2.6R-02

2.6E-02

2.6E-02

2.E-M02

2.6R-02

2.6E-02

L.IE-02

I.6E-02

L.IF-02

1.86-0

1.E-02

512

3.6E-03

3.1E-03

3.1E-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

2.4E-03

6.4E-04

6.OE-04

6.05-4N

6.0E-04

6.05-0

S.tE-04

2.2E-04

2.0E-04

I.9E-04

1.9E-04

2.6E-04

2.4E-0

1.4E-04

1.4E-04

1.3E-04

1.2E-04

9.5s-OS

Aql Aq2

6.9E-4

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.95-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

4.7E-04

4.7E-04

4.7S-04

4.75-04

4.7-04

4.7E-4

4.7E-04

AC

2.5E-C6

2.IE-06

2.1 E-06

1.7E-06

1.7E-06

1.7E-06

1.7E-06

1.7E-V6

4.4E-07

4.2E-07

4.2E-07

4.2E-07

4.2E-07

4.0E-07

I.SE-07

1.4E-07

1.3R-07

1.3E-0

1.2E-07

1.IE-07

6.5E-08

6.5E-0t

6.25-0

5.15-01

4.4A-O

F.

.. I .

-.- -- ------ --
EFFECTIVE OVERHAUL INTERVAL 72 MONTHS

EPPFECTIV SURVE[LLANCE INTERVAL - 6 MONTHS

PlattA TfROALLX - MOD 3 / 72 MO. / 6 MO.

,Z-Oct-V9 TOP SNGtZ CONRIUTORS

01:40 PM

Total AC ! I .OE4

lRank Component NOmo Aq1 St C

I HPT-CKV-4T-CV225 6.6E-02 2.1E-03 I.4E-04

2 HPP-CKV-FT-CV2S ! 6.6En- 1049W P. IE

13 FPI-CXV-FT-CV40 6.6-02 1.4E-03 9.1f-S Ii.., 4 ACC CKV-rT-CV145 6.E-2 5.OF-04 3.3 '-05

A ACC-CKV-rT-CV147 6.6E-02 5.0E-04 3.3E-O5

t ACC-CKV-FT-CVt30 6.6E-2 5.0-04 3.3E-05

7 ACC-CKV-FT-CV128 6.6E-02 5.0O-04 3.3B1-05

, IIPI-MOV-TT 6.6E-02 3.41-04 2.2P.-05

9 OEP-DON-FS-DO01 6.6E-02 2.3E-04 .E-05 4 'O LPI-MVP-FS 6.631-2 2.2E-4 1.53-05

I I OEP-DGN-FR-6HD01 6.6E-02 2.1 E-04 1.4E-05

3 2 LPR-MOV-1?? 6.63-02 1.-04 J.7E

13 OEP-DC.N-FS-DO03 6.6E-02 1.3E1-04 3.3E-W06

14 OEP-WGN-FS-DC02 6.6E-02 1.3E-04 8.3E-06j

15 OEP-DGN-FR-6HWD03 I 6.6E-02 1.2E-04 8.0E-06

16 OEP-DGN-FR-6HDG2 6.6E-02 1.I E-04 I.OE-06

12 HPt-MOV-PT-1350 6.6E-02 6.7E-05 4.4E-06

it CVr-MDP-FR-2AIHR 6.61-02 6.t7R-O 4A43-06

19 O.P-DO-FR-WOl I 6.6F.-02 3.3ff-OS 2.32-06

20 AFW-TDP-FS-FW 6.69-M02 2.91-05 1.9Bh-OS

21 AFW-MDP-FS 3 6.6E132 2.6E3-05 1.7E-06

22 LPI-MDP-rS-SI1B 6.6E-02 2.SE-05 1.6-06

23 LPI-MDP-PS-SllA i 6.6E-02 2.5-E5 1.61-06

24 I.rR-MOV-PT-162R I 6.611-02 2.3190S 1.4R1-

23 LPR-M0V-"t-1862A 1 6.61-02 2. 1 -O 1.43-06

¢;~~~~~~~~~~~ | W 4 ~i4?A I
EFFECl1lV OVERHAUL INTERVAL = 72 MONTHS

EFFEC IVE SURVEILLANCE. ITERVAL = 6 MONTHS

S A At S m - k I =.. * Plant A

23-Oct-89

01:41 PM

I 4KPJJUV.kA - MUU J I IA MV. I 0 MU.

Total AC - 2.62-4

Rank Component Nome

I OEP-DWN-FR-6HDG3

2 OEP-DGN-FS-DGW0

3 OEP-DWN-FS-DGOI

4 Olr-DOWN-PS-DOI

S OEP-DGN-FS-DW02

6 OF.P-DN-FS-DGOt

7 OFP-DON-FS-DW03

8 OEP-DGN-FR-6HDW2

9 LPR-MOV-FT-1I62A

10 LPR-MOV-tT-1I62A

I1 LPI-MDP-PS-SIID

12 LPR-MOV-FT- 1162B

13 LPR-MOV-FT-18908

14 LPR-MOV-FT-1628

1 LPR-MOV-FT- 1I60A

16 LPR-MOV-FT-l360A

17 LPR-MOV-FT- I 162A

IR LPI-MDP-FS-SIIA

19 HPI-MOV-FT-I 1ISB

20 HPI-MOV-FT- I 5C

21: CPC-MDP-FS-SW10B

22 LPI-MDP-FS-SI I B

23 LPR-MOV-FT- 1S608

24 LPR-MOV-FT-1862A

25 LPR-MOV-FT-1862B

A ql

6.6E-02

6.6E-02

6.6E-02

6.dr.-0

6.6E-02

6.62-02

6.6E3-02

6.6E-02

6.6E-02

6.6F.-02

6.6r-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

TOP DOUBLE CONTRIBUTORS

Componewt" ms q2 S12 A

OEP-DWN-5R-6HDWI 6.6E-02 3.6E2-3

ORP-DGN-:S-DO02 6.6E-02 3. 1-03

OEP-DGN-PS-DG03 6.6.-02 3.1E-03

OPP-DON-tR-16HD33 6.62-02 2.4E-43

OEP-DGN-FR-6HDGI 6.613-02 2.4E-03

OEP-DON-PR-6HDG2 6.6E-02 2.4E-03

OEP-DON-PR-6H11I 6.6E-02 2.4E-03

OEP-WDN-pR-611DG I 6.6:-02 2.4E-03

LPR-MOV-PT-1360B 6.6E-02 1.5E-03

LPI-MDP-Fi-StiB 6.6E-02 1.5E-03

LPI-MDP-PM-SIIA 6.6E-02 I.SE-03

LPI-MDP-Fd-S1IA 6.6£-02 1.5SE-0

LPR-MOV-4T-190A 6.6F-02 1.5E-03

LPR-MOV-T-1I60A .6E-02 1.5E-03

LPl-MDP-F6-SI IB 6.6E-02 1.5E-03

LPR-MOV-4T-16608 6.6E-0. I.SE-03

LPR-MOV-T-1862B 6.61-02 1.5E-03

LPR-MOV-4:T-1860B 6.6E-02 1.5E-03

HPl-MOV-l T-1115D 6.6E-02 1.42E03

HPI-MOV- T-l5 E 6.6E-02 1.41-03

CPC-MDP- R-SWA3H 6.6E-02 1.0E-03

l.PI-MDP-F -A21HR 6.6E-02 1.0E-03

LPI-MDP-F A-21HR 6.6E-02 1.0E-03

LPI-MDP-F)-121HR 6.6E-02 1.0E-03

LPI-MDP-FIt-A21HR 6.6-02 1.02E-03

iql aq2

4.3E-03

4.3E-03

4.3E-03

4.3r-03

4.3E-03

4.3E-03

4.3E.03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.32-0

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.34-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.34-03

4.3E-03

AC

1.5E-05

1.3E-05

1.3E-05

.1e2-03

l.lE-05

1.11I-05

I.IE-05

l.2E-05

6.5E-06

6.5.-06

6.5E-06

6.5E-06

6.5E-06

6.3E6.SE-06

6.5E-0

6.5£-06

6.5E-06

5.9E-06

S.9E-06

4.3E-06

4.3E-06

4.3E-06

4.3E-06

4.3E-06

. .

:~~~~~~--

W *~~~~~~~~~~~~~~~~~~~~~k * . . I^, , 1i xI-i
9. POINT RESULTS FOR PLANT B (HE BWR)

The following pages give the pointuise results for the average core melt frequency

increases due to aging for Plant B. which is the BWR. Tbe results are again organized

according to the characterization of the aging maintenance program. The first results

give a summary of the core melt frequency increas and rjive a breakdown of the

summed contribution from single coasponent aging effects, ESiAqi, and the summed

contribution from double componet. aging effects ES-TqhAq- Tee results which follow

give the top 2.5 single componk rkt aging contributors and the top 25 double component

aging contributors for each case. Appendix E gives results for additional case studies in

which the unavailability increase Aq was assumed to be controlled, but at a fairly high

level (03) The results are similar to those presented hem

9.1. Core Melt Frequency Increase Versus Aging Maintenance Program

Characteri zation

The following pages present the core melt frequency increase AC (per year) versus aging

maintenance program. The first results are for maintenance programs characterized as

having only overhauls (or replacements) at effective intervals of L = 18 mo, L = 72 mno,

or L = the TIRGALEX intervals. The following results are fpr maintenance programs

characterized us having both overhaul intervals of L and surveillance intervals of T for L

= 18 mo, T = I mo; L = 72 mo, T = I mo; and L = 72 mo, T = 6 mo. The discussions

below summarize the results for each case; the results are presented after the discussions.

18 Month Overhauls Only

The core melt frequency increase AC (per year) is basically the same for the TIRGALEX,

MODI, and MOD2 aging rates and is in the vicinity of 3-06. For MOD3, the 5-year

aging rate data base, AC is 2.3-05. The summaries of the singles and doubles

contributors show that the single component aging effects are generally dominant, except

for MOD3 where the double component aging effects are slightly larger.

72 Month Overhauls Onlv

The core melt frequency increase AC is approximately 2.5-04 for TIRGALEX, MODI,

and MOD2 aging rates. For the MOD3 5-year aging rates, AC is 3.4-03, a factor of 10

higher. The contribution from double component aging effects dominates for all cases.

TIRGALEX Overhau. intervals

The core melt frequen:y increase AC is similar for TIRGALEX, MODI,And MOD: and

is in the vicinity of 2.06. For MOD3, AC grows to 2.7-05. The single component aging

effects dominate for TIRGALEX, MODI and MODS. while for MOD3 the double

component aging effects are slightly larger.

95

S *-@ Sa ;-:ss:>.. _._.

~- :...> .I*.f.. ,- A_,, , . . ..- $**** ...*., ;
18 Month Overhauls and I Month Surveillances

Ile core melt frequency increase AC is approximately 2-07 for TIRGALEX, MOD1. and

MOD2. For I!OD3 aging rates, the core melt frequency increase is 9-07. lbe single

component agngi effects dominate in all cases. As compared to the 18 mnath overhul

only case, carrying out additional aging surveillances at I month effective intervals

reduces the overage core melt increase by slightly more ta a factor of 10.

72 Month Overhauls and I Month Surveillances

For TIRGALEX, MOD1, and MOD2 aging rates, aC is apiroximately 8.7. For MOD3,

AC is A.6-06. hic single component aging contributions are generally most importan.

The 72 month overhaul and 1 month surveillancc results arm approximately a factor o! 4

lower than the 18 month overhaul only results and are morm than a factor of 300 lower

than the 72 month overhaul only resuls

72 Month Overhauls and 6 Month Surveillances

AC for TIRGALEX, MODI, and MOD2 is in the vicinity of 8-06. For MOD3 AC

becomes 7-05. The double component contributions generally dominate. The core mdt

frequency control provided by the 72 month overhaul and 6 month surveillance progrz=z

is comparable to the control provided by the 18 month ovu&haul only maintenance

overhaul only program, the 72 month overhaul and 6 month surveillance program lowers

the average core melt frequency increase C by a factor of more than 30.

9. Detailed Component Contributors

The pages after tCe summary results present the top 25 aging single component

contributors and top 25 double aging component contributors ftr each maintenance case

that was analyzed. The specific system, component, and failure mode are identified for

each contributor. For cach contributor, the increase in unaazilability factor A;, core mclt

importance factor S. and the contrihution to the core melt frequency increase C is giv,

where the core melt frequency contribution is the product of the aging and importance

factors. The resuh-s on the detailed contributors show that for all maintenance cases,

diesels (ACP-DGN) are generally dominant contributors with the motor driven pumps in

the service water system (SSW -MDP) also important contributors. The turbine driven

pumps in the core isolation system (RCI-TDP) are also contributors. These detailed

cnntributors can be used to focus aging analyses and aging control effort.

96
2~~

PLANT B

H E O 0NWAVA 18 MONTHS

!.'I

t. tTOTAL CORE MELT FREQUEMCY CHANGE C (y-1)

TIRGALEX AC= 2.7E-06 t _ -_ -- - - - - - - - - - - -- -- -- -- -- - - -!

MOD I iC= 3.3E-W

- MOD 2 C= 3.1E6

t | ~~~~~ 3 ~~MOD AC 2.3E-C5

r ~ ~~ IdRUTO;TO-OE ME TUQEWCY7MRGE i-C& y-i

TIRGALEX MO1 11 MOD 2 MOD 3

SINGLEIS 1.9E-06 2.3E-06 2.Ei-06 9.7E-06

DOUBLES 8.0E-07 9.9E-07 9.7E-07 1.3E-05

TOTAL 2.7E-06 3.3E-06 3.1 E-6 2.3E-05

97

_ _ ._
PLANT B

EFFECTIVE OT VAL= 72 MONTE

TOTAL CORE MELT FREQUENCY CHANGE a C (yr-*)

TIRGALEX &C = 2.IE04 _

I

SINGLES

e ~~~~DOUBLE'

IV TOTAL

i

I

V

l

MOD I

MOD2

MOD 3

C= 2.9E-04

AC= 2.8E-04

ACC 3.4E-03

CORS TO CORE MELT-PREQUENCY-CHANGE & C (yr-I) -

s

TIRGALEX

3.OE-05

1.E-04

2.1E-04

MOD I

3.7I.-05

2.5E-04

2.9E--04

MOD 2

3.3E-05

2.5E-04

2.8E-04

MOD 3

1 .6E-04

3.2E-03

3.4E-03

98

. . @
PLANT B

-SI EFFEry CTIVE OVERHAUL INTERVAL T1RGALEX

TOTAL CORE MELT FREQUENCY CHAkNGE A C (yr-I)

- -- ~ --- ~ ~ ~ TIRGLEX - aC=J.5E-0

MODi I C= 2.7E-06 I ~ ~~~~ 2 & ~ 1.7E-06~~~MOD 

MOD 3 AC= 2.iE-05

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE a C (yr-I)

TIRGALEX MOD I MOD 2 MOD 3

SINGLES I.2E-06 2J1E-06 I.3E-06 1.3E-O5

DOUBLES 3.OE-07 6..OE-07 3.6E'-07 IAE-05

TOTAL 1.5E-06 2.7E-06 1.7E-06 2.7E--05

I.

9
. ~ ~ ~ ~ ~ ~ , - . ~ . --

PLANT B

EFFECTIVE OVERHAUL IRVAL =18 MONTHS

EFFECTIVE SURVEILANCE UnERVAL = 1 MONH

TOTAL CORE MELT FREQUENCY CHANGE A C (yr-1)

TIRGALEX

MOD I

MOD2

MOD 3

AC I.7E-07

AC = 2.0E-07

A C 1.8E-07

AC 9.OE-07

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE A C (yr-1)

TIRGALEX MOD I MOD 2 MIOD 3

SINGLES

DOUBLES

TOTAL

1.6E-07 .1.9E-07 1.7E-07 8. IE-07

5.OE-09 6.9E-09 6.7E-09 S.8E-08

1.7E-07 2.0E-07 L.8E-07 9.OE-07

100
E ~ ~ - .~* * 4: K ";, ........ e,, 3.............

A . . . , ¶'.,A,

PLANT B

EFFECTV O'VERHUL INERVAL =72 MONTHS

EFFECTIVE SURViLLANCE EVAL = I MONTH

TOTAL CORE IW. LT FREQUENCY CHANGE: &C-(yr-=)-

TIRGALEX AC= 7.1E-07

MODI AC= 8.E-07

MOD 2 AC= 8.IE-07

MOD 3 AC= 4.6E-06

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE A C (yr-l)

'TIRGALEX MOD I MOD 2 MOD 3

SINGLES 6.3E-07 7.7E-07 7.0E-01 3.2E-06

DOUBLES 8.0E-O8 .E-07 L.IE-07 I.4E-06

TOTAL 7.1E-07 8.SE-07 8.IE-07 4.6E-06

.4 .~~~~~~~~~~~~~~
..#.. *%*4 'fl .' %. ..tZC *. -

*-,

-

S

-. 4*g

W

PLANT B

EFFECTIVE OVERHTL INTERVAL =E72 MONTHS

EFFECTIVE SURVEILLANCE INERVAL = 6 MONTHS

TOTAL CORE MELT FREQUENCY CHANGE A C (yr-i)

TIRGALEX

MOD I

MOD2

ACC 6.7E-06

AC= 8.6E-06

AC= 8.IE-06

MOD 3 A C= 7.OE-05

CONTRIBUTORS TO CORE MELT FREQUENCY CHANGE A C (yr-1)

TIRGALEX MOD I MOD 2

SINGLES

DOUBLES

3.8E-06 4.6E-.06 4.2E-06

2.9E--06 4.OE-06 3.9E-06

MOD 3

1.9E-05

S. !E-05

TODTAL 67E-06 8.6E-06 S.1E-06 7.E0E5.
CONTRIBUTORS FOR

PLANT B

EFFECIIVE OVERHAUL INTERVAL = 18 MONTHS

-- 103
EFFECTIE OVERHAUL INTERVAL 18 MONTHS

Plant B TIRGALEX / 18 MO.

23-Oet-9 TOP SINGLE CONTR BUTORS

11:33 AM

Totl ACC 1.9E-06

Rn& Componet Name &ql Si C

I AtPr-ININ tIf- rPOOi Ia1t-n0 ,6n 11 ntnW

2 ACP-DON-FR-DW13 1.2E-02 2.6E-5 3.1E-07

3 ACP-DGN-FR-D I1 1.26-02 1.9Q-05 2.2E-07

4 ACP-DON-PS-D 12 1.2E-02 1.9E-05 2.2E-07

5 ACP-DON-FR-DGI? 1.2E-02 1.9E-05 2.2E-07

6 ACP-DGN-FS-DGI I 1.2E-02 1.9E-05 0.2E-07

7 ACP-DGS-FS-CM 1.2E-02 1.26-05 1.4E07

8 RCI-TDP-FR-TDPI 3.96-03 6.4E-06 5.7E-08

9 RCI-TDP-FS-TDPI 3.9E-03 6.3E-06 5.6E6-8

10 SSW-MDP-FS-CM 7.2E-04 7.7E-05 5.6E-08

11 SSW-MDP-FS-MDP2C 7.2E-04 1.83-05 1.3E-0O

12 SSW-MDP-FS-MDPI8 7.2E-04 1.2E-05 88E-09

13 SSW-MDP-FS- MDPIA 7.2E-04 1.2E-05 8.81-09

14 SSW-MDP-IR-MDP2C 7.26-04 1.l1-OS 7.9r-00

15 EIIV-FAN-PR-77C02 6,917-04 3.91-06 6.11-09

16 EIIV-FAN-FS-77C.f 6.9R-04 3.99-0 6. 1-09

17 ssw-MlPp-rR-MnP1D 7.26-04 7.26-04 5.2=0O9

I SSW-MDP-FR-MDPIA 7.2E-04 7.2E-06 5.26-09

1o FIIV rAN Fq-77CIfn 6.06-04 SAI.-06 d 3.6-00

20 EUV-PAN-FS-77CIA 6.91-04 5.IE-06 3.51-09

?1 fIIV-PANfl' ?7r11m 6 96-04 5,11 II (A

- ) IV l'AN I'll 11WIA A OP n1i 1) .g MI 3t.Mli
EFFECTIVE OVERHAUt INTERVAL 18 MONTHS

TIRGALEX P 18 MO.

TOP DOUBLE CONTROM)RS

Plant B

24-Oet-89

09:18 AM

Total AC - B.OE-07

i

IU'

Rank

I

2

3

4

S

6

7

a

9

10

11

12

13

14

15

16

17

la

!9

20

21

22

23

24

25

Component N me

ACP-DON-FS-DW13

ACP-DWN-FS-DG 13

ACP-DWN-FS-DW 12

ACP-DON-FS-DO 13

ACP-DCrN-FS-DG I I

ACP-DON-FS-DO 13

ACP-DON-FR-DG 13

ACP-DGN4-FR-D 13

ACP-DGN-FS-D0 II

ACP-DON-FS-DO I I

ACP-DGN-FS -DW 12

ACP-DON-rR-D01 II

AC'P-ciN-rP-Wnn Ii

ACP-D0S-FS-CM

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDP I

ACP-DON-FS-DG 13

ACP-DGN-FR-DO 13

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

ACr-N-r- FDc 12

ACP-DON-FS-DG I I

ACP-DON-FR-DO 12

Aql

1.2E-M2

1.2E-02

1.2S-02

1.2E-02

1.2E-02

l.2E-02

1.2E-02

1.2E-2

1.2E-02

1.2E-2

1.2R-02

I .2R~-02

1.2r%-01

1.2E-02

J.9E-03

8.95-03

1.2E-02

1.2E-02

3.9E-03

8.9E-03

9.911-3

J.OR-03

1.2n-02

1.2E-02

t.2E-Q

Component Nome

ACP-DON-FS-DW12

ACP-DON-FS-D I I

ACP-DOG4-FR-D 13

ACP- DON-FR-DO 12

ACP-DON-FR-DO. '

ACP-DON-FR-Du a I

ACP-DON-PR-DO 12

ACP-DON-FR-DOI I

ACP-DON-FS-DO12

ACP-Dr N-FR-DO 12

ACP-DON-FR-DO I I

ACP-flfN-FR-D( 12

ACP-DON-FR-DO 13

ACP-D(N-FS-DW13

ACP-DWN-FR-D 13

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

ACP-DIN-FS-DO12

ACP-DGN-FS-DI I

ACP-DON-FR-D012

ACP-DON-PR- I I

RCI-TDP-PS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

aq2 I

1.2E02

1.2&-2

1.26-02 1.2E*M

1.2E-02

1.2E-02

1.21F5S2

1.2E-02

1.2R-62 1.25-02

I .7R-02

I.213-62

1.2E-02

1.2E-02

1.2E-2

8.95-03

8.9E.43

1.25-02

1.2E-02

I1.25.42

S.9ii-0

S12

3.SE-0

3.55-04

3.3E-04

3.3E-04

3.3B-04

3.35-04

3.1E-04

3. 1 E-04

3. 1E-04

3.0E-04

3.0H-04

2.1FT-04

I.9rn-0

I.9E-04

1.3E-04

1.2E-04

1. I E-04

1. I E-04

9.6£-05

9.6E-05

8.7E-05

A.7 -05

1.3n -05

8.21-05

7.8F.-05

aql aq2

1.4E-04

1.45-04

1.4E-04

t1.4E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-Q4

1.4h-04

I .45t-04

I ."I!-04

1.4E-04

I.OE-04

l.OE-04

1.0049

I .0E-04

1.05-04

l.OE-04

l.OE-04

I .OE-04

1.0E-04

l.OE-04

AC

4.9E-01

4.9E5-0

4.7E-OS

4.7E-Ot

4.7E-OR

4.7E-O0

4.41-08

4.4E-O0

4.3E-O

4.2E-OtS"

4.2R-OR

3.9n.03

2.71-01

2.ME-O

1.4E-O?

1.2E-09

1.2E-OS

1.lE-Ot

l.0E-Ot

1.013-0

9.2E-09

9.2711-0

8.7E-09

S.6E-09

8.2E-09

r

I

I

I 1. if .. A , , , ; ., ;i"".'A' -, I P* , ..;& I *

lblor* *WW4-1r 11'4 'k Wk
Pg

!

IM.

I

EFFECTIVE OVERHAUL INTERVAL - 18 MONTHS

plant B

23-Qct-t9

11:37 AM

TIRGAL - MOD I / 18 MO.

TOP SINGLE CONTRIBUTORS

S,.

I

IiyE~~~I

., I

w,

Kv.> ~ ~ ~ .

Total AC- 2.3E-06

Rank

2

3

4

5

6

7

R

9

10

11

12

13

14

15

16

17

It

19

20

21

22

Compoen Nam

ACP-DON-FS-DO13

ACP-DON-rR-D 13

S5'W-M DP-PS-CM

ACP-DON-FR-DOI I

ACP-DON-FR-DO12

ACP-DON-FS-D012

ACP-DON-PS-DGI1

ACP-DOS-FS-CM

SSW-MDP-FS-MDP2C

RCI-TDP-FR-TDPI

RCI-TDP-FS-TDPI

SSW-MDP-FS-MDPI B

SSW-hiDP-FS-MDPIA

SSW-MDP-FR-MDP2C

SSW-MDP-FR-MDPIA

SSW-MDP-FR-MDPIB

EHV-FAN-FR-77C02

EHV-PAN-PS-77CO2

RHV-FAN-PS-77C1A

EHV-PAN-FS-77CIB

EHV-FAN-FR-77C1B

EHV-PAN-FR-77CIA

A qi

1.2E-02

1.21-0

3.611-03

1.2E-02

1.2E-02

1.2E-02

1.2E-02

1.2E-02

3.6E-03

8.9E-03

t.9E-03

3.6E-03

3.6E-03

3.6E-03

3.6E-03

3.61-03

6.9E-04

6.9E-0

6.9E-04

6.9E-04

6.9E-04

6.9E-04

St

2.6E-05

2.61-05

7.7fl-05

1.9E-05

1.9E-05

1.9E-05

1.9E-05

1.2E-05

1.8E-05

6.4E-06

6.3E-06

1.2E-05

1.2E-05

1. IE-05

7.2E-06

7.2E-06

8.9E-06

R.9E-06

S. IE-06

S. IE-06

S. IE-06

5. 1E-06

AC

3.1IE-07

3.1R-07

2.R1-07

2.2E-07

2.2E-07

2.2E-07

2.2E-07

1.4E-07

6.4E-08

5.7E-OS

5.6E-Ot

4.4E-OS

4.4E-O

4.0E-O0

2.6E-08

2.61E-Ot

6. 1E-09

6.19-0

3.5E-09

3.5E-Q9

3.5E-09

3.SE-09

_mm | _ ___> N!i4 o*w.ww II~~ ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
.4:

A

I

Is

V

I;

'I

*

41

EPPECrIVE OVERHAUL INTERVAL - 18 MONTHS

i

II

I

II

I

1-4

40

i %I

Ptant B

23-Oct-t9

11:31 AM

Total A CRan

2

3

4

S

6

7

a

9

10

I1

12

13

14

15

16

17

is

19

20

21

22

23

24

25

9.9E-07

Component Name

ACP-MN-FS-D013

ACP-DON-FS-DO 13

ACP-DN-FS-0013

ACP-DON-FS-DG 12

ACP-DGN-PS-DO I 3

ACP-DXN-PS-DO II

ACP-DGN-PR-W 13

ACP-DON-FR-DO13

ACP-DON-FS-DI I

ACP-DGN-FS-D 12

ACP-DON-PS-DW 11

ACP-DQN-FR-DOI I

ACP-DON-FS-DOC13

ACP-DOS-PS-CM

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

ACP-DON-FS-DO13

ACP-DON-PS-DX31 I

ACP-DON-PS-D013

ACP-DON-PS-DO13

ACP-DON-PS-DO 12

ACP-DON-FPR-DO 13

RCI-TDP-FR-ThPI

SSW-MDP-FS-CM

ACP-DON-FS-X 12

^qI

1.2e-02

1.2£-02

1.2E2-

1.2E-02

1.2E-02

1.2R-0

1.22-02

1.212-W

1.2E-02

1.2£-02

1.2E-02

1.2E-02

1.2£-02

I .2E-02

3.91-03

8.91-03

1.2E-02

1.2h-02

1.2E-02

1.2E-02

1.2R-02

1.2E-02

8.9E1-0

3.6E-03

1.2E2-

Compement Name

ACP-DON-PS-DO12

ACP-DON-FS-13 I

ACP-DON-PR-DO12

ACP-XaN-FR-DQ13

ACP-DON-FR-DOI

ACP-DON-PR-DOIS

ACP-DON-PR-D012

ACP-DON-PR-DI I

ACP-DON-PS-D012

ACP-DON-PR-DOI I

ACP-DON-PR-DO 12

ACP-DON-PR-D012

ACP-DOS-FS-CM

ACP-DQN-FR-D013

ACP-DON-PS-X 13

ACP-DON-FR-D013

RCI-TDP-FS-TDPI

SSW-MDP-PS-MDP2C

SSW-MDP-PS-MDPIB

SSW-MDP-FS-4DPIA

SSW-MDP-PS-MDP2C

RCI-TDP-PS-TDPI

SSW-MDP-PS-CM

RCI-TDP-PS-TDPI

SSW-MDP-PS-MDPIA

A q2

1.22-02

1.2E-02

1.29-02

1.2R-02

1.28-0

1.22-02

1.282-

1.2E-02

1.22-0

1.2E-02

1.22-02

1.2E-02

1.2h-02

1.2E-02

1.2E2-0

1.2E-02

t.9E-03

3.6E-03

3.62-03

3.62-0

3.6E-03

1.92-0

3,6E-03

3.6E-03

i12

3.5E-0

3.S2-0

7.3E-0

3.3E-0

p.32.04

.1E-04

9.1-0

3.1E-0

3.02-0

2.92-4

1.9E-04

1.3E-04

t.2E-04

I.1E-04

2.6E-0

2.62-04

I613-04

~,6B-0

t.lE-04

i.2E-04

3.2E-0

2.4E134

aql *q2

1.49-0

1.424

1.4E-04

1.4E-04

1.42-04

I.4R-04

1.4E-4

1.4E-04

1.4E-04

1.4E4

1.4E-04

1.4E1.4E4

1.4E-0

1.0E-

.OE-04

L.OE4.3E-05

4.3E-05

4.31-05

4.3E-05

I.OE-0

3.2E-05

3.2E-OS

4.32-0

AC

4.98-0%

4.911-0

4.7-O,

4.7E-0t

4.7R2-0

4.70-03

4.4E-02

4.4AE4.3E-OS

4.2E-01

4.22-01

3.9E-09

2.7E-01

2.6E-O1

1.49-01

1.2E-ft

1.22-01

1.1E-01

1.1-01

1.1E-0

L.1E-0

1.1-0t

L.OE-0

1.0II-0

1.02-0O

T[OALEC - MOD 1 l 18 MO.

TOP DOUBLE CO TRTORS :

4 : I

~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~i
kI

I'

Plant It

23-Ot-9

11:39 AM

EFFECFrVE OVERHAUL INTERVAL 

=

TIROALIIX-MOD 2 / IS MO.

TOP SE&GLE CONtTRUTORS 1.

Tftl ACRank' Cooipenent Name

I ACP-DON-FS-D013

2 ACP-DON-PR-0013

3 ACP-DGN-PR-DGII

4 ACP-DGN-PS-1X12

S ACP-DGN-PR-DC12

6 ACP-DGN-PS-G I1

7 ACP-DWS-FS-CM

8 SSW-MDP-FS-CM

9 RCI-TDP-FR-TDPI

10 RCI-TDP-FS-TDPI

II SSW-MDP-FS-MDP2C

12 SSW-MDP-FS-MDPIB

13 SSW-MDP-FS-MDPIA

14 SSW-MDP-FR-MDP2C

15 SsW-MDP-PR-MDPIA

16 SSW-MDP-FR-MDPIB

17 EHV-FAN-FR-77C02

IS EHV-PAN-FS-77C02

19 ILAV-FAN-r'S-77C1A

20 EHV-FAN-FS-77CtB

2 1EHV-FAN-FR-77C1R

22 EHV-FAN-FR-77CIA

2.1 -06

* ql

1.32-0

1.3B-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.2E-02

9.9E-04

R.9E-03

3.9E-03

9.9E-N

9.9E-04

9.9E-04

9.9E-04

9.98-04

9.9E204

6.9s-4m

6.99-04

6.92-04

6.9E-04

6.9E-04

6.9E-04

Si

2.62-OS

2.62-03

I.OE-OS

1.9E2-0

1.E2-OS

1.9E-O5

1.2E-OS

7.7F.-05

6.46-6

6.3E-06

I.tE-05

1.2E-OS

1.2E-OS

1.1E-0S

7.22-04

7.2E-06

3.9E-06

3.9E-06

S. 1E-W

S.1E-6

5.1t-06

5.I-m06

MONTHS

lc

349-07

314E-07

2 5E-1

2452-07

215E-07

2 5E-07

14E-07

71iE6-08

517E6-0

5j6E-O

1 2E-OS

1 12E09

I IE08

7, 12-9

7,1E-09 611E-09

3152-09 315E-09

3 jSE-09

k

iI

i:

I

I <.w i t .-. -k i '- 

.. *.-

-

- _ ? ,l i, ., I.. 1;_

J010m- -"W 

- I Ad ;H 4 

.
r

'

S *

'

.'

-

I4 - -

I

EFFECTIVE OVERHAUL NTrVRAL= 18 MONTHS

TIRGALEX -. MOD 2 J 1t MO.

TOP DOUBLE CONTRITORS

plant B

23-Oct-39

11:41 AM

Toal a C- 9.75-07

i

1 0

|.1

i1 I

F~;

I'

.t . I i

I _

i s _ -~*~:ke"-' ,

Rank Component Name

I ACP-DON-FS-DG 13

2 ACP-DON-FS-DW13

3 ACP-DGN-FS-D013

4 ACP--DON-PS-DG12

S ACP-DWN-FS-DWII

6 ACP-DWN-FS-DG13

7 ACP-DON-FR-DW13

t ACP-DWN-FR-DW13

9 ACP-DGN-FS-DGW 1

10 ACP-DON-FS-DG12

1 IACP-DON-PS-DI 1

12 ACP-DON-FR-DO 1

13 ACP-DON-FS-DG13

14 ACP-DOS-FS-CM

15 RCI-TDP-FR-TDPI

16 RCI-TDP-PR-T0Pl

17 ACP-DON-FS-D013

IR ACP-DON-FR-D013

19 RCI-TDP-FR-TDPI

20 RCI-TbP-FR-TDPI

21 RCI-TDP-FR-TDbPl

22 RCI-TDP-FR-TDPI

23 ACP-DON-FS-D012

24 ACP-DON-FS-DO 1

25 ACP-DON-PR-DO II

A ql

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-0

1.3R-02

1.3E-02

1.3E-02

1.2E-02

3.9E-03

3.96-03

1.3E-02

1.3E-02

.9E5-03

8.94-03

1.9S-03

8.9E-03

1.3E-02

1.3E-02

1.3F-02

Compont Name

ACP-DON-FS-DO12

ACP-DON-FS-DOI I

ACP-DON-PR-Dt312

ACP-DON-FR-DO13

ACP-DON-FR-DO13

ACP-DGN-FR-D 1l

ACP-DON-FR-DO12

ACP-DWN-FR-DW 1

ACP-DON-FS-D012

ACP-DON-FR-D0 I

ACP-DON-PR-DO12

ACP-DON-FR-DO 12

ACP-DOS-PS-CM

ACP-DON-FR-D013

ACP-DON-PS-DO13

ACP-DON-PR-DO13

RCI-TDP-FS-TDPI

RCI-TDP-PS-TDPI

ACP-DON-PS-DO12

ACP-DON-PS-DOI I

ACP-DON -FR-0012

ACP-DWN-FR-DW 1

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-PS-TDPI

A q2

1.3E-02

1.3E-02

I.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1.3E-02

1 .3ts-02

1.35-2

1.2E-02

1.3E-02

1.3E-02

3.9-E03

3.9f-M03

1.3E-02

1.35-02

*1.3E-2

1.3E-02

3.9E-03

'.92-03

1.91i-03

;12

3. FE-"

3. 5

3.IE-04

3. E-0

3. 3E3. IE

3. E-0

3. E-04

3.1E-04

3 ~-04

2. F-N

1.! - 2. 1EM

1.t

1. E-0S

IE4M

9.:5-05 V.¢E-05

O.!7E-o

8.iE-05

7.$1;-0S

aql q2

1.7E-04

1.7E-04

1.7E-04

1.7E-04

1.7E-04

1.7E-04

1.7£-04

1.7E-04

1.7E-04

1.75-4"

1.7h-04

1.75-04

1.6E-04

1.6E-04

1.2E-0

1.2E-04

1.2E-04

1.2E-04

1.2F-4

1.2 -04

1.2E-0

1.2E-04

1.2E-04

1.2E-04

1.2F-04

AC

6.0o-01

6.0E-0t

5.35E-0

5.35-0

5.7E-08

5.7E5-

5.4E-0O

S.4E-0

5.4E5-

5.2R-0

S.2-01

4.95-0

3.05-0

2.95-0

1.55-0

1.45-01

1.35-01

1.2E-Ot

1.15-01

1.1S-0

1.05-08

1.2E-01

9.7E-9

9.65E-0

9. 1 -09

.

16lWT___ - ____, " i l"W,%,-?%__, ';'i ,,; .7 1 " ' ' I ' I ' I .-". " '
14'

C'.

9.

- f

,

Y

.!

:-

I

EFFECTIVE OVERHAUL INTERVAL =

TIRMAM - MOD 3 / 18 MO.

TOP SINGLE CONTRIBUTORS

Plant B

23-Oct-39

11:t2 AM

TottI AC - 9.7E-06

Rank

I

2

3

4

5

6

7

a

9

10

I I

12

14

15

16

17

As

19

20

21

22

Como wment Nam

SSW-MDP-FS-CM

ACP-DWN-FS-D 13

ACP-WDN-FR-DO 13

ACP-DGN-rR-DO 11

ACP-WN-FR-DO 12

ACP-DGN-FS-DO 12

ACP-DON-FS-DW I

SSW-MDP-FS-MDP2C

SSW-M DP-FS-MDP 1R

SSW-MDP-FS-MDPIA

ACP-DGS-FS-CM

SSW-MDP-FR-MDP2C

SSW-MDP-PR-MDPlD

SSW-MDP-FR-MDPIA

RCI-TDP-FR-TDPI

RCI-TDP-FS-TDPI

EOV-FAN-FR-77C02

rTIV-FAN-FS-77C02

EIIV-FAN-FS-77C1A

EHV-FAN-FS-77CIB

EHV-FAN-FR-77CIB

EHV-FAN-FR-77CIA

£ q1

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3n-02

3.3E-02

3.3E-02

3.3E-02

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.9E-04

6.92-04

Sl

7.7E-05

2.6E-05

2.6E-05

l.9E-05

1.9E-05

l.9E-05

1.9E-05

I.RE-05

1.2E-05

1.2E-05

1.2E-05

1.IE-05

7.22-06

7.2h-06

6.4E-06

6.32-06

9.9E-06

3.9E-06

5. 1E-06

S.1E-06

S. IE-06

S. IE-06

11 MONTHS

Ab

2.5E-06

R. E-07

8. E-07

6.JE-07

6.2E-07

6.2E-07

6. E-0.7

S:l E-W

4.( B-07

4.dE-o7

3.E-07

3.E-07

2. E2.^C

2. 1E-07

2. iE-07

6. E-09

6. tE-09

3. -W9

3. E-09 3. -W

I S

i

I

& ~~~~~~~~J V. 1
-~~~ {. ... _..~ .. .! .e . ..

EFFECTIVE OVERHAUL INTERIVAL 18 MONTHS

THRGALOC - MOD) 3 IO.

TOP DOUBLE CONMMRS

_v17 ... - -

Plant B

23-Oct-39

11:43 AM.

Total C- 1.3E-OS

Rank

1

2

3

4

s

6

7

S

9

10

21

12

14

2S

16

17

Is

19

20

21

22

23

24

25

Component Name

ACP-DON-FS-DO 13

ACP-DON-FS-DO 13

ACP-DON-FS-DO13

ACP-DWN-FS-DG I2

ACP-DON-FS-DO II

ACP-DON-FS-DO 13

RCI-TDP- FR-TDPPI

SSW-MDP-FS-CM

ACP-DCv'N-FR-IX 13

ACP-DWN-FR-DO 13

ACP-DON-FS-DO I I

ACP-DGN-FS-D I I

ACP-DON-FS-DO 12

ACP-DON-PR-O I I

ACPrD0N-r.s-nar3

ACP-DON-FS3-D 13

ACP-DON-FS-DO 12

ACP-DON-PS*DOI I

ACP-DON-FS-DO 12

ACP-DCN-F3-DOI I

ACP-DON-FR-DO I 3

ACP-DON-FR-DO13

ACP-DGN-FS-DG 13

ACP-DI)N-FR-DOI I

ACP-DON-PR-DO 12

AqI

3.3 I -02

3.3E-02

3.3E-02

3.3E-02

3.3F.-02

3.3E -02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.1F-02

1.307..0,

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3J.f-02

3.3E-02

3.3E-02

3.3E-02

3.3RI 02

3.3E-02

Compolent Name

ACP-DON-PS-D 122

ACP-DO3N-FS-DG I I

ACP-DON-FR-DO 12

ACP-DON-FR-DO13

ACP-DON-PR-DO 13

ACP-DGN-FR-DOI I

SSW-MDP-FS-CM

RCI-TDP-FS-TDPI

ACP-DON-mR-Do 11

ACP-DON-FR-DW12

ACP-DON-FS-DO 12

ACP-DGN-FR-DO12

ACP-DON-FR-DOI I

ACP-DON-PR-DO 12

SSw-Mnpr-qs-MnplA

SSW-MDP-PS-MDP2R

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDPI A

SSW-MDP-PS-MDPID

SSW-MDP-FS-MDPIA

ACP-DOS-FS-CM

S3W-MDP-PF-MDrID

SSW-MDP-PS-MDPIA

A q2

3.3R-02

3.3E-02

3.3E 02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3E-02

3.3-02

3.3rn-07

3.31-On

3.3E-02

3.3E-02

3.31E-02

3.311-02

3.3E-02

3.3E-2

3.3E-02

3.39-02

3.3E-02

S12 1

3.50-64

3.53104

3.3E-4

3.3E

3.3F.-I

3.30-44

3.2IE4M

3.2E 1

3.1Et

3.113

3.00- 44

3.0R-4

2.21-44

2 MT

2.6E - 4

2 6E- 4

2.fpg- 4

2.46 < 4

2.48-"fl

2.01 ' Z

2 (,2-4 4 2, R

1.9E-% 4

I.9R'~4

1.9s-&

aqi Aq2

1. 1 -03

L.E-03

1.IE-03

1.1E03

1. IE-03

1.11-03

1.1-E3

1.IE-03

1.0-03

1.11-03

1.IE-3

1.IE-03

1.10-03

1.11-03

1.I1-03

.IE-03

1.11-03

l.1E-03

1.IE-03

I. I1-03

1. 1B-03

1.IE-03

1.1E-03

1. 1-03

1.1E-03

*C

3.80-07

3..1-07

3.6E-07

3.6E-07

3.6E0-

3.6E-07

3.5E-07

3.5E-07

3.4E-Ot

3.4E-07

3.4E-01

3.2E-07

3.2R-07

3.01-07

2.rIP-07

2.tE-07

2.83-07

2.8E-07

2.6E-07

2.6R-07

2.20-07

2 IE-07

2.1E-07

2.0-07

2.0P-07
CONTRLLUTORS FOR

PLANT B

EFFECTIVE OVERHAUL INTERVAL = 7 MONTKS

11.

' ~~~~~~~~~~~~~112

t - - - -. --
'r..p~~~~~~~~ -, ~~~~~~ 9 W~~~~~~4'iYI~~~~~~~ *. '~~~~9~~~1 ~~~9 ~ = nll

1EFFECTIVE OVERHAUL INTERVAL 

- MyONTHS

TIRGAL3JX I 72 MO.

TOP SINGLE CONTRIBUTORS

Plant B

23-Oct-39

1I144 AM

Total ACT 3.0-05

RM

III

mk Compawunw v Nan

I ACP-DON-FS-D013

2 ACP-D(1N-PR-D013

3 ACP-DO3N-FR-DOI l

4 ACP-DaN-FS-DC112

5 ACP-DON-FR-D012

6 ACP-DGN-FS-DO II

7 ACP-DOS-FS-CM

A RCI-TDP-r-R-TDPI

P RC1-Ttfl' i'n-rrTb'l

10 SSW-MDr-FS-CM

I I SW-MDP-1?S-MDP2C

12 SSW-MDP-FS-MDPIB

13 SSW-MDP-rq-Mn)P1A

s ql

1.91-01

1.91-0

I.91-01

1.9-01

1.9E-01

1.9E-01

1.9E1-01

1.41-01

I.40-01

1.2E-02

1.211-02

1.21-02

I.2R-02

1.2R-02

1.11-RK

1.IE-02

1.2-02

1.2E-02

.11-2

1.111-02

1.1*R02

1.11-02

S1

2.6R-05

2.Ae1.98-05

1.91-05

1.9E-S

1.911-OS

1.21-05

6.49-0

6.11-06

7.71-05

1.31-05

1.21-05

1.2R-0

1.1 -05

3.91-0

8.9E-06

7.2E-06

7.2E-06

5.31I-06

5.11-06

5.11-06

14

is

19

20

21

22

SSW-MDP-pR-MDp2C

EHV-FAN-FR-77C02

EHV-FAN-FS-77CQ2

SSW-MDP-FR-MDPIB

SSW-MDP-PR-MDPIA

EHV-FAN-rS-71CIB

R1KV-PAN- PS-MICA

nhIV-P'AN P'R-77C~fl

I'll V-PAN-PR-77CIA

ACI

4.911-d

4.9R1-0

3.611-06

3.6R-6

3.6EMt~

2.211-Q

9.101

2.011-0

JAdR#

1.31-01

1.311483

9.31-C

5.71-CM

5.711-0~

I

I

,11

..1J
mq#l !, XA 11r )4f: Xeres.. i nil i qT H"

uPpEcTrvE ovERHAuL INTRvAL -72 MONTHs

TIROALXC 1 72 MO. i

TOP DOUBLE CONTRIBUTORS '

Plant 1n

23-Oct-89

11:46 AM

Total & C - 1.813-04

Rank

2

3

4

5

6

a

9

10

It

12

13

14

IS

16

17

IR

19

20

21

22

23

24

25

Compnwwnt Name

ACP-DON-FS-D 13

ACP-DON-FS-DO 13

ACP-DGN-FS-DO 13

ACP-DON-FS-DO 12

ACP-DWN-FS-DO 13

ACP-DON-PS-DO I I

AVII- 'M IN- I'M-4 I il~

ACP-DGN-FR-DO 13

ACP-DWN-FS-DGI I

ACP-DON-FS-DO I I

ACP-DGN-FS-DO 12

ACP-DON-FR-DO II

ACP-DXN-PS-D( 13

ACP-DWS-FS-CM

ACP-DON-FS-DO 13

AC-DON-FR-DO 13

A/iP-WDN-FS-D 12

ACP-DON-FS-DO I I

ACP-DON-PR-DO 12

ACP-DON-FR-DOI I

ACP-DWS-FS-CM

ACP-DON-FS-DO12

ACP-DON-FS-DO I I

ACP-DON-FS-DO13

ACP-DON-FS-D 13

A qi

I .913-0l

I.91-01.

1.913-01

IS.E-01

1.911-01

1 .9IE-0t

I .01~-11

I1.913-01

I.91-01

1 .9r1t-0t

1.913-01

1.91-01

1.91-01

I.9E-0I

I.91-01

I.91-01

I.91-01

IS.E-0I

I .911-02

1 .913-01

1.9E-01

I.9E-01

1 .9r13-01

I.91-01

I.91-01

Coment Name

ACP-DON-PS-DO12

ACP-DON-FS-DO I

ACP-DON-FR-DO12

ACP-DON-FR-DO13

ACP DON-FR-DOW1

ACP-DON-FR-D013

AtTA'-IUbN-PH-0I I

ACP-DON-FR-DO 12

ACP-DON-FS-DO12

ACP-DQN-FR-D012

ACP-DON-FR-DI I

ACP-DGN-FR-D012

ACP-D8348-CM

ACP-DON-FR-DO 13

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-PS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-PS-TDPI

RCI-TDP-PS-TDPI

RCI-TDP-FS-TDPI

SSW-MDP-PS-MDP2C

SSW-MDP-PS-MDP2C

SSW-MDP-rS-MDPIA

SSW-MDP-PS-MDPIB

Aq2

1.911-01

1.9E-01

1.9E-01

1.913-01

I.9E-0l

1.911-01

Lo.t-Ol

1.9K1-l

1.9E-01

1.9E-01

1.9E-01

1.913-01

1.911-01

1.9E-01

1.4E-01

1.4E-Ol

l.4E-01

1.411-01

1.411-01

1.4E-01

1.4E-01

1.2E e2

1.2E-02

1.2E-02

1.213-02

S12 IA42

3.513-04 'J. -02

3.S13- 3.6E-02

3.3E-04 3.EM-2

3.313-04 3.lE -02

3.313-04 3.rE-02

3.313-4 3.613-02

3. 1 S-04 5"X

3.1E-4 316E-02

3.1E-04 3 6E-02

3.06-0 316E-02

3.013-04 3i6E-02

2.813-0 3J613-02

1.9R 34R 0

1.9E-04 3168-02

1.1E-0 217E-02

1.13-E0 217E-02

3.313-05 2i713-0

3.213-05 2713-02

7.813-05 21.711-02

7.8E-05 27E-02

4.9E-05 2l7E-02

2.6E-04 42E-03

2.61-0 2.2&-03

2.6E-0 .2E-93

2.6E-04 21.-03

AC

1.213-05

1.2E-05

1.2E-05

1.2E-05

1.215-05

1.211-05

s . Ita-t ~

1.112-05

1. I E-0

1.1iE-05

1.013-05

6.A11-0

6.7F-06

3.C'i-06

2.8E-06

2.21E-06

2.2E-06

2.113-

2.1 E-06

1.3E-6

S.65-07

5.65-07

5.6E-7

5.6E-07

A

A

r

..4i

I.

i.

1

ii'
a 

-

A

I ~ ''$~'

t 

-

-

EFR

Pilat 

B

23-O)ct-39

.....s .... k * ~~.,.

MECIWE OVER)

TIRGALEC

TOP SINOLl

I 11:47 AM J

Tobl ACRank Compovet Name

I ACP-DON-rS3-DO13

2 ACP-DON-PR-1x13

3 SSW-MDP-rS-CM

4 ACP-DON-PR-EKI 11

5 ACP-DGN-rR-D012

6 ACP-DGN-FS-DO12

7 ACP-DON-FS-DI 

I

A ACP-hoi-I's- CM

9 sSW-MDP-rs-MDP2c

10 RCI-TDP-rR-TDPI

II RCI-TDP-FS-TDPl

12 SSW-MDP-FS-MDPIB

13 SSW-MDP-rS-MDP1A

14 SSW-MDP-FR-MDP2C

15 SSW-MDP-FR-MDPIA

16 SSW-MDP-FR-MDP1B

17 EHV-FAN-FR-77CO2

1i EHV-FAN-FS-77CO2

19 EIV-FAN-FS-77CIA

20 EHV-FAN-FS-77CIB

21 EHV-FAN-FR-77CID

22 EHV-FAN-FR-77C1A

--

-

-.

-

-

--

-

- I 

--

-- ' 

-

-

HAUL INTERVAL s 72 MOmS

-MOD 172lMo. 

.

3 CONTRIBUTORS

3.73-os

*ql A1 *C;

I.9R-01 2.63-05 4.93-06

1.93-01 2.6R-09 45 .. 

j

5.38-02 7.73-0 4.4K 

!

1.93-01 1.9E-0 3.63-06

l.9E-01 1.9E-OS 3.6E-06

1.9E-01 l.9-05 3.6E-06 M

1.9-01 1.9E.05 3.5R-06.

L~on-ol 1.2n -05 2.21 j 

i

5.83-02 1.33-05 :.01 06

1.4E-01 6.4E- 9.13E.

I.4E-01 6.3E-06 9.0F-0

S.AE- 1.2E-0 7.1E-7'

5.E-2 1.2E-05 7.1 S-07

5.sn-0 l.lE-05 6.4E-7'

S.3-2 7.2E-06 4.2E-07

5.E3-02 7.2E-06 4.2E-07

1.1E-02 8.9E-06 9.tE3-0

.IE-02 B.9E-06 9.83OS 

|

I.IE--0 S.13-7E06 ;-0;

L.1E-. S.1E-06 5.7E-08L

I.1E-02 S.E-06 .7r 1-0:

l.E-02 S.IE-06 5.7j-01

! ,
EFFECTIVE OVERHAUL iNERVAL V= 72 MONTHS

Plaut B TIROGAL 

- MOD I 72 MO.

TOP DOUBL CONTRITO

II

23ct-t9

I1

11:48 AM

Total *C- 2.S5E-41

RinkI2345679

10

I11

12

I,

14

16

17

Is

19

20

21

22

23

24

Component Nano

ACP&DON-PS-DO13

ACP-DON-FS-DO 13

ACP-DON-FS-DO13

ACP-DO N-PS-DO 12

ACP-DWN-FS-D013

Acr-Dwm-rs-Do 

i

ACP-DON-FR-D 13

ACP-DON-PR-DO 13

ACP-DON-FS-DO I 

I

ACP-DGN-FS-DG12

ArP-DON-FS-DOI 

I

ACP-DON-FR-DC)II

AcP-D0N-r3-D0J13

ACP-DOS-PS-CM

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

ACP-DON-FS-DG13

ACP-DQN-FS-DG 

I

ACP-DON-FS-DO13

ACP-DON-FS-DO13

ACP-DQN-FS-DO 12

ACP-DON-FR-DO 13

RCI-TDP-FR-TDPI

SSW-MDP-FS-CM

Acr- DN-Trs-DO12

AqI

1.95-0l

1.9E-01

1.9E01

I.9E-01

1.9E-01

l.@P-ot

1.91-01

I .9r-ot

I.9F-01

1.9E-01

1.9E-01

1.5-C1

1.911-01

1.9E01

1.4E-01

I.4E-01

1.9E-01

1.9E-01

1.9-E01

1.9E-01

t.9R-I

I.9E-01

1.4E-01

5.RE-02

1.91.101

Componet mo

ACP-DON-PS-DOA2

ACP-DON-FS-D0 

I

ACP-DON-PR-D012

ACP-DON-FR-D013

ACP-DON-FR-DWI1

ACr -DON-PR-DC 13

ACP-DWN-FR-DW12

ACP-D0N-FR-DOI 

I

ACP-DGN-FS-DW12

ACP-DON-FR-DI 

1

ACP-DGN-FR-DG 12

Arp-mN-FR-DO 12

ACP-DG1-rS-CM

ACP-DON-PR-DO13

ACP-DON-PS-DO13

ACP-DON-FR-Ddl3

RCI-TDP-FS-TDPi

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDPIB

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDP2C

RCI-TDP-FS-TDPI

SSW-MDP-FSCM

RCI-TDP-FS-TDhIP

SSW-MDP-PS-MDPIA

Aq2

1.95-01

1.9E-01

1.9-E01

1.91-01

1.9E-01

IA.-01

1.96-01

1.95-01

I.9E-01

1.9E-01

1.95-01

1.9E-01

1.95-01

1.9E-01

1.9E-01

1.9E-01

1.4E-01

S.tE-02

S.tE-02

5.E-02

S.35-02

.4E-01

5.E5-02

1.4E-01

5.8-02

S12

3.39-0

3.5n-04

3.3E-04

3.3E-0

3.3E-0

3.39-0

3.16-04

3.15-04

3.IE-0

3.0E-04

3.0E-04

2.R-(04

1.91-04

1.9R-04

1.3E-04

1.2E-04

1.15-0

2.6E-04

.2.6E04K

2.6E-04

2.6E-0

1.1E-04

3.2E-04

3.2E-04

2.4B-0

qi aq2

3.65-02

3.A-02

3.48-02

3.OE-02

3.4E-02

3.q65-02

3.dE-02

3.6E-2

3.4E 02

3.45-2

3.65-02

2. E-02

2.7E-02

2., sC02

1. *E-02

1.' E-02

1. *E-02

t.: -03

S.: 12E03

I. 9-0

AC

1.29-05

1.2R-05

1.2E-0

1.25-05

1.2E-05

1.2R-05

I.IE-05

I 

.I1-OS

I.I-05

l.lE-05

1.IE-05

1.0F-405

6.35-0

6.7e-06

3.5E-06

3.2E-06

3.0E-06

2.3E-06

2.35-06

2.tE-06

2.15-06

2.83-06

2.6E-06

2.6E-06

2.6B-0

I

i 

I
W' W. .1141, -, 4*'%5-0"Wi'..

i

EFFECTIV OVERHAUL'iNT RVAL = 72 MON-I

Plant B

23-Oct-9

11:49 AM

TIRGALEX - MOD 2 72 MO.

TOP SINGLE COinLIuTOS

Toutl CP"

Rank

2

3

4

S

6

7

a

9

10

I 1

12

13

14

1S

16

17

Is

19

20

21

22

Component Ncme

ACP-DON-P!-MO13

ACP-DON TR-D0I3

ACIP-DON-PIV Dll

ACP-DGN-FS-DO 12

ACP-DON-PR-DO 12

ACP-DONFS-DO I I

ACP-DGS-PS-CM

SSW-MDP-FS-CM

RCI-TDP-FR-TDPI

RCI-TD?-FS-TDPI

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDP I B

SSW-MDP-FS-MDPIA

SSW-MDP-FR-MDP2C

SSW-MDP-FR-MDPIA

SSW-MDP-FR-MDPI B

EHV-PAN-FR-77C02

EHV-FAN-FS-77C02

EHV-PAN-FS-77CIA

EHV-PAN-FS-77CIB

EHV-FAN-FR-77CIB

EHV-FAN-FR-77CIA

Aqi

2.. IR-(I 2.1n-6il

2. IR-cl

2. lE-qI

2.1A-01

1.91301I

1.6E-0Z

1.41-01

1.4B-jl

1.61-oR

1.6E-0,

1.6E3-02

i:6E92

l.6E-O2

I.IE-02

1. IE-O2

1.I 13-O

1. 1E-02

1.1E-O

Si

2.AR-05

2.AR-05

.9S-05

1.913-05

1.913-05

I .913-03

1.2E-05

7.713-OS

6.4AE-C

6.3E-06

1. RE-05

1.21E-05

1.2E-05

1. IE-05

7.2E-06

7.2E-06

t.913-06

8.91-06

5. 1E-06

5.1 E-06

S. IE-06

5. 1E-06

*C

5.5n-ft

4.0e-0

4.0&-06

4.013-06

3.9R-0

2.211-06

1.21E-06

9.1-07

9.013-07

2.BE1-07

1.911-07

1.9E-07

1.713-07

.LIE-07

.IE-07

9.8E1-Ot

9.AE-8

5.71E-08

5.7E-Ot

S.7E1-0

S.713-0O

! ia~~~

6d,

.. g
1*~~~~~~~~P

rant B

23-Oct-89

1 1:50 AM

Total AC -

Rank

1

2

3

4

S

6

7

9

9

10

I1

12

13

14

15

16

17

18

19

20

21

7,

24

'Ii

1~~~~~~~~~~~~~~~1.

EFFECTIVE OVERHAUL INTE1RVAL - MONTHS

TIROA E!X - MOD 2/ 72 MO. |

TOP DOqBLE CONTRIUTORS

2.SE-04 I

Compement Name Aq1 Componnt Name Aq2 112 *qt aq2 AC

ACP-DON-FS-D(I3 2.1E-01 ACP-DGN-FS-D012 2.1E-01 3.5E-04 4.4E-02 1.5B-0,

ACP-DON-FS-DO13 2.1E-01 ACP-DON-FS-DOI 2.1E-01 3.5B-04 4.4E-02 I.SE-05

ACP-DGN-FS-DW13 2.E-01 ACP-DON-FR-D012 2.1E-01 3.3E8-0 4.4E-02 1.5E-05

ACP-DON-FS-DO 12 2.1E-01 ACP-DGN-FR-DW13 2.1S-01 3.3E-04 4.4E-02 1.58-05 | .

ACP-DGN-FS-DWII 2.1E-01 ACP-DON-FR-DUI3 2.1E-01 3.3E-04 4.4-02 I.SE!-05 ' .

ACP-DGN-FS-DG13 2.1E-01 ACP-DWN-FR-DGII 2.1E-01 3.3E-04 4.4E-02 l.SE-05 ; t

ACP-DGN-FR-D013 2.1F.-0I ACP-DGC4-FR-DX12 2.1E-01 3.1E-04 4.4E-2 1.46-05

ACP-DGN-FR-DW13 2,18-01 ACP--D(N-rR-D011 2.1fli-1 3.1 R-04 4.4E-02 1.4E-05

ACP-DON-FS-DG II 2.1E-01 ACP-DGN-FS-DW12 2.1F-01 3.1E-04 4.4E-02 j 1.4E-05

ACP-DON-FS-DW12 2.1E-01 ACP-DGN-FR-DWII 2.1E-01 3.0E-04 4.4E-02 1.3E-05

ArP- DlN-F,^-DaII 2.18-01 ACP'-WlN-FR-1DO12 2.1E-01 3.0P-04 4.4f-02 1.3P.-05

ACP-DON-FR-DOII 2.1E-01 ACP-DCIN-FR-D012 i 2.11i-01 2.RE4 4.4S-02 1.2fl-05

ACP-DON-FS-D(113 2.IF-OI ACP-fOS-rPS-CM 1.9F-01 1.9R-04 4.0R-02 7.617-0.

ACP'lXJS-l'-CM 1.9E-01 ACP-D(N-rR-DO13 2.1E-01 1.9E-04 4.0E-02 i 7.4E-6

RCI-TDP-FR-TDPI 1.4E-01 ACP-DCGN-FS-DO13 2.1h-01 1.3E-04 3.08-:02 3.98-6M

RCf-TD)l'-rR-TDPI 1.4E-0 ACP-DGN-FR-DO13 2.1E-01 1.2E-04 3.0E-2 13.SE-06 j

ACP-LXN-FS-DG 13 2.1E-0I RCI-TDP-FS-TDPI 1.4E-01 .IE-04 3.0E-02 3.4E-06

ACP-DWN-FR-D013 2.1E-01 RCI-TDP-FS-TDPI 1.4E-01 I.IE-04 3.0E-02 3.1E-06

RCI-TDP-FR-TDPI 1.4E-01 ACP-DGN-FS-DG12 2.1E-01 9.6E-OS 3.01-02 2.9E-06 ..1$ *1

RCI .TDP-FR-TDPI 1.4E-01 ACP-DGN-PS-DOII 2.1E-01 9.6E-05 3.0E-02 2.9SE06

RCI-TDP-FR-TDPI 1.41;-01 ACP-DCN-rR-15012 2.18-01 1.7t-05 3.011-02 I 2.61-6 '

Rel-rimr*PR-T)PI 1.41! 01 ArvI-iWN rn-mill 7.18-01 1,711-01 3,fh17-07 i P.AI' ,0

Al 1' I" IN Pl4 1*111 2.111 O I IW I 10 i1 11 4 1 . 01 ki. 8-0 3.01-02A 2.1fl-0f.

A'19 ItIN I'M 1XIlI Al I It-0I KC1 I DP- v.I-TiiPI 1.4n-01 7.SR-05 '.OR-02 I 2.31%-Ofi
-_--_--' - .I .' * I *-* , 4 k4 _ JA t&1 A Ast 9 -- II. AVAtJJS L lX1

Plmnt B TIRALEX - MOD 3 / n MO.

24-Oct-39 TOP SINGLE CONTRIBUTORS

09:13 AM

Total a C 1.6E-04

Rank Commnimt Nome Aql S *C

I SSW-MDP-FS-CM 5.3E-01 7.7E-05 4.0E-05

2 ACP-DON-PS-DO13 5.3R-01 2.61E-05 1.4R-105

3ACP-WN-FR-D013 5.3E-01 2.6E-05 1.4E-05

4ACP-DGN-FR-DW1I 5.3E1-1 1.9E-05, 9.9E-06

S ACP-DGN-FR-DW12 5.3E-01 t.9E-05 9.9E-06

6 ACP-DQN-FS-D012 5.3E-01 .9E-05 9.9!!-06

7 ACP-DGN-PS-DO1 5.3E-O1 t.9E-05 9.8R-06

A SSW-MDP-PS-MDP2C 5.3E1-0 1 .RE-5. 9.311-M

0 M SSW-MDP-F9-MDPIB 5.PK-01 1.2R-O5 6.41-06

10 SSW-MDP-FS-M0PlA 5.3E-01 1.2R-0S 6.4E-06

11 ACP-DOS-FS-CM 5.3E-01 1.2E-05 6.1E-06

12 SSW-MDP-FR-MDp2C 5.3E-1 1.IE-05 5.83-6 .

I3 SSW-MDP-FR-MDPIRl 3.3R-01 7.2R-6M 3.41"-O5

14 SSW-M ..'- PR-MDPIA 5.3E-11- 7.2E-6. 3.31-06

1S RCI-TDP-PR-TDPl S.3R-01 6,4R-06 3.4P-m

16 RCI-TDP-FS-TDPI 5.3E-01 6.3£-06 3.3E-06

17 EHV-FAN-FR-77C02 1.112-02 3.9E-0 9.11E-t

I R rHV-FAN-FS-77CO2 1. I E- 8.9E-06 9.132-O

19 EHV-PAN-FS--77ClA 1.1E-02 5.1E-06 5.129-0

20 EHV-FAN-FS-77CIB 1.IE-02 5.13-06 5.7E-0

21 HYV-FAN-PR-77C1 1.1-02 5.1P-0 5.7R-02

22 EHV-PAN-PR-77CIA L1E-Ot 5.1E-06 5.72-OS

:Q... .. 4
EFFECTIVE OVERHAUL INTERVAL 72 MONTHS

TIRGALEX-MOD 3172 MO.

TOP DOUBLE CONTRIUTORS

Plant 1i

23-Oct-39

11:53 AM

Tobl AC - 3.2E-03

I

0

Rank

1

2

13

4

5

17

a

9

10

I 1

12

13

14

is

16

17

is

19

20

22

23

! t 24

25

Component "ame

ACP-DON-r9-1( 13

ACP-DON-FS-DO 13

ACP-DWN- FS-O13

ACP-DON-FS-DO 12

ACP-DON-rS-Dml II

AcP-DON-5-r)U IJ

RCI-TDP-FR-TDPI

SSW-MDP-FS-CM

ACP-DON-FR-DO 13

ACP-DON-FR-D 13

ACP-D0N-F43-tXJ I I

ACP-DON-PS-DO I

ACP-DON-rs-DO Iz

ACP-DON-PR- O.I I

ACP-DO N-FS-D 13

ACP-DON-FS-D 13

ACP-DON-PS-D 12

ACP-DON-FS-DI I

ACP-DGN-FS-DO 12

ACP-DON-FS-DI I

ACP-DON-FR-DO13

ACP-DON- PR-DO 13

ACP-DWI-FS-D 13

ACP-DON-FR-D I I

ACP-DON-FR-DO12

AqI

5.31;-01

5.3E-01

5.311-01

5.3E-01

5.311-01

5.31-01

5.3E-01

5.3E-01

S.3E-01

5.3E-01

5.3E-01

5.3E-01

S.3E-01

5.311-01

S.3E-01

5.31-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

S.3E-O1

S.3E-01

Compnentt Name

ACP-DON-s-wD12

ACP-DON-PS-DOI 1

ACP-DON-PR-DO12

ACP-DON-FR-DO 13

ACP-DON-PR-DO13

ACP-D0N-PR-Dol I

SSW-MDP-PS-CM

RCI-TDP-FS-TDPI

ACP-DGN-FR-DOI I

ACP-DON-FR-DO 12

ACP-DO N-Ps-DOl2

ACP-DON-FR-DO12

ACP-DON-rR-Do I I

ACP-DON-FR-DO 12

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPIB

S9W-MDP-P¶-MDP2C

SSW-MDP-FS-MDP2C

SSW-MDP-PS-MDPIA

SSW-MDP-PS-MDPIB

SSW-MDP-FS-MDPIB

SSW-MDP-FS-MDPIA

ACP-DOS-FS-CM

SSW-MDP-FS-MDPIB

SSW-MDP-FS-MDPIA

Aq2

5.31Q-01

5.3R-01

5.311-01

5.3E-01

5.3R-01

5.3-o01

5.3E-01

S.3E-01

5.3E-01

5.3E-01

3.311-01

5.3E-01

5.3H-01

5.3E-01

S.3E1-O

5.3E-01

5.11-01

5.3E-01

5.3E-01

5.3E-01

5.3E-01

5.3E1-01

5.3E-01

5.3E-01

5.3E-01

S12

3.5B-04

3.S-04

3.39-04

3.31-0

3.3p1-4

3.311-0

3.211-04

3.2E-4

3.16-04

3.1E-04

3.111-04

3.0E-04

3.0R-04

2.8E-04

2.6E-04

2.6E-04

2.6R-04

2.6E-04

2.4E-04

2.4E-04

2.0E-04

2.0E-04

1.9E-04

I.9E-04

1.9E-04

Aql Aq2

2.11R-01

2.1-01

2.tE-01

2.tE-01

2.311-01

2.31-01

2.3E-01

2.E-01

2.SE-01

2.E1-0I

2.01-01

2.E-01

2.E1-01

2.8E-01

2.tE-01

2.E-01

2.6tt-01

2.8E-01

2.tE-01

2.E1-01

2.E-01

2.E-01

2.8E-01

2.E-01

2.8E-01

AC

9.dR-05

9.61-05

9.21-05

9.21-05

9.2R-05..

9.2F n5M

S.9E-05

.9E-05

.71E-05

t.7E-05

3.511-05

3.3E-os

3.3H-05

7.1E-05

7.1E-05

7. 1 -05

7.11-05

7.1E-05

6.SE-05

6.SE-0

5.4E-05

S.4E-S

5.2E-05

5.2E-05

5.2E-05

...~ ~ ~ ~ ~~~~~~~I. . ., f

I .. ~~~~~~~~~~~~~~ . - ' *~~~~~,- l-.

~~~~~~~~~~ '.4~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~r'',
CON7MTR1uOp. FOR

PLANT B

EFFECrvE ovERHAujL INTRv AL =TIRGALrEx

121
I

I

EFFECTIVE OVERHAUL INTERVAL irGALE

Plat B ITM ALEX I TIOALEX

23-Oct-" TOP SINGLE CONTRIUTORS

01:51 PM

aToal AC- 1.28-06

Pan* CompmNe Nam Aql St aC

I RCI-TDP-FR-TDPI 2.08-02 6.4E8-6 1.3E8-

2 RCI-TDP-FS-TDPI 2.0E-02 6.3E-06 1.3E-07

3 SSW-MDP-FS-CM 1.6B-03 7.7E-05 1.28-07

4 ACP-DowN-s-DOm3 4.48-03 2.6-05 1.28-07

5 ACP-DON-FR-D013 44R-03 2.R-05 1.1C-07

6 ACP-DON-PR-D012 4.4E-03 1.98-0s USEi '* 7 ACP-DGN-FS-D012 4,4R-0 1.9z-05 8.39-0

8 ACP-DQN-FR-IXIII 4,4E-03 1.9E-05 8.3C9 ACP-DGN-FS-DO I 414E-03 1.9- 3.3E10 ACP-DGS-FS-CM 414E-03 1.28-05 5.2R-08

11 SSW-MDP-PS-MDP2C l.6E-03 .E-05 2.9E-0

12 SSW-MDP-FS-MDPIB .1.6E-03 1.2E-05 2.0E-01

13 SSW-MDP-FS-MDPIA 1.6E-03 1.2E-05 2.OE-01

14 SSW-MDP-FR-MDP2C 1I.!E-03 1.1E-O 1.88-08

-i X 15 FIUVMPAN-FR-77C02 1.1R-03 O.9H- 1.68-08

16 EHV-FAN-FS-77c02 1.8-03 8.9R-06 1.6E-0

17 SSW-MDP-FR-MDPIP l.on-s3 7.28R- 1.28-08

f13 SSW-MDP-FR-MDPIA 1.6r-03 7.28-06 1.28-O9

19 EHV-PAN-FS-77CIB 3.80 S.IE-06 9.2E-09

20 EHV-FAN-FS-77CIA 1.IM-0 S.1E-06 9.2E-09

21 EHV-FAN-FR-77C1B I.AE-03 S.lE-06 9.2E-09

22 EHV-FAN-FR-77CIA 1.tE-03 S.lE-06 9.2-09

! IP
Plant B

24-0O-89

09:1t AM

Total aCBFPI3CTIV OVERHAUL INTEVAL m-IROALEX

T'ROAU3X / TIRGAL

TOP DOUBLB CONTRBUTORS

3.02-07

Rank

1

2

3

4

5

6

7

a

9

10

It

12

13

14

is

16

17

Is

Componoot Nome

RCI-TDP-PR-TDPI

RCt-TDP-PR-TDr I

SSW-MDP-FS-CM

RCI-1 DP-FR-TDPI

ACP-DON-fS-DO13

ACP-DON-FR-D 13

RCI-TDP-FR-TDP I

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDP I

RCI-TDP-FR-TDPI

ACP-DON-FS-D012

ACP-DON-FS-DG I I

ACP-DGN-FR-D 12

ACP-DON-FR-DO I I

ACP-DON-f'S-l II

ACP-DON-PS-DO 13

ACP-DWN-FS-DG 13

ACP-DON-FS-DO 12

ACP-DON-FS-DO13

ACP-DON-PS-D I I

ACP-DON-PR-DO 13

ACP-DON-FR-DO13

ACP-DON-FS-DG 1

ACP-DON-FS-DO 12

ACP-DON-FS-DO 1I

Aql

2.0E-02

2.0n-02

1.6E-03

2.Ors-02

4.4E-03

4.4E-03

2.02-02

2.02-0

2.OE-02

2.0E-02

4.4E-03

4.4E-03

4.4-03

4.4E-03

4AR.-.1

4.4E-03

4.4E-03

4.42-03

4.4E-03

4.4-03

4.4H-03

4.4E-03

4.4E-03

4.4E-03

4.4E-03

Compeom Nam

ACP-D9N-PS-D013

SSW-MbP-PS-CM

RCI-TDP-FS-TDPI

ACP-DQN-FR-D13

RCI-TDI)-FS-TDPI

RCI-TIDP-PS-TDPI

ACP-DcON-pS-Doll

ACP-DON-rS-D212

ACP-XN-PR-DO 12

ACP-DCIN-FR-DI I

RCI-TDP-FS-TDPI

RC[-TDO-FS-TDPI

r.C1-TD1-FS-TDPI

RC1-TDO-FS-TDPl

Aer-rn(19-rs Do 22

ACP-De,3P-PS-DOII

ACP-DON-FR-DO 12

ACP-IO-FR-DO13

ACP-DO?-FR-DO II

ACP-DcO-PR-1 I3

ACP-DO-FR-DO 12

ACP-DGN-FR-DO I

ACP-DON-PS-WO12

ACP-DW-FR-DOlI

ACP-DWN-FR-D012

, q2

4.4E-03

1.62-03

4.48-03 2.0E-02

2.0E-12

2.0E-02

4.E4-03

4.4E-03

4.4E 03

4.#E-03

2.bE-02

2.0E-02

2.62-02

2.62-0.

4.4n-OJ 4.4fl.0 4.4S-03

4.4E-03

4.4a-0 4.471-03

4.4E-3

4.4E-03

4.40-03 4 .

4frO

4.710

812

1.3E4

3.2E-04

3.2E-04

1.29-0

1.1I-04W

9.6p-Os

9.62-05

3.7E-OS

8.7&-05

8.3£-OS 83E2-05 t.2E-05

7.8R-0s

3.5E-4

3.3E-04

S .f-44

3.3E4

3.3ft 04

3.IE-04

3.1E-04

3.1E3.0E-0

3.0E4

Aql &q2

3.12-05

3.22-05

3.2E2-5

U.3-O5

.tE-05

I.SE-05

3.3-Os

1.tE-05

.8R-OS

t.tE-5

8.8E-

.8E-0S

I.8-0s

3.32-05

2.02-0

2.0E-OS

2.0E-05

2.02-0

2.02!-0

2.O2-05

2.0E-05

2.0E-OS

2.01-05

2.02-S

2.0E-05

AC

1.22-01

1.02-0

l.OE0-

1.02-O8

1.0-EO

9.3E-0

3.SE-09

S.5E-09

7.7E2-

7.7E-09

7.3E-09

7.3F-W

6.9E-09

6.92-0

6.82-0

6,tE3-0

6.Srh09&

6.5n-0

6t.5R6.32l-0

6.1E-09

6.15E6.1E-09

5.92-

5.9E-09

19

20

22

22

23

24

25

- . J, I I

11 &A I 0 , -0164460 -*,p -WI, , 1 14-4

[' ; ''Q,"www-
I1

4:

:t

4

*

0-

P. i'f4 -

I.'

4.N

,.,

.% S.z

EFFECTIVE OVERHAUL INTE AL GALM.X

Plant B

23-Oct-19

01:43 PM

Total A CRank

1

2

3

4

5

6

7

I

9

10

21

12

13

14

15

16

17

is

19

20

21

22

Somponent

SSW-MDPSSW-MDPRCI-TDP-F

RCI-TDP-F

ACP-DON-.

ACP-DON-I

SSW-MDPSSW-MDPSSW-MDP-I

ACP-DON-1

ACP-DON-1

ACP-DGN-1

ACP-DGN-1

SSW-MDP-1

SSW-MDP-I

ACP-Maq-r

EHV-FAN-I

ElV-FAN-1

EHV-FAN-1

EHV-FAN-1

EHV-FAN-1

EHV-FAN-1

TRGALEX - MOD 1I TIRGAX

TOP SINGLB CONTRIBUTORS

2.18-06

Name Aql

PS-CM t.IE-03 27.7-os

FS-MDP2C B.18-03 1.3E-05

R-TDPl 2.0E-02 6.j48-06

S-TDPI 2.OE-02 6.tE-06

PS-DO13 4.4R-03 2.6E-05

FR-DO13 4.4E-03 2.6-05

FS-MDPIB L.IE-03 1.2E-OS

FS-MDPIA S.1E-03 1.2E-05

PR-MDP2C *.1 R-03 1.1E-05

PS-DO12 4.4n-03 1.9E-03

FR-DW12 I 4.4E-03 1.9E-OS

lPR-DGII 4.4E-03 I.9E-05

FS-DOGII 4.4E-03 1.9E-0O

FR-MDPIA! 3.I-03 7.28-06

FR-MiDPIB I S. 1-03 7.2E-06

IF-CM 4.4r-03 1.2R-03

FS-77C02 , 1.E-03 t*E-OO

FR-77C02 I.B13-03 8.9E-06

FS-77C1B 1.8E-03 5. IE-06

FS-77CIA I.8E-03 5.IE-06

'R-77CIB L.18-03 S.1E-06

FR-77CIA 1.3L-03 5.1E06

I

AC

6.2E-07

1.4E-07

13E-07

1.3E-O7

1.1E-07 I.lE-Ot

9.9E-01

S 11.098-08 .9E-Ot

8.38-01

3.3E-0t

338-08

.3E3-0

5.9E-08

9.2t-01

1.6E-0

1.6E-01

9.2E-0

9.2E-09

9.2E-09

9.2E-9

i

1 . 7&

I

Wl 11_~ a i~~~~ o .<s~~~~;,I A' o s .4'. . , i_ I
I $

I'I

I

I:

"I

I.

I,

.I

0.o

1..

i

I'

r.

EFFECTIV3 OVERHAUL NTRVAL - TGALEX

Plant B

23-Oet-89

01:44 PM

TMRGALEX - MOD I I TRGALEX

TOP DOUBLE CONTRIBUTORS

Toul a C-

/

Rank

. 2

3

4

S

6

7

9 'In

10

11

'.2

13

14

16

17

18

19

20

21't

22

23

24

6.0E8-

Component Nam

RCI-TDP-FR-TDPI

SSW-MDP-FS-CM

RCI-TDP-FR-TDPI

RCI-TDP-PR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

ACP-DON-FS-DO13

RCI-TDP-FR-TDP I

RCI-TDP-FS-TDPI

ACP-DON-rS-D 13

ACP-DON-FS-DO 13

ACP-DON-FS-D012

ACP-DON-FS-DO I I

ACr- rwXN-Iftn-W 13

ACP-DON-FS-DO12

ACP-DGN-FS-D II

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDI-PR-TDPI

ACP-DON-S-DO 12

ACP-DON-PS-DOI I

ACP-DWN-FR-DW 13

Aql Componest Nsme

2.0-02 SSW-MDP-FS-CM

8.1E-03 RCI-TDPPS-TDPI

2.0E-02 SSW-MDP-FS-MDP2C

2.03-02 ACP-DaN-PS-DC 13

2.0E-02 SSW-MDP-FS-MDPIB

2.0E-02 SSW-MDP-FS-MDPIA

2.OE-02 ACP-DON-FR-D013

4.4E-03 RCI-TDP-PS-TDPI

2.0E-02 SSW-MD0:-PR-MrP2C

2.0E-02 SSW-MDl,-FS-MDP2C

4.4-03 SSV.-MDPLFS-MDPIB

4.4-03 SSW-MDP-PS-MDPIA

4.4E-03 SSW-MDP-FS-MDP2C

4.49-0 SSW-MDNFS-M)P2C

4.4it-03 ftCt-TDI'-t9-'rDPI

4.4E-03 SSW-MDPLFS-MDPIA

4.4E-03 SSW-MDP-FS-MDPIR

2.0r-02 ACP-DO NFS-DO12

2.0-02 ACP-DON-PS-DO1 I

2.0E -02 ACP-D0Nt &FR-DG12

2.01P-02 ACP-nXN-r-flO

4.4E-93 RCI-TDP-PS-TDPI

4.4E-03 RCI-TDP-PS-TDPI

4.4E-03 SSW-MDP4FS-MDP1A

4.4E-03 SSW-MDP-FS-MDPIB

* q2

Si:151-03

2.06-02

3.18-03

4.48-03

. 1E-03

.8IE-03

4.4E-03

2.06-02

S. 1 -03

3.1l-03

8.16-03

3. 18-03

8.18-03

.IE-03

2.08-02

3.18-03

S. i6-03

4.41-03

4.4-o03

4.48-03

4.111-03

2.08-02

2.OE-02

S. fE-03

.1iE-03

S12

3.25-0

3.28-E

9.73-0

1.3B-04

6.9E8-S

6.98w-0

1.2E-04

l.18-04

6.1E-05

6.19-OS

2.68-04

2.6e-04

2.6E-04

2.68-04

1.13-04

2.4E-04

2.4E-04

9.68-05

9.63-05

8.7r-05

3.7n-05

3.38-05'

.2E-05

2.0E-0

2.08-04

Aqi Aq2

1.6S-0

1.6E-04

1.65-04

I.RE-05

1.6E44

1.6E-04

S.tE-OS 8.3E-05

1.6E-0

1.6E-0

3.6fi-05

3.6h-05 3.6E-OS

3.68w0

3.83-0

3.6E-05

3.68-OS

t.tE-05

8.I8-O5

3. P8- .311-0s

J.88-O5

%.8E-05

3.6E-OS

3.6H-05

AC

5.22-08

5.2SI1.6-ORt

1.2E-08

1.IE-Ot

1.lE-08

L.OE08

L.OR-03

9.9E-09

9.98w09

9.3R-09

9.38-09

9.3E-09

9.1m-M

9.38-09

8.SE-09

J.SS-09

.SE-09

S.SR-0

7.71-00

7.78-09

7.3R-09

7.3E-09

7.0E-09

25 ACP-DON-FR-D013 7.0E-09

- -. * **.fr -.

, 1. ; . " , .., 4 .

6
EFFECTIVE OVERHAUL INERVAL GALEX

PlInt B TIROALEC -1MOD 21 TIROALEX

23-Oet-3Q TOP SMOLR COMNMUTORS

01:45 PM

Total C- 1.3E-06

Rank Comnpmt Name Aql at I AC

I SSW-MDP-PS-CM 2.2E9- 7.7E-05 1.7E-M

Il 2 ACP-DON-FS-DW13 4.9E-03 2.65S95 .39-07

3 ACP-DON-FR-D013 4.9E-3 2.6EI05 1.39-7

4 RCI-TDP-FR-TDPI 2.OE-02 6.4E,.6 1.3E-07

S RCI-TDP-FS-TDPI 2.Or-02 6.39-6 1.39-8

6 ACP-DON-FR-DOI I 4.9E-03 1.9E-OS 9.2EOS

7 ACP-DON-FR-D012 4.9R-03 1.9E-O 9.2B-08

A ACP-DGN-FS-DW12 4.9E-03 1.9E;Os 9.2B-08

9 ACP-DON-FS-DGI I 4.9e-03 1.9-E05 9.2S-08

10 ACP-DGS-FS-CM 4.4E-03 1.2E905 5.2E9-

11 SSW-MDP-PS-MDP2C 2.2E-03 I.BE-'05 3.99-08

12 SSW-MDP-PS-MDPI i 2.22-03 1.2-05 2.72-08

13 SSW-MDP-FS-MDP1A ' 2.2E-03 1.213505 2.72-O0

14 SSW-MDP-PR-MDP2C 2.2E-03 1.IE405 2.4-08

15 SSW-MI)P-FR-MIDPIA 2.29-MR 7.?P-M 1.6

16 SSW-MDI'-PR-MDP'ID ; 2.22-03 7.29-06 1.69-0t

17 EHV-FAN-FR-77C02 1.8E-03 8.9E-06 1.6E-08

18 EHV-FAN-FS-77C02 .BE-03 8.9E-0 1.6E-0

19 FHV-rAN-FS-77C1A 1.8-03 5.1E-06 9.2E-M

20 2HV-FAN-rS-77C2In 1.R2-03 5.1E-06 9.2R-0

21 EHV-FAN-FR-77CIB 1.E-03 5.1.E-6 9.2E9-

22 EHIV-FAN-FR-77C1A 1.82-03 5.12-06 9.29-B

. , . . _.~, *
_., r; V ' rr 

Plnt n

23-Oct-9

01:46 PM

EFFECTIVE OVERHAUL INTERVAL = TIRGALEX

TROALEX - MO6 21 TROALEX

TOP DOuBLE CoimflmUpTRS

Total aC- 3.6E-07

Rank

I

2

3

4

S

6

7

R

10

1I

12

13

14

is

I 6

17

Is

19

20

21

22

23

24

25

Compone t Name

SSW-MDP-FS-CM

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

ACP-DON-FS-DO 13

ACP-DON-FR-DO 13

RCI-TDP-PR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

ACP-DGN-FS-D 13

ACP-DGN-FS-DO13

ACP-DON-FS-DO12

ACP-DON-FS-DI I

ACP-DON-FS-DO 12

ACP-DON-FS-r) 13

ACP-DON-FS-DO I I

ACP-DON-FS-DO13

ACP-DON-FR-D 11

ACP-DON-FR-DO 12

ACP-DC N-FR-DO 13

ACP-DON-PR-DJ 13

ACP-DWN-FS-DGI I

ACP-DON-FS-DO12

ACP-DON-FS-DG I

&qI

2.2E-03

2.0E-02

2.0E-02

2.06-02

4.9E-03

4.9E-03

2.0E-02

2.0E-02

2.0E-02

2.0E-02

4.9E-03

4.9E-03

4.9E-03

4.9£-03

4.9F.-03

4.or-om

4.9E-03

4.9E-03

4.9E4-3

4.9E6-3

4.9E-03

4.9E-03

4.9E-03

4.9E-03

4.9E-03

conmpoent Norme

RCI-TDP-PS-TDPI

SSW-MDP-FS-CM

ACP-IXN-FS-DO13

ACP-DON-FR-DO13

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

ACP-DGN-FS-D 12

ACP-DON-FS-DW 11

ACP-DON-FR-DO12

ACP-DON-FR-DO 1

ACP-DON-FS-DG12

ACP-DON-FS-WI 1

RCI-TDP-PS-TDPI

RCI-TDP-PS-TDPI

ACP-DON-PR-DO13

ACP-DQN-PR-DOI 2

ACP-DWN-FR-DO13

ACP-DGN-FR-DG 1

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

ACP-DON-FR-DO 12

ACP-DON-FR-DOI I

ACP-DON-FS-DO 12

ACP-DGN-FR-D1 1

ACP-DON-FR-DW12

Aq21

2.0R-02

2.26'03 4SE403 4.96+03

4.9E403

2.0S-2

4.9E-.3

4.9E.03

4.9m4

4.9E403

4.9E'03

4.9EX0

2.0H-02

2.0t402

4.99-03

4.91-03

4.9E-03

2.0E-42

2.0E6-

4.9Rb63

4.9E-03

4.9E-03

4.9E-b3

4.9E-k3

912

3.2E-04

3.2E-04

1.36-0

1.2E-04

1.16-0

L.E-04

9.69-OS

9.6£0S

8.7E-0

8.7E-05

3.SE-04

3.5E-04

J.3E-OS

8.29-05

3.36-04

3.36-0

3.3E-0

3.3E-Q4

7.8E-OS

7.RE-05

3. 1 -04

3.1E-04

3.1 E-04

3.0E-04

3.0E-44

Aql Aq2

4.4E-O5

4.4E-05

9.SE-05

9.8E-05

9.$E-05

9.8E-C5

9.tE-C5

9.8E-05

9.836-05

9.SE-CS

2.4E-05

2.4E-0S

9.SE-OS

9.I6-05

2.4 R-05

2.4F-05

2.4E-05

2.4E-C5

9.E4-05

9.IR-05

2.4R-05

2.4E-0S

2.4E-05

2.4E-0S

2.4E-OS

*C

1.49-OR

1.4I-08

1.3E-OR

1.2E-Ct

1.16-03

I.OE-OI

9.46-09

9.4E-M9

3.6E-0o

3.6E-49

A.4E-09

I.AE9.1E-0M

S.IE-09

3.06-0

3.0p-09

.0E-09

S.OE-09

7.7E-09

7.76.-0

7.66-09

7.6E-49

7.SE-09

7.2E-09

7.26E-0
I -t 

- 9 .1 : Iw_ I 

. .. 

-

EFECrIVE OVERHAUL IMRVAL TIRGALEX

Plant B TIRGALEX 

- MOD 3 / TIRGALE 

X

23-t-"9 TOP SINOL1 CONhIBUTORS

01:48 PM

Total C- 1.31-05

Rank ComponntNome AqI Si A 

C

ISW-MmP-rS- CM 7.4n-0 7.7R-0 5.7R-0

2 SSW-MDP-FS-MDP2C 7.4£-02 1.8E-05 1.3E-06

3 SSW-MDP-FS-MDPIB 7.4E-02 .2E-05 9.0E-07

4 SSW.-MDP-FS-MDPIA 7.4E-0 1.2E-05 9.06-07

S SSW-MDP-FR-MDP2C 7.48-02 1.1E-05 3.11-07

6 SSW-MDP-ER-MDPIA 7.46-02 7.29-0 5.3E-7;

7 SSW-MDP-FR-MDPIB 7.4E-02 7.2E-05 5.3E-07

S RCl-TDP-FR-TDPI 7.4-02 6.4E-06 4.716-07

9 RCI-TDP-FS-TDPI 7.4E-02 6.3E-06 4.7E-07 

3

10 ACP-DGN-FS-DG13 1.2E-02 2.6E-05 3.2E-07

I1 ACP-DWN-PR-D013 1.2R-02 2.66-05 3.2-07

12 ACP-DON-FR-DOII 1.2E-02 1.9E-05 2.3E-7!

13 ACP-DON-PR-DW12 1.2E-02 1.9E-05 2.31,-07

14 ACP-DON-FS-D012 1.23-02 1.9E-0 2.3E6-7 

(

15 ACP-DON-FS-DOII 1.2f-t2 I.9S-05 2.3R-07

16 ACP-DGS-FS-CM 1.2E-02 1.2E-05 1.4E-07

17 EHV-PAN-FS-77C02 1.R6-03 6.96 1.66-01

IR AHV-PAN-PR-77C02 1.E-03 .9R-06 1.611-O

19 RHV-FAN-PS-77CIn 1.8R-03 S.1IR-0 9.21-07

20 EHV-rAN-FS-77C[A 1.3E-03 S.I6-06 9.26-9

21 EHV-FAN-FR-77CIB 1.8E-03 5.1E-06 9.29-09

22 EHV-PAN-FR-77CIA L.E0 5.1A-0 9.2E1-0

1 74

I .i

.j
- .- ----- W'% *. r- _ _--!- rS w 6 -! a ,,)!w_ p- #~

... .... - . I __ _-,-iM i' __I , t

EPPECrIVE OVERHAUL TRVAL TIRGALEX

TIROALEX - MOD 31 TIROALEX

TOP DOUIBLE CONTRMUTORS

Plant B

23-Oct-39

01:49 PM

Total AC- I.4R-OS I

Rank

2

3

4

5

6

7

S

9

I0

I I

12

13

14

15

16

17

is

19

20

21

22

* 23

24

25

Compomemt Name

SSW-MDP-FS-CM

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

SSW-MDP-FS-MDPIB

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDP2C

RCI-TDP-FS-TDP I

KCI-l'Trm R ToPI

ACP-DON-FS-DO 12

ACP-DGN-PS-DO 13

ACP-IXN-FS-DOI I

ACP-DON-FS-DO 13

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-PS-TDPI

ACP-DQN-FS-DO I t

ACP-DON-PS-DO 12

ACP-DON-FR-DO13

ACP-DON-FR-DO13

ACP-DON-PR-DOl

ACP-DGN-FR-DGI I

ACP-WIN-PR-DW12

Aql

7.4E-02

7.4E-02

7.4E-02

7.4E-02

7.4E-02

7.4E-02

7.4E-02

7.4E-02

7.4E3-02

7.4A1-02

I .1E-02

1.2E-02

1.23-02

1.24-02

7.4E-02

7.4E-02

7.4E-02

7.4E-02

1.2E-2

1.2E-02

1.2E-02

1.2E-02

1.2E-02

1.2E-02

1.2E-02

Component Name

RCI-TDP-PS-TDPI

SSW-MDP-FS-CM

SSW-MDP-PS-MDP2C

SSW-MDP-FS-MDPIB

SSW-MDP-PS-MDPIA

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPI A

SSW-MDP-FS-MDPIB

SSW-MDP-Fr?-MDP2C

SSW-MDP-PS-MPI2(C

SSW-MDP-PS-MDPIC

SSW-MDP-FS-MDPlA

SSW-MDP-PS-MDPIC

SSW-MDP-FS-MDPIB

SSW-MDP-FR-MDPIB

SSW-MDP-PR-MDPI A

SSW-MDP-PS-MDPIA

SSW-MDP-FS-MDPIB

SSW-MDP-PS-MDPlA

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPIB

S SW-MDP-PS-MDP2C

SSW-MDP-FS-MDPIB

SSW-MDP-FS-MDPIA

A q2

7.4E2-

7.4E-02

7.42-02

7.4E-02

7.41-02

7.4E-02

7.4E-02

7.4E-02

7.4F-02

7.4 -02

7.4R-02

7.4E-02

7.42-02'

7.42-02

7.41-02

7.4R-02

7.4E-02

7.4E-02

7.4P-02

7.42-02

7.4E-02

7.4s-02l

7.4B-02

7.4E-02

7.4E-0

S12

3.22-04

3.2E-04

9.73-05

6.92-05

6.9Q-05

6.8E-QS

6.132-O

6.1SE-Q5

6. 1-05

6.1 E-cs

2.61-04

2.62-04

2.69-0

2.6E-0

4.02-05

4.0S-03

4.0E-ms

4.0E-05

2.42-0

2.484

2.0E-0

2.OE-04

1.91-49

1.9E-04

I.9E-0

Aql aq2

S.SE-03

5.511-03

5.513-03 5.53-03

5.511-03 5.SE-03

5.5E-03

S.5r-03

5.51-03 3.52-0

9.111-04

9.1R-04

9.1E-04

9.1E-04

S.51-03

5.SE-03

5.5E-03 5.52-0 S.SE-03

9.1E-4

9.12-0

9.1E-0

9.IE-U

9.12-04

9.1E-04

9.1E30

AC

1.312-06

1.132-0

5.3E-07

3.31-07

3.83-07

3.7E-7

3.7E47

3.72-07

3.3R-7

3.3P.-07

2.3247

2.3E27

2.3E07

2.3E-7

2.2E4-07

2.2E-07

2.2147

2.2E-07

2. 1247

2. 12E07

1.314m

1.1347

1.7E47

1.7E-Q7

1.7E-07
I.

CONTRIBUTORS FOR

PLANT B

EFFECTIVE OVERHAUL INARVAL = 18 MONTHS

a mFFJIVE SURVEILANCE INTEVAL =E1 MONT

1u
I

EFFECTIVE OVERHAUL IN rERVAL = 18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL -1 MONTH

Plst B TIRGALEX / 18 MO. / I1 MO.

23-Oct-99 TOP SINGLE CONTRIBUTORS

11:23 AMh

Total aC- l.6E-07

Rank Component Name &ql Si *C

I ACP-WXN-FS-DW13 9.9E-M 2.6E-05 2.6E-t

2 ACP-TX7N FR R llt 9.9r-04 2.11t-01 2.dlatn3 ACP-DON-FR-DGII 9.9E-04 1.9EI S 1.9E-0

4 ACP-DXN-FS-DW12 9.9E.-04 1.9E-OS 1.98-0R

5 ACP-DXN-PR-DW12 9.9E-04 1.9lt-05 1.9E0-S

6 ACP-DGN-FS-DGII 9.9E-04 l.9E-OS 1.LE-09

7 ACP-DOS-FS-CM 9.9n-04 1.2E-05 1.2E-088

A RCI-TDP-FR-TDPI 7.4E-04 6.4F-M06 4.7E-09

9 RCI-TDP-FS-TDPI 7.4E-04 6.3E-06 4.7E-09

10 SSW-MDP FS-CM 6.0E-05 7.7E-05 4.6E-09

11 SSW-MDP-FS-MDP2C 6.0E-05 I.SE-05 l.IE-09

12 SSW-MDP-FS-MDPIB 6.05-05 1.2E-05 7.3E-10

13 SSW-MDP-FS-MDPIA 6.OE-05 1.2E-05 7.3E-10 

. 14 SSW-MDP-PR-MDP2C 6.01;0S5 M.IE-OS 6.6E-1o

15 EHV-PAN-FR-77C02 S.7E-05 8.9E-06 S.IE-10 

L

16 EHV-FAN-FS-77C02 5.7E-05 S.9E-06 S.IE-I0 

p 17 SSW-MDP-FR-MDPIB 6.OE-05 7.2E-06 4.3E-10

13 SSW-MDP-PR-MDPIA 6.0E-05 7.2E-06 4.3E-10

19 EHV-PAN-FS-77CIB 5.7E-05 S.IE-06 2.9E-10

20 EHV-FAN-FS-77CIA S.7E-05 5.E-06 2.9E-10

21 EHV-PAN-FR-77CIB 5.7-05 S. IE-06 2.9E-10

22 EHV-FAN-FR-77CIA S.7E-0S S.IE-06 2.9E-10

1
, ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ * *.~,.

IPFECTIVJ OVERHAUL INTERVAL 18 MONTHS

EFFECTIVE SURVEIANCE INTERVAL 1 MONTH

Plant B TIRGALEX / 18 MO. / I MO.

23-Oct-89 TOP DOUBLE CONTIBUTORS

11:24 AM

Toa l C- 5.01-0

Rpnh rn,,glmsw.ni I'lnle *qI Ca"*iunion Nql Na.' £q 512 dq2

I ACI' WIN 1'N--111 S U.i-(W A ll IWIN 11-MI2 Q.JiR-04 :.- 9.71-07 31dB-IN|

2 A(:'-1XN-rS-[)(J13 9.91-04 ACP-DON-1S Wll 9.91-04 3.5S-0E 9.76-07 3.4E-10

3 ACP-DGN-FS-.X313 9.9E-04 ACP-DGN-FR-DG12 9.9E-4 3.3E-04 9.7E-07 3.2E-10

4 ACP-DGN-FS-LEJ12 9.9E-04 ACP-DON-FR-DW13 9.9E-04 3.3E-4 9.76-07 3.2E-10 4 3,

5 ACP-DON-FS-DW13 9.9E-01 ACP-N-PR-DII 9.9E4 3.3E-04 9.7E-07 3.2E-10 4,.4

6 ACP-DON-FS-D(1I1 9.92-04 ACP-DON-PR-D1X13 9.9R-04 3.31-04 9.78107 3.211-10

7 ACP-DWN FR-DW13 9.9E-04 ACP-DGN-FR-DWII 9.9E-04 3.1E-04 9.7E-07 3.OE-10

8 ACP-WGN-FR-W 13 9.9E-04 ACP-DGN-FR-DG12 9.9E-04 3. 1E-04 9.7E-07 3.0E-10 '

9 ACP-DWN-FS-DCII 9.9E-04 ACP-DGN-FS-DW12 9.9E-04 3.1E-04 9.7E-07 3.0E-10

10 ACP-DWN-FS-DGII 9.9E-04 ACP-DGN-FR-D012 9.9C-04 3.0E-04 9.7E-07 2.9E-10 ,

11 ACP-DON-FS-D012 9.96-04 ACP-DIN-FR-DQII 9.9-04 3.0F-04 9.72-07 2.96-10

12 ACP-DON-FR-DOII 9.9E-04 ACP-DON-PR-D012 9.9E-04 2.82-04 9.7e-07 2.7E-10

13 ACP-DXN-FS-D013 9.9E-4 ACP-DnS-FS-CM 9.9ri-0 1.9R-04 9.7E-07 1.11R-O;

14 ACP-DOS-PS-CM 9.9E-04 ACP-DY.N-FR-DO13 9.96-04 1.9E-04 9.72-07 1.36-10

15 ACP-DGN-FS-D013 9.9E-04 RCI-TDP-FS-TDPI 7.4E-04 I.IE-04 7.36-07 3.2E-ItI

16 ACP-DON-FR-D013 9.9E-04 RCI-TDP-FS-TDPI 7.4E-04 I.E-04 7.3E-07 7 6E-II

17 ACP-DGN-PS-DW12 9.9E-04 RCI-TDP-PS-TDPI 7.4E-04 8.3E-05 7.31-07 6.1E-1l

17 ACP-DGN-FS-DGII 9.9E-04 RCI-TDP-FS-TDPI 7.4E-04 8.2E-05 7.33-07 6.01-Il

19 ACP-DGN-FR-D012 9.92-04 RCI-TDP-FS-TDPI 7.4£-04 7.8E-05 7.3E-07 5.7E-11 ;

20 ACP-DON-FR-Dru II 9.9ti-04 RCI-TDP-FS-TDPI 7.46-04 7.61-0S 7.36-07 5.72-11

21 ACP-I01s-1'.-CM 9.911-04 RJl 1101' I'-TO)PI 7.40-04 4.91-05 7.3R-07 3.611-t ti

22 At( WLIN 111 P101(112 0.911 04 5I51W- MI)I-t'MMI)I.7( 6,0110(5 7.6l-4. 5.011-0o 1.51-lI ! i

*1 Al P#' OItN Ilm-litill 0.01114 AKW M11l tffl MII'PJS 6AI1tII04 AI.fe-114 ?.,Vht' I.IIU-I I

J4 Al'11 I if IN 1)15 1)' 1, ,01i 414 M'4W MI)Pl MlsI)IIA 6.0IO 12.0' I.S1 (141 .-

j7i ACPI (JN It'l-rI i 9*.Qj-f4 5SNW-MlP-r1VMI)Pr1 6.031-05 2.611-4 5.91-01 1.SR-II 1 ,
EFfECTVE OVERHAUL 0Rm=ThtTT INTERVAL lk 

, n ,~~~~~~~~~~~~~~~~~~~~~~~~ .. *.h . .._.. ... _A A

PlantB TIRGALEX - MOD I 18 MO. I I MO.

23-Oct-39 TOP SINGLE CONTREBUTOIRS

V 11:26 AM

Toftl AC I.91 07

Rank Comnponent Nafm Aql SiAC

I ACP-DON-PS-D013 9.9E-04 2.6E-05 2.6E-OS

2 ACP-DON-PR-DW13 9.98-04 2.6B-05 2.6R-OS

3 SSW-MOP-FS-CM 3.06-04 7.72-05 2.3H-0

4 ACP-DON-FR-DGII 9.904 1.9E-05 I.9E5 ACP-DCN-FR-D012 9.9P-04 1.9I-05 I.9P6 ACP-DON-PS-D012 9.94 1.9E-05 1.96-ol

7 ACP-DON-PS-DOI I 9.9S 04 I.9E-05 1.3E-O

8 ACP-DOS-PS-CM 9.91$-N 1.26-05 1.2R-"

9 4iIW-MDP-r*-MDP2C 3.09-04 1.n-of 5.36-09

In RCI-TrW-t'R-TDPt 7.41-04 6.411-06 4.7P-0

W A^,i,, 11 RCI-TDP-FS-TDPI 7.42-04 63E-06 4.7E-09

12 SSW-MDp-FS-MDPID 3.0N04 1.26-05 3.72-09

13 SSW-MDP-FS-MDPIA 3.OE-0E 1.2i-05 3.78-

14 SSW-MDP-FR-MDP2C 3.OE-04 I.IE-05 3.3E-09

.IS .SSW-MDP-FR-MDPIA 3.02-04 7.2E-M 2.2R-09

* -, 16 SSW-MnP-PR-MDPIRl 3.0-04 7.2E-0 2.2R-0

17 EtIV-PAN-FR-77C02 5.7E-05 S.9E-06 5.1A-10

It EHV-PAN-FS-77C02 5.7E-05 3.9n-06 S.1E-10

19 EHV-PAN-FS-77C1A 5.76-05 5.1-E06 2.9E-10

*',4t~gP 20 EHV-FAN-PS-77CI0 5.76-05 5.19-0 2.9E-10

21 EHV-PAN-FR-77C~fl 5.7E-05 S.1-06 2.9E-10

22 SHV-PAN-PR-77CIA 5.7E-OS 5.1E-06 2.9E-10
I

III

Ii

i

I

I

Ii

;i

Ilz

t,-

I

i ,

I

I

I

Plat B

23-ct-89

11:27 AM

Toal A C- 6.9E-0

RAnk

2

4;

5

6

7

8

9

10

I1

12

13

14

IS

16

17

Is

.1 19

20

21 - 22

23

24

25

Component Name

ACP-DN-FS- D 13

ACP-DWN-FS-D 13

ACP-DGN-FS-D 13

AC?-DWN-FS-DW 12

ACP-DGN-FS-DO 13

ACP-DGN-FS-DO I I

ACP-DON-FR-C 1

ACP-DGN-FR-D 13

ACP-DON-FS-DWI I

ACP-DGN-FS-DCs 12

ACP-DGN-FS-DG I I

ACP-DON-PR-WO I1

ACP-DWN-FS-DG 13

ACP-IXJS-FS-CM

RC[-TDP-FR-T1P1 I

RCI-TDP-FR-TI)P I

ACP-DON-PS-1)C1I

ACP-DONFPS-X)1

ACP-DON-PS-DO 13

ACP-DON-FS-DO 13

ACP-D0N-FS-D 12

ACP-DGN-FR-DG l3

RCI-TDP-FR-TDPI

SSW-MDP-FS-CM

ACP-DON-FS-DG 12

aql

9.9F.- 4

9ME 04

9.9E-04

9.9E-04

9.9F-04

9.93-04

9.s92-4

9.9E-04

9.9E-04

9.9E-04

9.9E-04

9.9F-04

9.9E-04

9.9F-04

7.41-04

7.411-04

9.911-04

9.9E-04

9.92-04

9.g9-04

9.9E-04

9.9E-04

7.4E-04

3.0-04

9.9E-04

Comp-oGNt Namo

ACP-DON-PS-DOI2

ACP-DON-PS-DO l1

ACP-DON-FR-D 12

ACP-DON-FR-DO13

ACP-DON-FR-DO II

ACP-WN-FR-DGl3

ACP-DN-rFR-D01 2

ACP-DON-FR-DOI 1

ACP-DGN-FS-D 12

ACP-DGN-FR-DOG1

ACP-DGN-FR-DGI2

ACP-DGN-FR-DO 12

ACP-DOS-FS-CM

ACP-DON-FR-DO13

ACP-DN- PS-DO13

ACP-DON-FR-DO 13

RCI-TOP-PS-TDP I

SSW-MDP-FS-MDP2C,

SSW-MDP-FS-MDPID,

sSW-MDP-FS-MDPIhi

SSW-MDP-FS-MDP2C

RCI-TDP-FS-TDPI

SSW-MDP-FS-CM

RCl-TDP-FS-TDPI

SSW-MDP-FS-MDPIA i

Aq2

9.9E-04

9.9E2-

9.;d-u

9.9E-04

9.96-0

9.9f-04

9.98-4

9.9E-04

9.9E-04

9.9E-0

9.9E-04

9.98-04

9.9E-04

9.92-04

9.92-04

9.9E-04

7.42-04

3.02-04

3.0E-4

3.02-4

3.0-04

7.4E-"

3.0E-04

7.4E-04

3.06-0

S12

3.5EP.4

3.51-04

3.3--04

3.32-04

3.3E-04

3.3E-D4

3.10-04

3. 1-04

3.1J0E4

3.02-04

3.0E-0

2.1E-04

1.9E-04

1.91-04

1.3E-04

1.2.-4

1.12-04

2.6r-49

2.6E-04

2.68-4

2.6E-04

I.IE-04

3.2E-04

3.2E-04

2.4E-04

Aql Aq2

9.79-07

9.72-07

97E-07

9.72-07

9.76-07

9.7E0-7

9.79-7

9.7E-07

9.7E-07

9.7E-07

9.7E-07

9.7R-07

7.32-07

7.331-07

7.3P.-07

7.3L-W

3.0E-07

3.0E01

3.02-07.

3.0E-07

7.3E-07

2.2E-07

2.2E-07

3.02-07

AC

3.42-10

3.42-10

3.2E-10

3.2E-lO

3.2E-I0

3.22-10

3.0E-10

3.0E-I0

3.0E-10

2.9E-10

2.9E-10

2.7E-10

1.8E-10

1.f1.-10

9.51-11

6.6r1- I

5.2E-1 1

7.7E-li

7.7E-Il

7.70-Il

7.7E-1I I

7.6E-1 1

7.2E-11

7.2E-I 1

7.0E-1 1

EFFECTIVR OVERHAUL INTERVAL 18 MONTHS

EFFECTiVE SURVEILANCE INTERVAL 1 MONTH

TIRGA - MOD I/ 18 MO. / 1 MO.

TOP DOUBLE CONTRIBUTORS

~~. *1~L. t
EFFECTIVE OVERHAUL IN'ERVAL = 18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL m I MONTH

TIRGALEX - MOD 21 18 MO. I I MO.

TOP SINGLE CONTRIBORS

Plant B

23-Oct-9

11:2t AM

Total AC- 1.7E-07 t

2

3

4

5

6

7

9

10

I11

12

13

14

15

16

17

Is

19

20

21

22

Component Name

ACP-DON-FS-DO 13

ACP-DWN-FR-DO 13

ACP-DON-Flt-DO I

ACP-DON-FS-DO12

ACP-DON-FR-DO 12

ACP-DON-FS-DGI I

ACP-DOS-FS-CM

SSW-MDP-P8-CM

RCI-TDP-PR-TDPI

RCI-TDP-FS-TDPI

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDPI B

SSW-MDP-FS-MDPI A

SSW-MDP-PR-MDP2C

SSW-MDP-YR-MDPIA

SSW-MDP-FR-MDPIB

EHV-FAN-FR-77C02

EHV-PAN-FS-77C02

EHV-PAN-PS-77C IA

EHV-PAN-PS-77CIB

EHV-PAN-FR-77CIB

EHV-PAN-FR-77CIA

Aql

1. I-03

1. IE-03

1.1E-03

1.1E-3

1. 1-03

1.1E-03

9.9E-N

a.211-05

7.4E-0

7.4E-04

U.2E-0

8.2E-05

9.2n3-5

9.28-05

t.2E-05

8.2E-05

5.7E-O5

5.7E-OS

5.7E-05

5.7E-05

5.7E-05

5.7E2-S

S1

2.6E2-S

2.6E-05

1.93-0S

1.92E1.9I-E

1.9Eos

1.2E-05

7.7nt-O

6.4a-0

6.3E-06

I.tE-OS

1.2E-05

1.2r3**05

I. ki-05

7.2E-06

7.2E-06

8.9E-06

t.9E-06

5.12-6

5.1ES. IE-06

5.1E-06

AC

2.9E-0O

2.E-OI

2JE-O

2.1ABO

21E2-O

2.0EOS

1.2E-0O

6.3n-0

4.7E2-

4.7E-09

1.49-0

1.0O-09

1.0L9.02-10

5.9E-10

5S.9E-10

5.1E-10

5.IE-10

2.92-10

2.9E-10

2.9E-10

2.9E-10

Haiti 4

, jl,- 1" ...
EECTIVE OVERHAUL INTMVAL - 18 MONTHS

|FFECIE SUR LANCE NMVAL = I MONTH

Punt B TIRGA X - MOD 21 18 MO. I I MO.

23-iOkt-89 TOP DOUBLE CONTRIBUTORS

11:30AM

Total C -6.7E-0

Rank Component Nam &ql ComponentName , q2 S12 &ql *q2 AC

I ACP-DGN-FS-DW13 1.l1-03 ACP-DGN-FS-D312 1.IE-03 3.5E04 1.2E-06 4.2E-10

FS X2 ACP-DON-FS-DG13 1.IE-03 ACP-DON-FS-JX1II 1.IE-03 3.5E-0 1.2E-06 4.2E-10

3 ACP-DON-Fs-D03 1.15-03 ACP-DON-PR-D012 I.IF03 3.385-4 1.25-06 4.01-10

4 ACP-D)N-FS-D(jl2 1.ll-03 ACP-XIN-FR-DW13 1. Ii-03 3.3E-04 1.2E-06 4.0E-10

1 ACP-boN-PS-Wll O1,.It03 ACP-t)oN-PR-)l03 1.I5-03 3.31t-04 17.71-06 4,0R-lo

6 ACP-DON-PS--D13 1.1E-03 ACP-DON-'R-DOlI 1. I-03 3.35-04 1.2Q-0 4.0E-10

7 ACP-DON-PR-D3 1.E2-03 ACP-X1N-FR-DO12 1.16-03 3.164 1.26-06 3.IB-1O

8 ACP-DON-FR-DW13 I.IE-03 ACP-DON-FR-DOII 1.lE-03 3.1E-04 1.2E-06 3.tE-10

9 ACP-1N3'4-FS-DOII 1.IE-03 ACP-DON-FS-DO12 1.1£-03 3.1E-04 1.2E-06 3.7E-10

I10 ACP-D(JN-PS-D012 1.11-03 ACP-IXIN-PR-0II 1. IR-03 3.09-04 1.29-06 3.65-10

11 ACP-DGN-FS-DW II L.E-03 ACP-DGN-FR-DO12 1.15-03 3.0E-04 1.2E-06 3.6E-10

'K t t. 12 ACP-DGN-FR-DGGII l.1E-03 ACP-DGN-FR-DG12 1.1 .I-03 2.8E-04 1.2E-06 3.4E-10

13 ACP-DON-FS-DW13 1.IE-03 ACP-DGS-FS-CM 9.9E-4 1.9E-04 1.1l-0 21E-10

J *4 14 ACP-DOS-FS-CM 9.9-04 ACP-DXN-FR-D013 1.1E-03 1.9E-4 1.1E-06 2.0E-10

1 5 RCI-TD?-FR-TDPI 7.4E-04 ACP-DGN-FS-DC113 1.IE-03 1.3E-04 B.IE-07 1.IE-10

16 RCI-TDP-FR-TDPI 7.48-4 ACP-DON-FR-DW13 1.18-03 1.2E-04 3.1f-07 9.65-11

17 ACP-DCN-FS-D013 1.IE-03 RCI-TDP-PS-TDPI 7.4E-04 L.E-0 .E-07 9.1E-11

18 ACP-WGN-FR-DG13 1.5E-03 RCI-TDP-FS-TDP1 7.4E-04 1.15-04 S.1E-07 *.511-I

19 RCI-TDP-FR-TDPI 7.4E-04 ACP-DGN-FS-D012 1.IE-03 9.6E-05 S.IE-07 7.8E-11

20 RCI-TDP-FR-TDPI 7.4E-04 ACP-DGN-FS-Dl1 I I.IE-03 9.6E-05 S.1E-07 7.8E-11

,~ f 21 RCI-TDP-FR-TDPI 7.4E-04 ACP-DGN-FR-D012 AI.E-03 8.7E-05 S.IE-07 7.1E-11

22 RCI-TDP-FR-TDPI 7.4E-04 ACP-DQN-FR-DOII 1.l1E-03 *.7fi-05 8.15-07 7.1X-II

23 ACP-DON-PS-DJ12 1.15-03 RCI-TDP-PS-TDP1 7.41-04 1.35-05 3.19-0 6.715-11

24 ACP-DON-FS-DGI I l.1E-03 RCI-TDP-FS-TDPI 7.4E-0 8.2E6-0 1.I601 6.76-11

25 ACP-DWN-FR-DGII l.1E-03 RCI-TDP-PS-TDPI 7.4E-04 7.8-05 8.1E-07 6.3E-11

S %.
irf.

Ii

I

I

I

- Is

II. Ai

EFFECTIVE OVERHAUL INTERVAL = 18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL m I MONTH

Plant B

23-Oct-9

11:31 AM

TIRGAL1X - MOD 3 t l8 MO. I I MO.

TOP SINGLE CONTRIBUTORS

Total AC- .IB07

Rank

2

4

5

6

7

a

9

10

I11

12

,.

14

15

16

IN17

19

20

21

22

Compqxeet Name

SSW-MDP-FS-CM

ACP-DWN-FS-DO 13

ACP-DON-FR-DO 13

ACP-DON-FR-DGI I

ACP-DON-FR-DO 12

ACP-DON-FS-D(7 12

ACt' (IMN PS-CllI

SSW-MDP-rS-MDP2C

SSW-MDP-FS-MDPI B

SsW-mnP-rs-MDPIA

ACP-DWOS-PS-CM

SSW-MDP-FR-MDP2C

w -Mnr-rR-MnPln

SSW-MDP-FR-MDPIA

RCl-TDP-PR-TDPI

RCI-TDP-FS-TDPI

EIHV-FAN-FR-77C02

EHV-FAN-FS-77C02

EHV-FAN-FS-77C1A

EHV-FAN-FS-77CIB

EHV-FAN-FR-77C1B

EHV-FAN-FR-77CIA

A ql

2.7ri-03

2.713-03

2.7E-03

2.7E-03

2.7E-03

2.7tF-O3

2.711-f3

2.7E-03

2.7E-03

2.78-03

2.713-03

2.7E-03

2.71 01

2.7E-03

2.7E-03

2.7E-03

5.713-OS

5.713-S

5.7E-05

S.7E-05

5.7E-05

5.713-05

Sl

7.713-05

2.61E-05

2.6E-05

1.98-05

1.9£-OS

I.~t'.-5

I .I E-05

1.213-05

1.213-05

1.2E3-OS

1.113 0

7.2E-06

7.213 0

6.4E-06

6.3E-06

3.913-06

1.913 0

S. IE-06

5.1E-06

S.IE-06

AC

2.11-07

7.1 E-0t

7.1E-Ot

S. IE3-t

S.1 E-Ot

5.11.-Of

s. I R-08

4.38-O

3.3R-O

3J3R-09

3.2E-01

3.011-01

2.01.t-0

2.0E-Ot

1.7E-OS

1.768-

5.1A-10

5.111-10

2.9E-10

2.9E-10

2.9E-10

2.9E-10

&

- [ [

-~~~~~~~~ff Ift,;, -I , - , 6. , I *,44; I 1. I , 41.1 . ..-.,%:. 11 Ir I &4",

0 , .4%v r - ;A%--,-110#

lt6, .k-' temw, . ll, II -

l
EFFECTIVE OVERHAUL INTERVAL =18 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL = 1 MONTH

TIRGALEX - MOD 31 I8 MO./ I 1MO.

TOP DOUBLE CONRIUTORS

Plant B

23-Oct-89

11:32 AM

Toal AC- .1K-oS

Rank

2

3

4

6

7

8

9

10

I1

12

13

14

15

16

17

is

19

20

21

22

23

24

25

Component Nam

ACP-DWN-PS-DO 1

ACP-DON-PS-DO 13

ACP-DGN-FS-DO 13

ACP-DWN-FS-DO 12

ACP-DON-FS-DW 1

ACP-DON-FS-DO 13

RCI-TDP-FR-TDPI

SSW-MDP-FS-CM

ACP-DGN-FR-DI 13

ACP- DON-FR-D 1 3

ACP-D3N-FS-DG I I

ACP-DON-FS-D II

ACP-DON-FS-DO 12

ACP-DON-PR-DWI I

ACP-DGN-FS-IbC)13

ACP-LD)N-PS-DO 13

ACP-DWN-FS-DW 12

ACP-DWN-FS-D I I

ACP-DON-FS-DG 12

ACP-DON-FS-DO I I

ACP-DGN-FR-DO 13

ACP-MN-PR-Ml I1

ACP-DON-PS-DO 13

ACP-DON-FR-DO I I

ACP-DXJN-PR-DO 12

Aq1

2.7R-03

2.7E-03

2.7E-03

2.7H-03

2.7K-03

2.7E-03

2.7E-03

2.7E-03

2.7R-o3

2.71-03

,.7E-03

2.7E-03

2.7E-03

2.7E-03

2.7r%-03

2.7E-03

2.7E-03

2.7E-03

2.7E-03

2.7E-03

2.7E-03

7.7n-CA

2.7E-03

2.7E-03

2.7E-03

Component Name

ACP-DON-PS-DO 12

ACP-DON-PS-DOI I

ACP-DON-PR-DO 12

ACP-DON-FR-D013

ACP-DON-PR-DO 13

ACP-DON-PR-DI I

SSW-MDP-FS-CM

RCI-TDP-FS-TDPI

ACP-DnN-PR-lnI I

ACP-DON-PR-LKI12

ACP-DON-FS-DO12

ACP-DON-PR-DO12

ACP-DON-PR-DOI I

ACP-DON-PR-D 12

SSW-MDP-Ps-MDPIA

SSW-MDP-FS-MDPIB

SSW-MDP-PS-MDP2C

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPIB

SSW-MDP-FS-MDPtB

8qW-MDP-PB-MDPlA

ACP-DOS-FS-CM

SSW-MDP-FS-MDPIl

SSW-MDP-PS-MDPlA

Aq2

2.7R-03

2.7E-03

2.76-03

2.76-03

2.7E-03

2.7E-03

2.7E-03

2.7E-03

2.7P-0.

2.7E-03

2.7E-03

2.76-03

2.76-03

2.76-03

2.78-03

2.7i-03

2.7E-03

2.7E-03

2.7£-03

2.7E-03

2.7E-03

2.7n1

2.7E-03

2.76-03

2.7E-03

512

3.5E-4

3.5E-4X

3.3E-04

3.3E-04

3.3E-0

3.3&-04

3.2E-04

3.2E-04

3.16-04

3.16E3. 1E-04

3,0E-04

3.06-04

2. IE-04

2.66-04

2.63-04

2.6E-0

2.6-04

2.4f-04

2.4E-04

2.02E4

2.004K

1.9-04

1,96-0

1.9E-04

j It q2

7.5E-06

7.5E-06

7.SE-06

7.5E-06

7.5E-06

7.SE-06

7.SE 4

7.SE-0

7..lt-06

7.5E-06

7.SE-06

7.5E-06

7.s5-e

7.5E-06

7.SR-06

7.5s-06

7.5E-06

7.5E-06

7.5E-06

7.SE-06

7.5E-06

7.3a-06

7.5E-06

7,MR-06

7.5E-6

AC

2.46-09

2.6E-09

2.5E-09

2.S-09

2.5k-09

2.4E-09

2.4E-09

2.4E-09

2.4t-09

2.3E-09

2.3E-09

2.3E-09

2.31-09

2.1E-09

1.96-0

1.92-09

1.9E-09

1 .9E-09

I.tF-09

1.56-09

1.5E-09

1.4E-09

1.4-R09

1.42-09

I .. '%:#-

- *,'JJ. t.A'L
. 1;4

CONTREBUTORS FOR

PLANT B

EFFECTIE OVERHAUL INTERVAL = 72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL = 1 MONTH

139
K -. EFECTIVE OVERHAUL INTERVAL =72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL I MONTH

n TIRGA.LXI /72 MO. / I MO.

23-Oct-89 TOP SINLE CONTRIBUTRS

10:33 AM

To1ta a C- 6.39-

Rank Compcmet Name ql St AC

I ACP-DGN-PS-D013 3.9E-03 2.6E- L.OE-07

2 ACP-DGN-PR-DW13 3.9R-03 2.6R-05 2.011-07

3 ACP-DWN-PR-DWII 3.9B-03 1,91-05 7.4n-O

4 ACP-DON-PS-D012 3.9E-03 1.99-0 7.4E-08

S ACP-DGN-FR-D012 3.9E-0 .9E-05 7.4E4R

6 ACP-DGN-FS-DWII 3.9E-03 1.9E-05 7.4E-0

7 ACP-DWS-FS-CM 3.91-03 1.2i-05 4.61-O

It RCI- TDP-PR-TDPI 3.0R-03 6.49-0 1.911P-0

9 RCI-TDP-FS-TDPI 3.0E-3 6.3E-0 I.E

ID SSW-MDP-PS-CM 2.4E-4 7.7E-0 1.e-os

I I ' s11sw Mnp.Pr--Mnf7c 2.411-04 2.111-4O 4.2l1-00 I: 2 12 SSW-MDP-PS-MDPIB 2.4E-04 1.2E1-S 2.9E-9

13 SSW-MDP-FS-MDPIA 2.4E-04 1.2-0 2.9E-0

14 SSW-MDP-FR-MDP2C 2.4E-4 1.1-OS 2.6E-09

15 EIIV-PAN-PR-77C02 2.38-0 3.91-0 2.0OE-0

16 EHV -PAN-PS-77C02 2.3E1-04 .9E-0 2.01-09

17 SSW-MDP-FR-MDPIB 2.4-0 7.2E-0 I.7-0

18 SSW-MDP-FR-MnPIA 2.4E-04 7.2E-06 1.71-09

19 EHV-FAN-FS-77CtB 2.3E4 5 11E-0 1.2E-09

20 EHV-PAN-PS-77CIA 2.38-0 S. I R-0 1.2E-0

21 rHV-FAN-PR-77CIB 2.31-04 5.1 R-06 1.28-0

22 EHV-FAN-PR-77CIA 2.3E-04 5.lE-06 1.2E-09
I U.;

I I

5j. l.~

i

0 s

EFFECTIVE RENEWAL INTERVAL =72 MONTHS

DETECTION INTERVAL = 1 MONTH

TIRGALEX/ 72 MO. / 1 MO.

TOP DOUBLE CONTRIBUTORS

Plant B !,

23-Oct-89

10:34 AM

Total a C- .0R-Os

A

Riank

I

2

3

4

6

7

a

9

10

I

12

13

14

15

16

17

in

19

20

21

22

23

24

2S

Component Nam

ACP-DON-FS-DO 13

ACP-DON-FS-D(130

ACP-DON-FS-DU 13

ACP-DON-IS- aX12

ACP-DON-FS-DO13

ACP-DON-FS-DI I

ACP-DON-FR-DO 13

ACP-DGN-FR-DW 13

ACP-DON-FS-DO I I

Acr-DON-rs-D I I

ACP-P0N-PRs-lx02,

ACP-DON-FR-DO II

ACP-DON-PS-DO 13

ACP-DOS-FS-CM

ACP-DON-PS-DO 13

ACP-DON-FR-D013

ACP-DGN-FS-DO12

ACP-DON-PS-DOI I

ACP-DON-PR-DW12

ACP-DON-PR-DOI I

ACP-DOS-FS-CM

ACP-DON-FS-DO 12

ACP-DON-PS-DO I

ACP-DON-FS-DO13

ACP-DON-PS-D013

Aqi

3.91-03

3.911-01

3.95-03

3."l-03

3.91-03

3.9E-03

3.9E-03

3.9E-03

3.0E-03

3.05-03

,05n-Q

3.91-03

3.91-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.0R-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.95-01

3.9E-03

Compoet Nome

ACP-DOTN-PS-DO12

ACP-DON-P1-DOI I

ACP-D0XN-PR-D 12

ACP-DON-PlR-D130

ACP-DGN-FR-DW I

ACP-DON-FR-D013

ACP-DON-FR-DO I I

ACP-DGN-FR-DO 12

ACP-DGN-FS-DO 12

AcP-DON-rn-Dc12

ACP-IMXN-PR- I I

ACP-DON-PR-W 12

ACP-DOS-FS-CM

ACP-DGN-FR-DO 13

RCI-TDP-FS-TDP1

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-r' T. a

RCI-TDP-PS-TDPI

RCI-TDP-PS-TDP1

RCI-TDP-PS-TDPl

SSW-MDP-FS-MDP2C

SSW-MDP-PS-MDP2C

SSW-MDP-PI'-MDPIA

SSW-MDP-PS-MDPI P

Aq2

3.9E-03

3.9R-03

3.91-03

3.91-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.911-03

3.9n-03

3.Plt-03

3.9n-03

3.9E-03

3.9E-03

3.0E-03

3.OE-03

3.0E-03

3.05-03

3.01-03

3.0E-03

3.0E-03

2.46-0

2.48-04

2.45-04

2.49-04

S12

3.5E-0

3.51-04

3.3F-4

3.39-04

3.3E-04

3.3E-04

3.1E-04

3. 1E-04

3.11-04

3.0r-04

3.0n-04

2.35-04

I.9E-04

1.95-04

.1-04

1.1ES.3E-05

1.21-05

7.85-OS

7.RE-O

4.95-

2.6R-04

2.6B-4

2.6114M

2.6E-04

Aql *q2

1.6n-05

1.65-Os

I .6R-05

1.6n-OS

1.6E5OS

1.6E-05

1.6E-OS

1.65-OS

1.615-O

I.611-05

1.61t-ns

1.6F.-OS

1.613-OS

1.6E5OS

1.2E-05

1.2E-05

1.2E-OS

1.211-0

1.2e-05

1.2E-05

1.2E-05

9.5E-7

9.51-07

9.49-07

9.5R-07

AC

5.46-09

5.219-09

5.28-09

5.2E-09

S.2E- 5.2E-09

4.9E-09

4.9.-09

4.411-09

4.7n-M

4.7P.09

4.4R-09

3.0E-09

2.9E-9

1.3E-09

1.2E-09

9.7F-10

9.6R-10

9. 15-10

9.1E-10

5.7E-10

2.5E-10

2.SR-10

2.55- 10

2.SE-10

| |v* *r :H ~~~ ~~~ ~~~ ~~~ ~~~ ~~~ ~~~ ~~~ ~~~~~it~~~~~~ ~~ i O'e-' -*S .' :s.'eiP' *'8 '/Eq q~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~

~ , ,- *1 -: ,*
EFFECTIVE RENEWAL INTERVAL 72 MONTHS

DETECTION INTERVAL = I MONTH

Pant B TIROALEX - MOD 1 / 72 MO. / 1 MO.

23-oct-89 TOP SINGLE CONTRIBUTORS

10:35 AM

Total & C- 7.71-07

Rank Component Name &ql Si AC

I ACP-DGN-FS-D013 3.9E-03 2.6E-O5 l.OE-07

2 ACP-DGN-FR-DW13 3.9E-03 2.6E-OS 1.013-07

3 SSW-MDP-FS-CM 1.2E-03 7.7E-05 9.3E-08

4 ACP-DGN-FR-DWII 3.913-03 I.9E-OS 7.4E-08

5 ACP-DWN-FR-DG12 3.9E-03 I.9E-OS 7.4E-08

6 ACP-WIlN rS D012 3.D1.03 l.OR-OS 7,4R-O3

7 ACP-DGN-PS-W1II 3.9E-03 1.91E-OS 7.4E-08

8 ACP-DGS-FS*-CM 3.913-03 1.2E-C'5 4.6E-08

9 SSW-MDP-FS-MDP2C 1.2E-03 1.E-05 2.1E-08

10 RCI-TDP-FR-TDPI 3.OE-03 6.4E-06 I.9E-08

II RCI-TDP-FS-TDPI 3.0E^-03 6.3E-06 1.9E-OS

12 SSW-MflP-FS-MDPl8 1.213-03 1.2E-05 1.51-S08

13 SSW-MDP-FS-MDPIA 1.2E-03 1.2E-05 1.5K-OS

14 SSW-MDP-FR-MDP2C 1.2E-03 1. IE-OS 1.3E-08

lS SSW-MDP-FR-MDPIA 1.2E-03 7.2E-0 8.7E-09

16 SSW-MDP-FR-MDPIB 1.2E-03 7.2E-06 8.7E-09

17 EHV-FAN-FR-77C02 2.3E-04 8.9E-06 2.0E-09

I8 EIIV-FAN-PS-77C02 2.313-04 8.9E-06 2.0E-09

19 FHV-I'AN-PS-77C1A 2.31e-04 S.13-06 1.29-09

20 EHV-FAN-PS-77CI 2.31-04 5.113-0 1.2E-09

21 EHV-FAN-FR-77CIB 2.3E-04 S.lE-06 1.2E-09

22 EHV-FAN-FR-77CIA 2.3E-0 S. IE-06 1.2E-0
EsF Asd~~~~~--i a

EFFECTVE OVERHAUL INTERVAL =72 MONTHS

EFFECTIVE SURVEILLANCE INTMVAL = I MONTH

i .. .. ...... .... .

Mnst B

23-Oct-39

10:36 AM

Totsl & C -

TROALEX - MOD I1 72 MO. I IMO.

FoP DOUBLE CONMWUOS

1.1E-07

Rank

2

3

4

5

6

7

9

tO

I1

12

13

14

15

16

17

is

19

20

21

22

23

24

25

Component Name

ACP-DON-FS-D013

ACP-DON-FS-DO 13

ACP-DON-FS-D013

ACP-DON-FS-DO12

ACP-DON-FS-DO 13

ACP-DON-FS-DO II

ACP-DGN-FR-DO 13

ACP-DGN-PR-D 13

ACP-DaN-FS-DI I

ACP-DON-PS-DO 12

ACP-DON-FS-DOI I

ACP-DGN-FR-D0 I

ACP-DON-FS-DO13

ACP-DOS-FS-CM

RCl-TDP-FR-TDPl

RCI-TDP-FR-TDPI

ACP-DGN-FS-DG13

ACP-DON-FS-DOI I

ACP-DGN-FS-DG 13

ACP-iXGN-FS-DG 13

ACP-DGN-FS-DW12

ACP-DGN-FR-DO13

RCI-TDP-FR-TDPI

SSW-MDP-FS-CM

ACP-DON-FS-DG12

ql

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9Q-03

3.9E-03

3.9E-03

.3.96-03

3.9F-03

3.9E-03

3.9E-03

3.96-03

3.9E-03

3.9£-03

3.0E-03

3.9E-03

3.9E-03

3.9E- 03

3.9E-03

3.9E-03

3.9E-03

3.56-03

3.0E-03

1.2E-03

3.9E-03

Component Name

ACP-DON-FS-0012

ACP-DON-FS-DW I

ACP-DON-FR-DO 12

ACP-DON-FR-DO13

ACP-DON-FR-D It

ACP-DON-FR-D3 13

ACP-DXN-PR-DO 12

ACP-DON-PR-fO I

ACP-DON-FS-DW12

ACP-DGN-FR-DO I I

ACP-DON-FR-D012

ACP-DUN-FR-D012

ACP-DOS-PS-CM

ACP-DON-FR-DO13

ACP-DGN-FS-D013

ACP-DON-PR-DO 13

RCI-TDP-FS-TDPI

SSW-MDP-FS-MDnC

SSW-MDP-FS-Mt)PI B

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDP2C

RCI-TDP-FS-TDPI

SSW-MDP-FS-CM

RCI-TDP-FS-TDPI

SSW-MDP-FS-MDPIA

Aq2 -

3.9£-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9E-03

3.9R-03

3.9E-03

3.9E-03

3.9£-03

3.9E-03

3.9£-03

3.9E-03

3.9E-03

3.0E-03

1.2E-03

1.2E-03

1.2E-03

1.2E-03

3.0E-03

1.2E-03

3.0E-03

1.2E-03

812

3.5E-S

3.S-4

3.3E-44

3.3E-04

3.3E-04

3.3E-04

3.1-041

3.16-04

3.1E-04

3.06-04

3.06-04

2.36-04

1.9-04

I.9E-04

1.3E-04

1.2E-04

1.IE-04

2.6E-04

2.6E-04

.6E-04

2.6E-04

.IE-04

3.2E-4

3.2E-04

2.4E-04

Aql Aq2

1.6E-05

I.6-

1.6E-OS

1.6E-OS

1.6E6-0

1.6E-05

1.69-S

1.61-05

1.6A-05

1.6E-05

1.6E-05

1.6R-05

1.6E-0S

1.6E-05

1.2E-0O

1.2E-05

1.2E-05

4.7E-06

4.7E-06

4.7E-06

4.76-06

1.2E-0S

3.6E-0

3.6E-06

4.7E-06

AC

S.4-09

5.4E-0Q

5.2E-09

5.2E-0

5.2E-09

5.2E-0

4.9E-09

4.9R-0

4.#E-09

4.7E-09

4.76-09

4.4B-09

3.0E-9

2.9E-09

1.S6-09

1.4E-09

1.3E-09

1.2£-09

1.2E-09

1.2E-W

1.2-09

1.2E-09

1.IE-09

1.IE-09

I.IE-9

I

. _ . ... .. _ _ _ _

fI
EFFECTIVE OVERHAUL INTERVAL 72 MONTHS (

EFFECTIVE SURVEILLANCE INTERVAL 1 MONTH

Plant D TIRGALEX MOD 21 72 MO. / 1 MO.

23-Oct-k TOP SINGLE CONTRIBUrORS

10:38 AM

Toal aC 7.OE-07 I'1

Rank Component Name *ql Si C

I ACP-LKN PS-D013 4.4E-03 2.601-05 L.1-07

2 ACP-DWN-FR-DW13 4.4E-03 2.6E-05 1.10-07

3 ACP-DGN-FR-DG1I 4.4E-03 1.9E-05 8.2i08-0

4 ACP-DWN-FS-DW12 4.4E-03 1.9E-05 8.2E-08

5 ACP-DWN-FR-DG12 4.4E-03 1.9E-0S 8.2E-OS

6 ACP-DGN-FS-DGI I 4.4E-03 1.9E-05 8.2E-08

7 ACP-DOS-rS-CM 3.9E-03 1.2E-05 4.6E-OS 4

8 SSW-MDP-FS-CM 3.3E-04 7.7E-05 2.S£-08

9 RCI-TDP-FR-TDPI 3.0E-03 6.4E-06 1.9E-0O

10 RCI-TDP-FS-TDPI 3.0E-03 6.3E-06 1.9£-08

11 SSW-MDP-FS-MDP2C 3.3E-04 1.8E-0S 5.1E-09

12 SSW-MDP-FS-MDPIB 3.3F-04 1.2E-05 4.0-09

13 SSW-MDP-FS-MDPIA 3.3E-04 1.2E-O5 4.08-9,

14 SSW-MDP-FR-MDP2C 3.3E-04 1.IE-05 3.6E-O9

15 SSW-MDP-FR-MDPIA 3.3E-04 7.2E-06 2.42-09

10 SSW-MDI'-FR-MDPIB 1.3E-04 7.2E-06 2.4E-09

17 EHV-FAN-FR-77C02 2.3E-4 8.9E-06 2.0E- .

I8 EHV-FAN-FS-77C02 2.3E-04 8.9E-06 2.0E-09 -.4.

19 EI4V-FAN-FS-77CIA 2.3E-04 S.E-06 1.22.-09

20 EHV-FAN-FS-77C1B 2.3E-04 5.1E-06 1.2E-9,

21 EHV-FAN*FR-77C10 2.3E-04 5.1 -6 1.28-09

22 KHV-t'AN-PR-77C1A 2.3H-U 5.10-06 1.20-09
IEAFCTIVE OVERHAUL [N' RVAL =72 MONTHS l

EFFECTIVE SURVEILANCE INTERVAL = 1 MONTH

Plat B 7MOALE - MOD 2/72 M . I I MO. ,f

TOP DOUBLE CONTRIUTORS

'-10:39 AM

Total AC- 1.12ERank Ctimponent Name Aql Componnt Name a q2 S12 Aql *q2 AC

I ACP-DON-FS-DW13 4.4E-03 ACP-D(3N-PS-D012 4.4e-03 3.5-f0 I.9E-0 6.72-09 '

2 ACP-DON-FS-DW13 4.4E-03 ACP-DWO-PS-DO11 4.4E-03 3.5E- 1.9E-05 6.7B-09

3 ACP-DON-FS-Do 13 4.4E-03 ACI'-DON-FR-D012 4.4E-03 3.3E-04 l.9E-05 6.4E-09

4 ACP-DGN-FS-D012 4.4E-03 ACP-DGN-FR-fl013 4.4E-03 3.3E-04 1.9E-05 6.4E-09

S ACP-DGN-FS-DG11 4.4E-03 ACP-DMt.= :Rt-W13 4.4E-03 3.3E-04 I.9E-03 6.4E0-

6 ACP-DON-FS-D013 4.4E-03 AC> :YN * ,-DO11 4.4E-03 3.3E-04 1.9ES 6.4E2-0

, 7 ACP-DON-PR-DW13 4.4E-03 A.-L t'.-' FR-DW12 4.4E-3 3.1E-04 l.9E-05 6.0E-09

n 11 ACP-DON-PR-DW13 4 4E-03 AL P 0( ;'-FR-DGll 4.4E-03 3.1E-04 1.9E-05 6.0E-09 ;

9 ACP-DON-FS-DGII 4.4E-03 ACP-DON-FS-D012 4.42-03 3.1E-04 1.9S-03 6.0E-09

10 ACP-DON-FS-DG 12 4.4E-03 ACP-DON-r-R-DI I 4.4£-03 3.0E-04 I.9S-05 5.2-09m

1 1 ACP-DON-FS-DCI I 4.4E-03 ACP-DON-FR-D012 4.42-03 3.0E-04 1.92-05 5.8-09

12 ACP-DGN-FR-DGI I 4.4E-03 ACP-DGN-FR-0012 4.4R-03 2.RE-04 1.92-OS 5.4B-0

13 ACP-DCN-FS-DO13 4.4E-03 ACP-DOS-rS-CM 3.94-03 1.9-0 1.72-05 3.32-09

14 ACP-D(S-FS-CM 3.9E-03 ACP-DON PR-DW13 4.4E-03 I.9E-04 1.7£-05 3.2E-9W

IS RCI-TDP-FR-TDPI 3.0E-03 ACP-DWN-PS-DM13 4.4H-03 1.3-4 1.3B-05 1.7E-09

16 RCI-TDP-FR-TDPI 3.0P-03 ACP-DON-FR-D13 4.48-03 1.2B-4 1.32-0 1.52-09 .

17 ACP-DCJN-FS-D 13 4.4E-03 RCI-TDP-PS-TDPI 3.0E-03 1. 1-04 1.32-05 1.5P.9

18 ACP-tbN-FR-D013 4.4E-03 RCt-TDP-PS-TDPI 3.0E-3 1.IE-04 1.32-05 1.4-09-

19 RCI-TDP-FR-TDPI 3.0F-03 ACPW-DCN-PS-D1l2 4.48-03 9.6R-05 1.36-05 1.2E-9M

20 RCI-TDP-PR-TDP1 3.02-03 ACP-DCN-P's-Dt Il 4.4R-03 9.62-05 1.39-03 1.21-OP

21 RtCI-TDP-PR-TDPI 3.0E-03 ACP-DON-FR-D012 4.42-03 8.7E-05 1.3E-05 1. 12-O9

22 RCI-TDP-FR-TDPI 3.0E-03 ACP-DON-FR-DOII 4.48-03 1.7E-05 1.3F-05 l.1E-0

23 ACP-DON-PS-DW12 4.4E-03 RCI-TDP-PS-TDPI 3.0E-0 3.3fl-05 1.32-05 1.1I-E r

24 ACP-DON-PS-DOI I 4.4E-03 RCI-TDP-PS-TDPI 3.013-03 8.2E-05 1.36-05 L.I2-09

25 ACP-DON-PR-DOI I 4.41-01 RCI-TDP-PS-TDPI 3.0R-03 7.21-05 1.38-0 1.02-09

w . - Ps~~~~~~~~~~~~~~~~~
EFFECTIVE OVERHAUL INTERVAL -72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL 1 MONTH

afla n l'IR(l;A,lIX 

- MOD 3 / 72 MO. I I MO.

23-Oct-89 TOP SINGLE CONTREBUTORS 

r

11:18 AM

Total AC 

- 3.2-W06

Rank Compoecat Name Aql Si AC

I SSW-MDP-FS-CM 1. IE-02 7.7E-05 8.4E-07

2 ACP-DON-FS-DO13 I.lE-02 2.6-05 2.9B-07

3 ACP-DON-FR-DG13 1.IE-02 2.6E-OS 2.SE-07

4 ACP-DGN-FR-DGII 1.IE-02 1.9E-05 2.lE-07

5 ACP-DON-FR-DG12 I.IE-02 1.9E-05 2.1E-07

6 ACP-DGN-FS-DG12 I.IE-02 1.9E-OS 2.1E-07 

V

7 ACP-DGN-FS-DOII 1.1E-02 1.9E-05 2 -E-07

8 SSW-MDPFS-MDP2C 1.1-02 1.8E-05 1.OI-01

9 SSW-MDP-FS MDPlB 1.IE-02 1.2E-OS 1.3K-07

10 SSW-MDP-FS-MDPIA l.IE-02 1.2E-OS 1.3E-07

II ACP-DOS-FS-CM 1.1R-07. 172R-05 O L.I-07

12 SSW-MDP-FR-MDP2C l.IE-02 1.IE-OS 1.2E-07

13 SSW-MDP-FR-MDPIB 1. IE-02 7.2E-6 7.92-08

14 sSW-MDP-Fk-MDPIA 1.18-02 7.2E-06 7.9e-08 

K

IS RCI-TDP-FR-TDPI 1. IF,-02 6.4E-06 7.0E-08 

-

16 Rc -TOP-r1.4-TDl 1.11'-02 6.38-06 6.9-08;

17 EHV-FAN-FR-77C02 2.3E-04 8.9E-06 2.0E-094

It rIiIV-FAN-FS-77C02 2.31-4 5.92-06 2.OP.-09

19 EHV-FAN-FS-77CIA 2.3E-04 5.IE-06 1.2E-09

20 EHV-FAN-FS-77C1B 2.sP,- 5.IE-06 1.2E-09

21 EHV-FAN-FR-77ClD 2.3E-0 S.IE-06 1.2E4-09

22 EHV-PAN-FR-77CIA 2.31-0 5.lE-6 1.2A-0
l4 ; ' &w

EFFECTI OVERHAUL INTERVAL = 72 MONTHS -r w-

, s.it I.

23-Oct-89

11:20 AM

TIRGAL3X 

- MOD 3 / 72 MO. / I MO.

TOP DOUDLE CONTRIBUTORS

Total % C - I.4E-06

I

-.

Rank234567A9

10

I1

12

13

14

2S

16

17

Is

19

20

21

22

23

24

25

Cmnont Name

ACP-DON-FS-MlT 

l

ACP-DGN-PS-tX3 13

ACP-DON-FS-DC 13

ACP-DON-FS-DO 12

ACP-DON-FS-D I 

I

ACP-DN-FS-DO 13

RCI-TDP-FR-TDPI

SSW-MDP-PS-CM

ACP-DON-FR-DO 13

ACP-DON-FR-D6 13

ACP-DGN-FS-D 

1

ACP-DON-FS-D0 I 

I

ACP-DGN-FS-DO 12

ACP-DGN-FR-D 1I1

ACP-DGN-PS-D 13

ACP-DON-PS-XI 13

ACP-DON-PS-DO12

ACP-DON-rS-DOI 

I

ACP-DOCN-PS-D 12

ACP-DON-FS-D0I 

I

ACP-DGN-FR-DO13

ACP-DGN-PR-r- ^13

ACP-DON-PS-DO 13

ACP-TN-PR-DO II

ACP-DON-FR-DO 12

,%ql

1, I 6-02

1. 1 -02

I. IE-02

1.IE-02

1.11-02

1. IE-02

1. IE-02

2.1-02

1. IE-02

.IE-02

1. E-02

1.IE-02

1. IE-02

1.1E-02

1.I6-02

1.6-0

1. 16-02

I.IE-02

1.IE1.IE-02

1.IE-02

1.1E1.IE-02

I.IE-02

1. IE-02

Compoeet Name

ACP-DN-FS-W 12

ACP-DON-FS-DOI 

I

ACP-DON-PR-DO 12

ACP-DON-FR-DO13

ACP-DON-FR-DW13

ACP-DWN-FR-DWI

SSW-MDP-FS-CM

RCI-TD1'-PS-TDP 

I

ACP-DON-FR-POI 

I

ACP-DON-PR-DO 12

ACP-DON-FS-DO12

ACP-IXN-FR-D012

ACP-DON-FR-DOI 

I

ACP-DON-FR-DO 12

sSW-MDP-PS-MDP1A

SSW-MDP-PS-MDPI 

F

SSW-MDP-FS-MDP2C

SSW-MDP-FS-Mt)P2C

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPI1

SSW-MDP-FS-MDPIB

SSW-MDP-PS-MDPI 

A

ACP-DOS-FS-Chl

SSW-MDP-PS-MDPID

SSW-MDP-FS-MDPIA

£ q2

2,JH-02

1.1 E-02

1. IE-02

I. IE-02

1. IE-02

1. IE-02

I. lE-02

1.1-02

1.16-02

1. 1 -02

1.1E-02

1. I -02

1.1E-02

1.1E-02

1. IE-02

I.IE-02

1.16-02

1.15-0

I.IE-02

1.1E-02

1.16-02

1.1IE-02

S12

3.58-04

3.5E-04

3.3E-04

3.3E-04

3.3E-04

3.3E-4

3.2E-N

3.26-04

3.1E-04

3.1E3.1E-04

3.0E-N

3.0E-0

2.#E-04

2,6-N04

2.6E-04

2.6E-4

2.6E-04

2.4E-04

2.4E-0

2.OE-04

2.0E-04

I.92-01

1.9E-04

1.9EAql q2

1.22-0

1.2-N04

1.2E-04

1.2E-4

1.2E-04

1.2E-04

1.2-44

1.2E-04

1.2E04

1.2£-04

1.2£-04

1.2E-04

1.2E-04

1.2-N4

1.26.4M

1.2E-4N

1.28-0

1.28-04

1.2E-4

1.2E-C4

1.2E-04

1.2P-04

1.2E-04

t.2E-04

1.2E-0

'sC

4.2E-M

4.26-Ot

4.0E-Ot

4.0E6-

4.OE-O

4.0EOS

3.96-03

3.9E-0

3.8F-OS

3.1E-OS

3.7E-OS

3.6e-0

3.6E-08

3.4E-O"

3. 1I-o

3. 6E-0

3. 1E-Ot

2A5E-01 2.56-03

2.45-OS

2.40-

2.3E-08

2.3E-OS

2 ?'E-0
CONTRIBUTORS FOR

PLANT B

EFFECTIVE OVERHAUL INTERVAL = 72 MONTIS

EFFECTIVE SURVEILLANCE INTERVAL = 6 MONTHS i

148
EFPFCTIVE OVERHAUL INTERVAL - 72 MONTHS

EFFECTIVE SURVEILLANCE INTERVAL = 6 MONTHS

Plnt E RO AL3X/ 72 MO. /6MO.

23-Oct-t9 TOP SINGLE CONTREBUTORS

10:22 AM

Total aC- 3.tE-06

Rank Component Name Aql St C

I ACP-DWN-rS-D013 2.4AE-2 2.6S-05 6.2E-07

2 ACP-DON-FR-DG13 2.4E-02 2.6E-05 6.1E-7

3 ACP-DON-FR-DO 1 2.4E-02 1 .9E-05 4.4E-07

4 ACP-DON-PS-DW12 2.4E-02 1.9E-05 4.4E-07

5 ACP-DGN-FR-DW12 2.4E-02 I.9E-OS 4.4E-07

6 ACP-DWN-FS-DWII 2.4E-02 1.9E-05 4.4E-07

7 ACP-DOS-PS-CM 2.48-02 1.2E-05 2.86-07

S RCI-TDP-FR-TDPI L.8E-02 6.4E-06 L.1E6-

9 RCI-TDP-FS-TDPI l.lE-02 6.3E-06 1. IE-0

10 SSW-MDP-FS-CM 1.4F-03 7.7P.-05 1.19-0

II SSW-MDP-FS-MDP2C 1.4E-03 1.8E-05 2.SE-08

12 SSW-MDP-PS-MDPIR 1.4E-03 1.2E-05 1.8E-OS

13 SSW-MDP-FS-MDPIA 1.4E-03 1.2E-OS 1.86E14 SSW-MDP-FR-MDP2C 1.4E-03 1.1E-OS 1.6E-Ot

1 5 EHV-FAN-FR-77C02 1.4E-03 8.9E-06 1.2E-S

16 EHV-FAN-FS-77C02 1.4E-03 8.9E-06 1.2E-08

17 SSW-MDP-FR-MDPIB 1.4E-03 7.2E-06 1.06-O

18 SSW-MDP-FR-MDPlA 1.4E-03 7.2E-06 L.OE-0

19 EHV-FAN-FS-77CIB 1.4E-03 5.1E-06 7.1E-Q9

20 EHV-FAN-FS-77C1A 1.46-03 5.1E-06 7.1E-09

21 EHV-FAN-FR-77C1D 1.4E-03 S.IE-06 7.1E-09

22 EHV-FAN-FR-77CIA 1.4R-03 5.1E-06 7.1E-09
FFE.CTIVE OVERHAUL INTRVAL = 72 MONTHS

EFFECTIVE SURVEILLANCE INThRVAL = 6 MONTHS

Plant B TIRGALEX /72 MO. / 6 MO.

23-Oct-19 TOP DOUBLE CONTrRIBUTORI

10:24 AM

Total A C - 2.9E-06

I,,

Rank

2

3

4

S

6

7

a

9

10

I11

12

!3

14

15

16

17

18

19

20

21

22

23

24

25

Componeot Name

ACP-DON-FS-DG 13

ACP-DGN-FS-DG 13

ACP-DON-PS-DO 13

ACP-DON-FS-DO 12

ACP-DGN-PS-D013

ACP-DGN-FS-D I I

ACP-DGN-FR-DO 13

ACP-DON-FR-DO 13

ACP-DGN-FS-D II

ACP-DGN-FS-D I I

ACP-DGN-FS-DG 12

ACP-DGN-FR-DG I i

ACP-DOiN-FS-DG 13

ACP-DWS-FS-CM

ACP-DON-PS-DO 13

ACP-DON IR-D 13

ACP-DitN-FS-DG 12

ACP-DGN-FS-DI I

ACP-DGN-FR-DG 12

ACP-DON-FR-DGI I

ACP-DOS-Pr cm

ACP-DGN-FS-DO 12

ACP-DON-FS-DO I I

ACP-DON-FS-D 13

ACP-DGN-FS-DG 13

&ql

2.4E-02

2.4E 02

2.4E 02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.41E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.413-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2 4E-02

2.4E-02

Compoocat Name

ACP-DON-PS-DO12

ACP-DON-FS-DI I

ACP-DON-FR-DO 12

ACP-DON-PR-DW13

ACP-DON-FR-DO I I

ACP-DON-FR-DO13

ACP-D0N-FR-0 1I

ACP-DON-fR-DO12

ACP-DON-FS-DO12

ACP-DGN-FR-D012

ACP-DGN-FR-DI 1

ACP-DON-FR-D 12

ACP-DOS-FS-CM

ACP-DON-FR-DW13

RCI-TDP-rS-TDPI

RCI-TnP-FS-TDPI

RCI-TDP-PS-TDPI

RCI-TDP-FS-TDPI

A ,2

2.4E-02

2.4E-02

2.4E-02

2.4E3-02

2.4E-02

2.4E-02

2.411-02

2.4E2-2

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.43-02

I RF.-02

I .SF-02

1.8E-02

I.SE-02

I.SE-02

1.8E-02

1.8E-02

1.4E-03

1.4E-03

1.4E-03

1.4E-03

S12

3.5E-04

3.SE-04

3.3E-04

3.3 -04

3.3E-04

3.3E3-04

3.1E-04

3.1E-04

3.1E-04

3.02-04

3.02-04

2.tE-O4

I.9E-4

1.9F-04

1. I F-04

1. I E-04

8.3E-0S

8.2E-05

7.SE-0S

7.8E-05

4.9E-05

2.6E-04

2.6E-04

2.6E-04

2.6E-04

AqI Aq2

5.6E-04

5.6E-04

5.6E-0

5.6E-4

5.6E-04

5.6E-04

5.6E-04

5.61-04

5.6E-04

5.6E-04

5.6E-04

5.6E-04

5.6E-04

5.6R-04

4.2E-04

4.211-04

4.2E-0

4.2E-04

4.2E-04

4.22-04

4.2E-04

3.4E-05

3.4E-05

3.4E-05

3.4E-05

*C

2.0E-07

1.91-07

1.92-07

I.9,-0?

1.9E-07

1.913-0

1.811-07

1 .812-07

I.7E-07

1.7E-<7

1.1E-07

1.6E-07

1.I E-07

.or-07

4.7E-08

4.4E-OR

3.5E-08

3.5E-08

3.3E-0R

3.3E-0O

2.0E-03

4.812-09

8.8E-09

s.8E-09

3.8E-09

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

SSW-MDP-PS-MDP2C

SSW-MDP-FS-MDnC

SSW-MDP-FS-MDPIA

SSW-MDP-FS-MDPIB
EFFECTIVE OVERHAUL INRERVAL -72 MONTHS

?!TJCTrIEcr SURVUILLANC11 1NTERVAL -6 MONTHS

Ptant n TIRGALBX - MOD I / 72MO. / 6 MO.

21 -Oct-g TOP SINGLE CONTRMUTORS

10:25 AM

Total A C - 4.613b

RAnk Comrontnt Name Aql Sl AC

I ACP-D(GN-FS-DG13 2.4E-02 2.6E-05 6.2E-07

2 ACP-DGN-FR-DW13 2.4E-02 2.611-0 6.1E-07

3 RqW-MDP-FS-cM 7.2r-Ol 7.711-05 !1.0n-07

4 AC2P-DXN-FR-13It 2.4F.-02 1.9E1-S 4.4E-07

5 ACP-DGN-FR-D012 2.4E-02 1.913-05 4.4E-07

6 ACP-DON-FS-D012 2.4E-02 1.9E-05 4.4E-M

7 ACP-DGN-FS-DW11 2.4E-02 1.9E-0S 4.4E-7

- ACP-DOS-FS-CM 2.4E- 1.2E-05 2.E1-07

9 SSW-MDP-PS-MDP2C 7.2Ei-03 1.8E-05 1.3r%-07

In RC2I -TDP-rR-TDPI l.811- 6.41!- 1.1PRII RCI TOP-PS-TDPI 1.31-02 6.3E-06 1.1E-07

12 SSW-MDP-FS-MDPIB 7.2E-03 1.2E-0 3.IE-08

13 SSW-MDP-FS-MDPIA 7.2-03 1.2E-05 3.131-03

14 SSW-ML)P-FR-MDP2C 7.2F.-03 1.1I-OS 7,911-0

15 SSW-MDP-FR-MDPIA 7.2E-03 7.2E-0 5.2E-03

16 SSW-MDP-FR-MDPIB 7.2E-03 7.21f-i 5.2P.-0R

17 EIIV-PAN-FR-77C02 1.4R-03 A,*R0- 1,7lz-as

IN A1iv-PAN-PS-77C02 1.41f-03 3.93-06 1.211-0

19 ERV-PAN-FS-77C1A 1.43-03 S.E-06 7.1E-09

20 Env-rA'-rs-77C1B 1.4E-03 5.1-06 7.1E-09

21 EHV-FAN-FR-77C19 1.4E-03 5.1E-06 7. 1 -0

22 EHV-FAN-FR-77CIA 1.4E-3 S.1E-06 7.E-09
I

4

h E

:U

i

I

I

I

I

0.

e. ;

I

,.

I

.

'4

I

EFFECTWE OVERHAUL INERVAL = 72 MONTHS

EFFECTIVE SURVEILANCE DNTRVAL = 6 MONTHS

Plant B

230cl-O9

10:27 AM

Total AC -

TMGALX - MOD 1 I72 MO. / 6 MO.

TOP DOUBLE CONTRIBUTORS

4.0E-06

U'

Rank

2

3

4

5

6

7

8

9

10

I

12

13

14

15

17

is

19

20

21

22

23

24

25

Component Name

ACP-DWN-FS-DG 3

ACP-DGN-PS-D 13

ACP-DGN-PS-D013

ACP-DON-FS-DO 12

ACP-DON-FS-D 13

ACP-DGN-FS-DI I

ACP-DON-FR-DO 13

ACP-DGN-FR-DO 13

ACP-DCON-PS D11

ACP-DON-PS-DO 12

ACP-DON-FS-D1I I I

ACP-DON-FR-DO II

ACP-DON-FS-DO 13

ACP-DGS-FS-CM

RCI-TDP-FR-TDP I

RqCl 'TlW raR 1irI

ACP-WN-PS-DO 13

ACP-DON-FS-DI I

ACP-DON-PS-DO I1

ACP-DGN-FS-DG 13

ACP-DGN-FS-D 12

ACP-DON-FR-DO 13

RCI-TDP-FR-TDPI

SSW--MDP-FR CM

ACP-DON-FS-DG 12

A ql

2.4E-02

2.4E-02

2.4E-02

2.46-02

2.4E-02

2.43-02

2.4E-02

2.41-02

2.41I-02

2.45-02

2.4E-02

2.4E-02

2.4E-02

2.4E-02

1.8E-02

L.ift-02

2.4F-02

2.4E-02

2.41-02

2.4E-02

2.4E-02

2.4E-02

1.83-02

7,71-03

2.4R-02

Component Name

ACP-DGN-FS-DO12

ACP-DON-PS-DO I

ACP-DON-FR-Da12

ACP-DON-FR-DO13

ACP-DON-FR-DOI I

ACP-DON-FR-DO13

ACP-DON-FR-DO12

ACP-WGN-FR-01 I

ACP-WN-1'N-0012

ACP-DON-FR-DO II

ACP-DON-PR-DW 12

ACP-DON-PR-DO12

ACP-DOS-FS-CM

ACP-DON-FR-DW13

ACP-DON-FS-D 13

ACP-DON-rft-WlX

RCI-TDP-PS-TDPI

SSW-MDP-FS-MDP2C

SSW-MDP-PS-MDPID

SSW-MDP-FS-MDPIA

SSW-MDP-PS-MDP2C

RCI-TDP-FS-TDPI

SSW-MDP-FS-CM

RCI-TDP-1-q-TDPI

SSW-MDP-FS-MDPI A

* q2

2.4E-02

2.4E-02

2.4E-2

2.4E6-2

2.4E-02

2.4E-02

2.4E-02

2.4E-02

2.46-02

2.45-02

2.4E-02

2.4P.-02

2.4E-02

2.46-02

2.4E-02

2.41l-02

L.IE-02

7.2E-03

7.26-03

7.2E-03

7.2E-03

1.81-02

7.2E-03

I.1-02

7.2E-03

S12

3.5E-4

3.511-0

3.33-04

3.3E-0

3.38-04

3.3G-04

3.1K-04

3. 1E-O

3. 1-04

3,06-04

3.05-04

2.16-04

1.9E-04

.9E-04

1.3E-04

1.21i-04

1. -10-

2.6E-"

2.6-04

2.6E-04

2.6E-4

1.1I E3.2E-04

3.2t-04

2.4E-04

Aql*q2

5.61-04

S.6-0K4

S.66-E

5.6E-04

5.6E-04

5.6E-"

5.6E-04

3.6 -04

5.61-04

5.6E6-

S.6E-04

5.6E-04

4.2E-04

4.21-04

4.2E-0

1.7E-04

1.7E-04

1.71-04

1.7E-04

4.2E-04

1.3E-04

3.36-04

1.7E-0

Ac

2.0E-0

1.9E-07

1.9E-07

1.96-07

1.93-07

I.9E-07

1.lE-07

t.$E-07

1.7P.-07

1.71-07

1.7E-07

1.6E-07

1.IE-07

.OE-07

S.SE40

5.05-O4

4.76-08

4.4E-03

4.4B-0O

4.4E-08

4.41-08

4.4E-OS

4.1 E-OS

4.1R-01

4. IE-01

(il
EPPECTIVE OVERHAUL INI RVAL -72 MONTHS

EFFECTIVE SURVEILANCE INEMVAL = 6 MONTHS

ptB TRGALE - MOD 2 / 72 MO. 16 MO.

"23-Oct-3 TOP SDNLfl CONFRIUTORS

4 10:28 AM

Toftl A C 4.23-0

t gc Ronk CompwOemt Nm AqIt S AC

I ACP-DON-FS-DX13 2.69-02 2.6E-05 6.96-07

2 ACP-DON-FR-D013 2.6t-02 2.65-05 6.35-07

3 ACP-DON-FR-DWII 2.66-02 I.9-OS 4.9E-07

4 ACP-DON-PS-D012 2.6E-02 1.9E-0Q 4.9£-07

5 ACP-DUN-FR-D012 2.6E-2 1.9E05 4.993-0

6 ACP-DGIN-FS-D1II 2.6E-2 l.sE-05 4.9E-7

gr * w7 ACP-DOS-FS-CM 2AE-2 1.2S-05 2.$E-07

s SSW-MDP-FS-CM 2.0S-03 7.7E-05 L.SE9 RCI-TDP-FR-TDPI 1.RE-O 6.48-06 1.1-0M

! 4 i. 10 RCI-TnP-Fq-TDPI 1.11t-02 6.3!f-06 1.15-m

I I SSW- MDP-Pa-MDP2C 2.03-03 1.IB-0 3.IS-0

12 SSW-MDP-PS-MDPIB 2.05-03 1.2E-0 2.46

13 SSW-MDP-FS-MDPIA 2.0S-03 1.2E-0 2.4E6-0

I t SSW-MDP-FR-MDnC 2.OE-03 1.IE-05 2.2E-01

15 SSW-MDP-FR-MDPIA 2.05-03 7.2E-0 1.4-0

16 SSW-MDP-PR-MDPI8 2.0R-M 7.2n-M I-.4N

17 IItV-PAN-PR-77C02 1.431-03 I.AR-0 1.23.0

13 EHV-FAN-PS-77CO2 1.4E-03 3.9E-0 1.2E-08

19 EHV-FAN-PS-77CIA .4-0 5.1E-0 7.1E20 EHV-PAN-PS-77CIB 1.4-03 5.16-M 7.1t-0

21 EHV-FAN-FR-77CIB I.4E-03 5.16-06 7.1A22 EHV-FAN-FR-77C1A 1.4B-0 5.1i-0 7.19-0

Xj~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~6

-.4.' .
mm~

tkFI

I

fII

1,

i

I..

I

I'

I

EFPECTIVE OVERHAUL INTERVAL -72 MONTHS

EFFECTV SURVEUIANCEINERVAL -6 MONTHS

Pl=t B

23-Oct-89

10:29 AM

Total *CTIROALX-MOD2/ 72MO.16MO.

TOP DOUBLE CONTRIBUTORS

3.913-06

Rank

1

2

3

4

5

6

7

8

9

30

I 1

12

13

-, 14

IS

lb

17

18

Componont N we

ACP-DGN-FS-DG13

ACP-DON-PS-DO13

ACP-DON-PS-DO 13

ACP-DGN-FS-DO 12

ACP-DON-FS-DO I I

ACP-DON-FS-DO 13

ACP-DWN-FR-DW 13

ACP-DON-FR-DG 13

ACP-MN-FS-DO I I

ACP-C1N-oP8iC 32

ACP-DON-FS-DO I I

ACP-DON-FR-DO I I

ACP-DGN-FS-DG 13

ACP-DGS-FS-CM

RCI-TDP-FR-TDPI

RCI-TDP-PR-TDPI

ACP-DON-FS-DO13

ACP-DGN-FR-DG13

aql

2.6o-02

2.6E-02

2.6r- 02

2.6E-02

2.61r-02

2.6E-02

2.6E-02

2.6E-02

2.6F-02

2.6P-02

2.6E-02

2.6E-02

2.6E-02

2.4E-02

I.8E-02

1.R3-02

2.61-02

2.6E-02

1.8E-02

1.8E-02

I .3R-02

1.82-02

2.6E-02

2.6E-02

2.6E-02

Compooeot Name

ACP-DON-PS-DO12

ACP-DON-PS-DI I

ACP-DON-FR-D012

ACP-DON-FR-D013

ACP-DON-FR-DO13

ACP-DON-FR-DOI

ACP-DON-FR-D012

ACP-DON-FR-DOI I

ACP-DON-FS-DO12

ACP-DON-VR-130I 1

ACP-DON-FR-DO 12

ACP-DON-FR-DO 12

ACP-DOS-FS-CM

ACP-DON-FR-DW13

ACP-DON-FS-DO 13

ACP-DON-PR-DO13

RCI-TDP-FS-TDPI

RCI-TDP-PS-TDPI

ACP-DON-FS-DG12

ACP-DON-PS-DO11

ACP-DON-PR-DO 12

ACP-DON-FR-DO I I

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

RCI-TDP-FS-TDPI

Aq2

2.62-02

2.6e-02

2.66-02

2.6E-02

2.6E-02

2.62-02

2.6r ^'.

2.61i-02

2.62-02

2.6f-02

2.uE-02

2.6E-02

2.4E-02

2.6E-02

2.6E-02

2.6E-02

1.tE-02

1.52-02

2.6E-02

2.6E-02

2.68-02

2.62-02

II3-02

.tE-02

1.SE-02

S12

3.Sg-"

3.5E-04

3.38-04

3.3E-04

3.3E-04

3.3E-04

3.1-4K

3. 1E-04

3. 1 -4

3.01L-0

3.0Z-04

2.31-04

1.9E-04

1.9E-04

1.3E-04

1.28-0

1.11I-04

1. IE-04

9.6E-05

9.6E-OS

*.71-05

3.70-0

3.32-0S

t.2E-05

7.18-05

*q1 &q2

6.9E-0

6.9E-04

6.99-04

6.9E-04

6.9E-04

6.9E-04

6.91-04

6.91-04

6.92-04

6.9R-O4

6.9E-04

6.9E-04

6.2E-04

6.2E-04

4.7E-04

4.72-04

4.7E-04

4.7E-04

4.7E-04

4.7E-04

4.76-04

4.71-04

4.7E-04

4.7E-4

4.79-4

AC

2.42-07

2.41-07

2.32-07

2.30-07

2.3E-07

2.31-07

2.26-07

2.2E-07

2.16-07

2. 1 r-07

2.12-07

1.9E-07

1.2E-07

1.2E-07

6. 1E-0O

S.S-08

5.3E-Ot

4.9E-03

4.5-OSE

4.SE-0I

4.16-01

4. 1 -08

3.91-03

3.E-08

3.78-08

,.

19 RCI-TDP-FR-TDPI

20

21

22

23

24

25

RCI-TDP-FR-TDPI

RCI-TDP-FR-TDPI

RCI-TDP-PR-TDP I

ACP-DON-PS-DO 12

ACP-DON-FS-DI 1

ACP-DON-FR-DO I I

.MA .

qwww VINZIN", .4.

~~~~~ .~~~~~~~~~~~~' ~ ~ ~ ~ ~ ~ ~ ~ ~ ""
EPFECTIVE OVERHAUL IN'ERVAL -72 MONTHS

EFFECTIVE SURVE -LANCE INTRVAL s-6 MONTHS

Plant B TIRGA X - MOD 3 / 72 MO. / 6 MO.

23-Oct-89 TOP SINGLE CONTRIBUTORS

10:31 AM

Total &CC 1.91-05

Renvi Compnnwnt Name *ql 8 AC

I SSW-MI)P-Fs-CM 6.6R1-02 7.71-05 S.08-

2 ACP-DN-PS-wDl3 6.68-02 2.MR-05 1.78-06

3 ACP-DWN-PR-DW13 6.6P-02 2.681-05 1,71-06

4 ACP-DON-FR-DGII 6.6R-2 1.9-03 1.2-06

. ACP-DON-FR-D012 6.8-02 1.98-05 1.2B-06

6 ACP-DON-FS-DO12 6.6E-0 1.98-05 1.2E-06

7 ACP-DQN-FS-DO I I 6.6E-02 1.91-05 1.213-06

A SqW-MrP-Fq-MDP7C 6.6n-2 1.LR-05 1.2P8-06

q ~~~~~~~~~~~~~~~9 1.41w-hitir r-P.1Mbplh imn-m2 1.1-0.4 I* fe

0 WSW-MDP-F5-MDPlA 6.6E-02 1.21-05 6.011-07

I I ACP-DOS-FS-CM 6.6E-02 1.2E-05 7.7E-07

12 SSW-MDP-PR-MDP2C 6.61E-02 .1e-OS 7.2Z-07

13 SSW-MDP-FR-MDPIB 6.68-02 7.2E-0 4.7-07

14 SSW-MDP-FR-MDPIA 6.6E-02 7.2E-06 4.7E-07

I 5 RCI-TDP-FR-TDPI 6.611-02 6.4E-06 4.2E-07 F. 16 RCI-TDP-PS-TDPI 6.61-02 6.3R-0b 4.28-07

17 EHV-FAN-FR-77C02 1.4E-03 3.91-06 1.2E-0

I S EHV-FAN-FS-77C02 1.4E-03 8.9E-06 1.2E-oR

19 EHV-FAN-FS-77C1A 1.4E-03 5.1E-06 7.1E-09

20 EHV-FAN-FS-77CIB 1.4E-03 5.IE-06 7.1E-09

21 EHV-FAN-FR-77CIB 1.4E-03 5.1E-06 7.1E-09

22 EHV-FAN-FR-77CIA 1.41i-03 5.18-06 7.1E1-0

Ii,

9 , 6 - ,4m ~ - -:,L Amodah _ _ k .@: . _A- .c L -tws_ -._ .- ""-S~ - ., , . .- -i 2 i -/ - . 1. -, - , --- . -..

sw,i
F.

I'

i

A

!1 -

EFPECITVE OVERHAUL INRVAL = 72 MONTHS

EPFECTIVE SURVEILLANCE INTERVAL = 6 MONTHS

Plant B

23-Oct-89

10:32 AM

TIRGAE - MOD 3172 MO. 16 M0.

TOP DOUBLE CONTRUTORS

Total C.- S.IE-05

i

r

v .

Rank

I

2

3

4

5

6

8

9

10

I

12

13

14

15

16

17

is

19

20

21

22

23

24

25

Component Name

ACP-DGN-FS-DGI3

ACP-nMN-FS-a 13

ACP-DGN-FS-DO 13

ACP-DON-FS-DG 12

ACP-DGN-FS-DGI I

ACP-DGN-FS-D 13

RCI-TDP-PR-TDPI

SSW-MDP-FS-CM

ACP-DON-FR-D 13

ACP-DON-FR-DO 13

ACP-DON-FS-DOI I

ACP-DGN-FS-POC I I

ACP-DGN-FS-DG 12

ACP-DGN-FR-DOI I

ACP-DGN-FS-DOI3

ACP-DON-FS-D 13

ACP-DGN-FS-D 12

ACP-DWN-FS-DWI I

ACP-DGN-FS-DG12

ACP-DON-FS-Dl I

ACP-DON-PR-DO 13

ACP- DON-FR-DO13

ACP-DGN-FS-DG 13

ACP-DON- FR-DW! I

ACP-DGN-FR-D 12

*ql

6.6E-02

6.6r-02

6.6E-02

6.6E-02

6.6E-02

6.6F- r!

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6F-02.

6.6E-02

6.6E-02

6.6E-0?,

6.6E-02

6.6E-02

Componant Name

ACP-DGN-FS--D12

ACP-DC1N-PR-D(I I

ACP-DON-PR-D012

ACP-DON-FR-D 13

ACP-DON-FR-DG13

ACP-DON-FR-DO I I

SSW-MDP-pS-CM

RCI-TDP-PS-TDP I

ACP-DWN-FR-DGI I

ACP-DON-PR-DO 12

ACP-DON-PS-D 12

ACP-DON-FR-DO12

ACP-DGN-FR-D l1

ACP-DON-PR-DO12

SSW-MDP-PS-MDPIA

SSW-MDP-PS-MDPIB

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDP2C

SSW-MDP-FS-MDPIA

SSW-MDP-PS-MlDP1lR

SSW-MDP-PS-MDPIB

SSW-MDP-FS-MDPI A

ACP-DOS-FS-CM

SSW-MDP-FS-MDPI8

SSW-MDP-PS-MDPIA

A q2

6.6E-02

A.R-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.69-02

6.66-02

6.6E-02

6.68-02

6.6E-02

6.6E8-M

6.66-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6E-02

6.6-M02

6.68-02

6.6E-02

6.6E-02

6.68-02

6.6E-02

812

3.5U-0

3.58-04

3.3h-04

3.3E- 04

3.3E-04

3.3E-0

3.26-04

3.26-04

3. 1E-04

3.1e-04

3.1E-04

3.0E-04

3.OE-04

2.8-04

2.6E-04

2.6E-04

2.6E-04

2.6E-04

2.4E-04

2.40-04

2.0e-04

2.0f-i

1.98-04

1.98-04

1.95-04

*ql &q2

4.3E-03

4.3JI-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.38i-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.3E-3

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.3E-03

4.31i-03

4.3e-03

4.3E-03

4.3E-03

4.38-03

4.3E-03

*C

1.5E-06

2.511-

1.4E-06

1.4E-06

1.4E-06

1.4E-06

1.41-06

I.4E-06

I .4E-06

1.40-06

1.3E-06

1.3E8-6

1.3E{-

1.2E-06

1. IE-06

1.IE-06

1.IE-06

LIE-06

I.OE-06

1.011-0

8.58-07

.SE-07

8.2E-07

1.2E-07

8.25-07

.t~~~~~~~~~~~~~~~~~~~~~~~~IA. j: v wp - 1" icOO6"" ,tW6 'L -'j ' " - 4 ,  ' 440.4,4; 'I'.-
lo. VARIABILITY AND UNCERTAI!TY RESULIS FOR PLANT A (TIlE

PWR)

Thc pages which follow give the distributions of coxt melt frequency increases for Plant

A, the PWR, using the ranges assigned to the senitivity importance) coefficients, aging

rate data, overhaul intervals, and surveillance intervals. The aging maintenance program

characterizations which are evaluated are: overhaul only intervals in the range between

12-120 months, overhaul only intervals in theTIRGALEX ranges, and overhaul intervals

between 12420 months with additional surveimnce intervals between 1.12 months.

These ranges were previously described in Secion 7.

For each maintenance program dcaracterizatimo a table is first presented of the

probability that the core melt frequency increase is larger than a given value. This

probability is called the complementary cumlative distribution function (CCDF). The

table thus gives the probability (the CCDF percentiles) that the core Lelt frequency

increase is larger than given values. The table gives the CCDF probabilities at 4%

increments for the TIRGALEX, MODI, and MOD2 aging rat data bases that were used

for the uncertainty evaluations.

F

After the table, curves are given of the CCDFprobability values versus the log of the

core melt frequency increase. The curves show the ingles contribution from single

component aging effects, the doubles contribution from double component aging effects,

and the ttl contribution to the core melt frequency increase. The discussions below

higblight features of the distribution results; tht tables and curves follow these

discussions.

12-120 Month Overhauls Only

The distribution results are similar for the TIRGALEX, MODI, and MOD2 data. The

distributions show that the core melt frequency increase generally lies between 3-04 and

3-03 (the approximate 90% and 10% values). Tbere is a greater than a 30% probability

that the core melt frequency increase is greater than 1-03, and hence in this regard there

is a substantial tail on the distribution. This substantia! tail comes from the possibility of

having longer overhaul intervals iii the upper end of the range of 12 to 120 months. The

singles and doubles contributions show that the double component aging effects

gererally dcminate.

TIRGALEX Overhaul Interval Ranges

For TIRGALEX, MODI, and MOD2, the distributiors are similar and show that the core

melt frequency increases lie in the range of 14 to 1-03 (the approximate 90% and 10%

values) The probability of the core melt frequeazy ia:rease being above 1-03 is

approxim3tely 10%. This tail probability is due to the possibility of having larger

overhaul intervals (c.g. for diesels and check valves) as allowed by the TIRGALEX

157
t V I . .

rangea Tbe contributkes fmm double ca ponent aging effects dominate the

distributions.

-J12-120 1!Zlth Overhauls and 1-12 Montk Surveillances

For IRGALEI, MODI, and MOD2 the Estributions are again similar. The core melt

frequency increases however, now genera!ly lie in the range of 3-06 to 1-05, the

approximate 90% and lWv, values The p-aability of the core melt frequency increase

being above 1-05 is approximately 10%. Aging maintenance programs conforming td

the 12-120 month overhaul and 1-12 mord surveillance range produce core melt

frequency increases which are lower by aproximately a factor of 100 for all distribution

values as compared to programs characteri.ed by 12-120 month overhaul only intervals

or by the TlRGALEXnnges.

158
i

I

I

I.

I

ir

v.

:t

I

Ir..

4.f

.It

"St at,*

PLANT A

_;FFECTIVE OVERHAUL INTERVAL = 12 - 120 MO.

COMLEMNIARY CUMULATIVE VALUES

PERCENTAGE

94%

90%

86%

82%

78%

74%

70%

66%

62%

58%

54%

50%

46%

42%

38%

34%

30%

26%

22%

18%

14%

10%

6%

IRGALEX

2.6E-04

2.9E-04

3.2E-04

3.6E-4

3.9E-04

4.2E-4

4.6E-04

4.9E-P04

S.SE-04

5.9E-t4

6.6E-04

7. 1E-04

7.7E-04

8.6E-4

9.5E-04

!. !E-03

I .2E-03

IE.3E-03

1.5E-03

1 .7E-03

2. IE-03

2.6E-03

3.6E-03

MOD I

2.6E-04

3.OE-04

3.3E-04

3.6E-04

4.OE-04

4.3E-04

4.7E-04

5.OE-04

5.5E-'04

6.1E-04

6.6E-04

7.2E-04

7.9E-04

8.7E-04

9.5E-04

I.IE-03

1.2E-03

1.3E-03

_-03

.-FO3

2. 1E-03

2.6E-03

3.7E-03

MOD2

2.OE-04

2.4E-04

2.7E-04

3.OE-04

3.3E-04

3.6E-04

3.9E-04

4.2E-04

4.5E-04

5.OE-04

5.SE-0

6. 1E-04

6.6E-{4

7.5E-04

8.4E-04

9.5E-04

1.lE-03

1.2E-03

i.3E-03

1.6E-03

!.9E-03

2.5E-03

3.7E-03

159
- . . -  ", 0-0 , .- . k , .. -tk ..? - 't " -'; " g i: - t i . :# is ---- - - '- I T--, ,

-t--W'11%-M.WwN" ON NNOINKA'ARNMOMM 1113MUNUMM

Plant A Core Melt Frequency Distribution

TIRGALEX / 12-120 months

100%

80%

34

60% C

C

Li)

F 40%

20%

0%

0%

-5 -4.5 -4 -3.5 -3 -2.5 .2

lO0 (Incronsei In Coro Molt Froquoncy)

-1.5 -1

. I . k

I I I

iI.I..

I .%f, : J. "I

f, i - - A.

A - I.W

I
.9 .t 0

Idlets M ui iivil. rrrquency Uistriuutiun

TIRGALEX-MOD1 / 12-120 months

100/" --

80%

60%

P"

C

C

D

F 40%

20%

0%

-5 -4.5 -4 -3.5 -3 -2.5 -2

LOG (Increase In Core Melt Frequency)

-1.5 -1

l A
Plant A Core Melt Frequency Distribution

TIRGALEX-MOD2 / 12-120 months

100%

80%

60% C

C

D

F 40%

20%

0% -

-5 -4.5 -4 -3.5 -3 -2.5 .2

LOG (Increase In Core Melt Frequency)

*1.5 S1

I
rLAN'l A

EFFBCTIVE OVERHAUL INTERV-L =TRGALEX RANGE

COMPLEMMWARY CUMULATIVE VAUES

PERCaNTAGE MRGAL MOD I MOD 2

94%

90%

86%

82%

74%

70%

66%

62%

58%

54%

50%

46%

42%

38%

34%

30%

26%

18%

14%

10%

6%

1.4E-04

L.SE-04

1.7E-04

I.9E-04

2.IE-04

2.2E-04

2.4E-04

2.6E-04

2.9E-04

3.0E-04

3.2E-04

3.5E-04

3.8E-04

4.OE-04

4.4E-04

4. PE-4

5.5E-04

6.2E-04

6.9E-04

8.2E-0

9.5E-04

1.2E-03

1.7E-03

j5E-O

1.7E-04

1.9E-04

2.OE-4

2.2E-04

2.4E-04

2.6E-04

2.8E-04

3.OE-04

3.2E-04

3.4E-04

3.E-04

3.9E-04

4.2E-04

4.5E-04

S.OE-04

S.6E-04

6.4E-4

7.1E-04

8.3E-04

9.7E-04

1.3E-03

1.8E-03

9.SE-4

l.lE-04

1.3E-04

1.4E-04

1.6E-04

1.7E-04

18E-04

2.OE-04

2.2E-^4

2.3E-04

2.5E-04

2.SE-04

3.OE-04

3.3E-04

3.6E-04

4.OE-0

4.4E-l4

S.IE-04

5.6E-04

6.4E-04

7.SE-N

L.IE-03

1.6E-03

;

I

I

I

I

i

163
Plant A Core Melt Frequency Distribqtion

TIRGALEX / TIRGALEX Range

100%

80%

60%

b.

C

C

D

P 40%

20%

0% '

-5 -4.5 -4 -3.5 -3 -2.5 -2

LOG (Increase In Core Melt Frequency)

-1.5 -1

^, BAL.,+ 0,
Plant A Core Melt Frequency Distribution

TIRGALEX-MOD1 / TIRGALEX Range

I

100%

80%

60% C

C

D

F 40%

20%

0%

-5 -4.5 -4 -3.5 -3 *2.5 02

LOG (Increase In Core Melt Frequency)

-1.5 e1

4 r. , , I.

I
Plant A Core Melt Frequency Distribution

TIRGALEX-MOD2 / TIRGALEX Range

100%

V,.,

W-IN. 80%

0~0~

C

C

D

F 40%

k. p.* 20%

0%

-5 -4.5 -4 -3.5 -3 -2.5 -2

LOG (increase In Core Melt Frequency)

-1.5 -1

e v:Avl 't N .

111. t "I ,I.Uq - 1 , ov .%M; v. "!"41. * ,nn".  '? . " 1 . 41 -J, i. '...71, - ;!X k . I
PLANT A

CTIVE 0VERHAUL INTERVAL = 12 - 120 MO.

EFFECTWE SUJRVEILL'CE IMVAL = I -1 MO.

COMWPLEMENTARY CUMUIATIVE VALUES

PERCENTAGE TIRGAWE MOD I MOD 2

94% 2.3E-06 2.3E-06 ILE-06

90% 2.6E-06 2.6E-06 2.OE-06

86% 2.SE-06 2.8E-06 22E-06

82% 3.OE-06 3.1E-06 24E-06

78% 3.3E-06 3.3E-06 2.6E-06

74% 3.5E-06 3.5E-06 17E-O6

70% 3.7E-06 3.7E-06 2.9E-06

66% 4.OE-06 3.SE-06 3.2E-06

62% 4.2E-06 4.OE-06 3.4E-06

58% 4.4E-06 4.3E-06 3.6E-06

54% 4.7E-06 4.5E-06 3.8E-06

50% 4.9E-06 4.8E-06 4.1E-06

46% 5.2E-06 5.OE-06 4.3E-06

42% 5.5E-06 5.3E-06 4.6E-06

38% 5.9E-06 5.7E-06 4.9E-06

34% 6.3E-06 6.E-06 5.2E-06

30% 6.6E-06 6.4E-06 5.6E-06

26% 7.2E-06 c.9E-06 .IE-06

22% 7.8E-06 7.5E-06 fe l-06

18% 8.7E-0 8.3E-06 7.7E-06

14% 9.7E-06 9.4E-06 1.9E-6

10% 1.IE-05 l.IE-05 .OE-05

6% 1.4E-05 1.4E-05 1.4E-05

167
Plant A Core Melt Frequency Distribution

TIRGALEX / 12-120 months

Test Range: 1-12 months

100%

80%

60%

C

D

F Asfno

s91.o0

20%

t

00/%

-7 -6.8 -6.6 -6.4 -6.2 -6 -5.8 -5.6 -5.4 -5.2 -5 -4.8 -4.6 -4.4 -4.2

LOG (Increase In Core Melt Frequency)

-4

AWC -Vul
Plant A Core Melt Frequency DistribUtion

TIRGALEX-MODI / 12-120 months

Test Interval: 1 -1 2 months

100% 1V- ....... T

8 i Singles Dt Doubles

N-A c 60%

C 6

D

F 40% -----

420% T

I

0%, [ I I !I I I I 

-7 -6.8 -6.6 -6.4 -6.2 -6 *-5.8 -5.6 -5.4 -5.2 -5 -4.8 -4.6 -4.4 -4.2 -4

LOG (Increnne In Core Melt Frequency)
Plant A Core Melt Frequency Distribution

TI RGALEX-MOD2 / 12-120 months

Test Intein%,?.: 1-12 months

I

100%

80%

C 60%

C

D

F A AFre

^ Ek I-1-1 1- I I F- I I

Singles -+- Doubles

- - - - - ~~~~~~~~~~~- I-I

4W la ,

20%

-% . -. 6.

-7 -6.8 -6.6

a - a - , - I n I - I 4 - . C - a -

-6.4 -6.2

LOG

-6 -5.8 -5.6 -5.4 -5.2 -5 -4.8 -4.6 -4,4 -4.2

(Increase In Core Melt Frequency)

-4
11. VAR LI ANDUN'CERTA T RSULIS FOR PANT B

The following pages give the distuibution results for the core melt frequency increase for

Plat B. the BWR, for the ranges assined to the PRA sensitivity (Importance)

coefficients, aging rates, overhait intervals and surveillance intervals. Tbe maintenance

intel ranges sgin considered am overhauls only lying between 12-120 montbs.

overhauls lying in the TIRGALEX ringes, and 12.120 month overhauls with 1.12 month

vurvelilnces These cases were previously described in Section 7.

For each maintenance program dnracization, a table is first presented of the

complementary cumulative distribudoo function (CMF) followed by graphs of the

distribution. The table gives the probability (the CCDF percentiles) that the core melt

frequency incrcase is larger than given values. Tne graphs show the curves for the single

aging component contribution, the double aging component contribution and the total

contribution. The discssions below summarize the distribution results, with the tables

and curves following the discussion

12-120 Month Overhauls Only

The distribution results are similar fx TIRGALEX, MODI, and MOD2. The increase in

core melt frequency generally lies between 7-05 and 4-04 (the approximate 90% and

10% values). The probability of the core melt frequency increase being above 1-04 is

approximately 75%. bhe doubles contribution dominates for TIRGAIEX and MOD1,

while for MOD2 the singles contribution is slightly larger.

TRGALEX Overhaul Interval Ranges

The distribution results for TIRGALEX, MODI, and MOD2 are again generally similar.

The core melt frequency increase generally lies between 4-05 and 3-04, the approximate

90% and 10% values. The probability of the core melt frequency increase being above 1-

04 is approximately 45%. The doubles dominate the TIRGALEX and MODI, and for

MOD2 the singles and doubles have very nearly the same distributions

12-120 Month Overnauls and 1-12 Month Surveillances

The distributions are similar for TIRGALEX, MODI, and MOD2, and the distribution

results show the core melt frequency increase lies between 9-07 and 5-06. If aging

maintenance programs conform to the 12-120 month overhaul and 1-12 month

surveillance interval range description then the core melt frequency increase will be

lowered by approximately a factor of 100 for all distribution values as compared to the

other maintenance characterizations.

171

I- figis"O- - I

I ." . ? , Oft

;p.AAV - :# 4, -&O, ..A-314
I I

I

I

PLANT B

EFFC I'E OVERHAUL INTERVAL = 12 - 120 MO.

COMPLENNTARY CUMULATIVE VALUES

i

i

I

I

i

i

PERCENTAGE

94%

90%

86%

82%

78%

74%

70%

66%

62%

58%

54%

50%

46%

42%

38%

34%

30%

26%

22%

18%

14%

10%

6%

TERGALEX

6.8E-1X

7.8E-05

8.7E-O5

9.6E-5

1.OE-04

I.1E-')4

1.2E-04

1.3E--04

1.4E-04

l .5E-{4

1.6E-04

1.7E-04

1.8E-04

2.OE-04

2.IE-04

2.2E-0(

2.4E-N

2.6E-{04

2.8E-{4

3.1 E-{i

3.SE-04

4.IE-04

5.5E-{4

MOD I

6.2E-05

7.3E-O5

8.2E-OS

9.IE-X05

9.9E-05

I.IE--04

1.1E-{04

1.2E-04

1.3E-04

1.4E-04

1.SE-04

1.6E-49

1.7E-04

1.9E-4

2.OE-44

2.2E-04

2.3E-N4

2.SE-4$

2.7E-04

3.0E-04

3.4E-D04

4.OE-04

5.4E--04

MOD 2

4.6E-05

5.3E-O0S

6.lE-45

7.OE-D05

7.7E-05

8.4E-05

9.1 E-05

9.8E-05

I.1E-N4

1.2E-04

1.2E-04

1.3E-04

1.4E-04

1.5E-D04

1.7E-04

1.8E-04

2.OE-04

2.2E-04

2.4E-04

2.7E-04

3;2E-04

3.8E-04

5.1 E-04

11e IsI 17

;s ~ ~ ~ ~ ~ ~ 4 i ~
a; no - @@w~tW%>^@*#-fietS ib'r:*wrw ywF' '.t vk

Plant B Core Melt Frequency Distribution

TIRGALEX / 12-120 months

100%

80%

I

C

C

D

F

60%

40%

20% I0% -

-6 -5.5 -5

LOG

-4.5 -4 -3.5 -3

(Increase In Core Melt Frequency)

-2.5 -2
Plant B Core Melt Frequency Distribution

TIRGALEX-MOD1 / 12-120 months

100%

80%

-J

C

C

D

F

60%

40%

20%lo

0%

-6 -5.5 -5 -4.5 -4 -3.5 .3

LOG (Increase In Core Melt Frequency)

-2.5
I

Plant B Core Melt Frequency Distribution

TIRGALEX-MOD2 / 12-120 months

..~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~i

100%

I 80%

60%

40%

.. 4

-a

f' D

F

20% LI2 0 1- -. 5-4-35 2. -

-6 -5.5 -5 -4.5 -4 -3.5 -a -2.5 -2

LOG (Increase In Core Melt Frequency)

"'4.-, * '4' .% .- .
I

I

PLAINT B

EFFECTIVE OVERHAUL IN' RVAL = TIRGALEX RANGE

COMPLFMENrARY CUMULATVE VALUES

.I

I.

i

Iit

PERCBENrAGE

94%

90%

86%

82% --

78%

74%

70%

66%

62%

58%,

54%

50%

46%

42%

38%

34%

30%

26%

22%

18%

14%

10%

6%

TmGALEX MOD I MOD2

3.ME-0 4.0E-05 2.4E-05

4.OE-0 4.7E-05 2.8E-05

4.5E-0Q 5.2E-05 3.2E-0S

5.3E-05 6.2E-05 3.9E-05

5.7E-05 6.7E-05 4.3E-0

6.2E-05 7.2E-05 4.7E-0

6.7E-05 7.8E-OS 5.2E-05

7.2E-05 8.3E-O 5.7E-05

7.8E-05 8.9E-05 - 6.2E-05

8.3E-05 9.4E-05 6.6E-05

8.9E-05 1.OE-4 7. IE-05

9.5E-05 L.E-04 7.8E-05

I.OE-{4 1.2E-04 8.7E-05

l.1E-4 1.2E-04 9.7E-05

1.2E-4 1.3E-04 1.IE-04

1.3E-04 1.4E-04 :2E-J4

1.3E-0g 1.5E-04 1.3E-4

1.5E-04 1,7E-04 1.4E-04

1.7E-04 l.9E-04 1.7E-04

2.OE-C4 2.2E-04 2.OE-04

2.SE-04 2.7E-04 2.4E-04

3.4E-M 3.5E-04 3.2E(-04

-- 1

iI

I

9

I

I

17C
Plant B Core Melt Frequency Distribution

TIRGALEX / TIRALEX Range

100%

80%

C

C

D

F

60%

40%

20%

0%

43 -6 .4. 6d.r. .s

LOG (Increase In Core Melt Frequenrcy)

.2,6 *2

i

i

-- I

-I.. I .. . .... ... . 1. - 1,11064010, 1001i"Im 4 ; -- --. '4* ...- I---- - -- A.* Am w
I p

Plant B Core Melt Frequency bistribution

TIRGALEX-MOD1 / TIRGALEX Range

100%

80%

60% C

C

D

F 40%

20%

0%

*6 -. 5. .5

LOG

4.65 4 1 33.6 3

(Increase In Core Melt FrequenIy)

.

.2.5 .2

Y4
Plant B Core Melt Frequency [

TIRGALEX-MOD2 / TIRGALEX

)istribution

Range

100% Sinle A

| t i \ \ | ~~~Singles | Doubles|

80% mum --

60,0

C

D

40% .

20% __ _ ___ _ _

0%

-6 -5.5 -5 -4.5 -4 -3.5 -3 -2.5 -2

LOG (Increase In Core Melt FrequEncy)

- r-- i~ .~ Cj~*~.. _ . . _ _J~ . _ aa~'
I

PIANT B

EFFECTIVE OVERHAUL INTERVAL = 12 - 120 MO.

EFFECTIVE SURVEILLANCE INTERVAL = I - 12 MO

COMPLEMENTARY CUMULATIVE VALUES

PERCENTAGE TIRGALEX MOD 1 MOD 2

94% 7.4E-07 9.7E-07 5.6E-07

90% 8.7E-07 .IE-06 6.7E-07

8- -- XS~~~ql7 5:12EZ6 --- ,oiE82% 1.IE-06 1.4E-06 8.6E-07

78% 1.2E-06 1.5E-06 9.5E-07

74% 1.3E-06 1.6E-06 1.OE-06

70% 1.4E-06 1.7E-06 1.1E-06

66% l.5E-06 1.8E-06 1.3E-06

62% l-6E-06 2.OE-06 1.4E-06

58% 1.7E-06 2. IE-06 .SE-06

54% 1.8E-{6 2.2E-06 1.6E-06

50% 1.9E-06 2.4E-06 1.7E-06

46% 2.1E-06 2.6E-06 I.9E-06

42% 2.2E-06 2.7E-06 2.1E-06

38% 2.4E-06 2.9E-06 2.3E-06

34% 2.6E-06 3.IE-06 2.5E-06

30% 2.7E-06 3.3E-06 2.7E-06

26% 3.OE-06 3.6E-06 2.9E-06

22% 3.3E-06 3.9E-06 3.2E-06

-- 18% 3.7E-06 4.2E-06 3.7E-06

14% 4.1E-06 4.7E-06 4.2E-0O

10% 4.8E-6 5.6E-06 4.7E-06

6% 6.2E-06 7.OE-06 6.3E-06

180
I.

I

I

I

Plant B Core Melt Frequency Distribution

TIRGALEX / 12-120 months

Test Interval: 1-12 months

100%

80%

I'

C

C

D

F

60%

40%

20%

0%

-8 -7 -6.5 -6 -5.5

LOG (Incronsn In Core Melt Fro

-4

I . I - -.-

i . . ---Ul. -00,A

". 14,-"t. ?"'44 .11" f M't -, - ;A- .. 4.. '14i.0 X4  ..: .. - e : , 'I., -1 - 1, . - . - , . . ."Aw .-k

i

_b.==__ And .. I .. 0 V .4 W4'o.
Plant B Core Melt Frequency Distribution

TIRGALEX-MOD1 / 12-120 months

Test Interval: 1-12 months |

i

Il CCDF

100%

80%

40% -

20% -

0% _

-8 -7.5 -7 -6.5 -6 -5.5 5

LOG (Increase In Core Melt Frequency) |

.4.5 -4

I  I- .. -. WI mi --- A , 1._ ,
Plant B Core Melt Frequency Distribution

TIRGALEX-MOD2 112-120 months

Test Interval: 1-12 months

100%

80%

60% C

C

D

40%

20%

0%

-8 -7.5 -7 -6.5 -6 -5.5 1-5

LOG (Increase In Core Melt Frequen4y)

i.

-4.5

. I..- ._ ' .

l -- -~~AL- .'/ . . .

1-- r - - -low- A- Oa .,*#* , - - I i
I

12. CONCLUSIONS AND RECOMMENDATIONS

The methodology which was developeiko quantify the core melt frequency effects from

aging appears to be powerful and flexible. Any PRA model can be utilized and any risk

result can be evaluated for the effects of aging. Any aging models can be used to

describe the aging effects on the component unavailabilities, initnting event frequencies,

and structure failure probabilities. Maintenance and surveillance programs can be

modeled in a detailed manner to determine the core melt frequency and risk effectiveness

of the programs. The results which are obtained show the detailed contributions from

specific components and specific component interactions to focus and prioritize aging

analyses and aging maintenance efforts.

The demoostraion applications which were described in this report utilized two PRAs,

the linear aging model, four aging rate data sets, and evaluated a spectrum of aging

maintenance program characterizations The results of these applications showed the

core melt frequency impacts that result from assumed different maintenance programs.

Tne two figures on the next page, entitled 'Core Melt Frequency Increase AC Versus

Aging Maintenance Program, summarize the point results that were presented in the

preceding sections.

The y-axis oc the figures is the average increase in core melt frequency AC due to aging

which is calculated to occur under a given maintenance program. The x-axis identifies

the differen: aging maintenance programs that were evaluated. For example, L = 18 T =

1 denotes ac maintenance program with effective overhaul intervals of 18 months and

effective sveilance intervals of 1 month on all components. The maintenance

programs are arranged in terms of the increasing core melt frequency AC they produce.

The results for the TIRGALEX overhaul intervals are not showr since they involve a

unique overhaul interval for each component; the TIRGALEX results are circumscribed

by the results shown.

Ihe different results for a maintenance program correspond to tb: four different aging

rate data bases that were used. The two figures show the large differences in core melt

frequency increases that result from the different assumed aging maintenance programs.

The large core melt frequency increases at the right hand sides of the figures correspond

to very ineffective maintenance programs which are not likely to occur in practice.

Because of the limited scope of the applications, the results should not be interpreted as

representing current maintenance programs. The results are most meaningful viewed as a

sensitivity study, showing the sensitivity of the core melt frequency increase to the type

of assumed maintenance program. The results are significant from a technical standpoint

because they explicitly quantify the impacts that aging and main enance can have. These

evaluations are the first quantifications of aging and maintenance impacts using full

scale, up to date PRAs.

184
I.

Core Melt Frequency Increase AC, Versus

Maintenance Program Characteristics

P

Plant A

1.OE-01

1 .OE-02

1.OE-03

1 .OE-04

!.OE-05

(D

*

(per yr)

M ! D

0

0

...-4... ------ r- - - -- - - - - - ------------ Baseline

Core Melt

Frequency

(per yr)

I

1 .OE-06

1.OE-07 L

L=18 T=1

I I - - - - - - -I

L=72 T=1 L=18 L=72 T=6 L=72

Maintenance Program Characterization

L = Overhaul interval (in months) for all components

T = Surveillance interval (in months) for all components (if intermediate surveillance is performed)
t

:,ore Melt Frequency Increase AC Versus

Maintenance Program Characteristics

Plant B

1 .OE-02

1.OE-03

1 .OE-04 0

b (ppr yu) 0

1 .OE-05

1 .OE-06

*

CI

- - - - - - - - - - - *- - - - - - - - -

IBaseljne

Core Ma.il

Frequciscy

(per yr)

1.OE-0

I (IW M1

I-- ,it I 1-I II u ! Ii -r i i tI I' I J 1 f I' g i ( 'It i r c- ' n h 7't 

L = Overhaul interval (in months) for all components

T = Surveillance interval (in months) for all components (if intermediate surveillance is performed)

. . o... k J
When the core melt frequency increase Cis high for a maintenance program, then

examination c! the detailcd aging contribtrs showed that relatively few components

contribute. This implies thr a graded' miintenance program, or equivalently a

'prioritized' maintenance ptmgram, could cffectively control the core melt frequency

increase due o aging. In a graded or prioritize4 maintenance program. most components

can have a lo*rer level of maintenance, provided czre-mnet-frequencynimportant

compoonets 1ave a higher level of maintenance.

The dominaw agong contributors for Plant A (the PWR) werc found Ic be diesel

generators, specific check valves and motor operated valves a the emergency core

cooling system, and motor driven pumps and turbine driven pumps in the auxiliary

Lkedwater sy-cem. For Plant B (the BWR) te dominant aging contributors were the

diesels, the nntor driven pumps in the service water system, and the turbine driven

pimps in the reactor core isolation system. The aging contribution from every

component im the PRA is provided, to the detailed defined in the PRA. Also, the

contributions from multiple component imeractions are provided; the interactions from

multiple aging components were often tle dominant contributors to the core melt

frequency inarAse. These detailed contributors include contributions from specific

systems, cozponents, and failure modes, and providt a comprehensive means of

focusing aging analyses and aging control efforts.

Tbe uncrrt ny evaluations showed the Irge effects variabilities ir. the maintmnance

intervals can have on the resulting variablIty in the core melt frequmncy. 1he two figures

on thc subseqjent pages, labelled "Probability That the Core Melt Frequcncy is Larger

Than Given Values' show the probability distribution obtained for the different

maintenance program characterizations. For each maintenance program characterization,

the probability curve is only given for the TIRGALEX aging rates since the other aging

rate data sev, produced simimae probability curves. A given point on 3 probability curve

gives the prcbability (on the y-axis) that cx average core me!t frequency increase is

Larger than a given value (on t e :.-axis).

The higher pmobability curves again correspond to very ineffective maintenance programs

dtat woull ncr likely occur in practice. The curves therefore should not be viewed as

renresenting current maintenance practices. Tle curves are most meaningful if viewed in

a comparativt sense, showing the relative variability in core melt frequency increase

which results from the variabilities which were assigned to the ovcrhaul and surveillance

intervals. As for the point re-ultis, the deWiled contributors indicate that the larger core

melt frequeny increases can be reduced by focusing tighter maintenance on the coremelt-frequez.y-important components.

Based on tS: results of the work, various recommendations can be made. Because of the

core rmclt frequency impacts they can ha--, plant maintenance programs should he

reviewed to dctermine their characterizafion in terms of effective overhaul intervals and

cffective surveillance intervals for components, subassemblies, and pieccoarts. The

187
approaches which have been developed can tlo be used to evaluate current maintenance

programs for their core melt frequency effectiveness.

The aging rate data which was used in the study was used as demonstration data. Plant

specific data can produce significantly differesi aging rates. Plant specific data can also

show threshold effects, where aging trends in eie failure rate do not begin until after

some threshold age. Plant specific data can firthermore show nonlinear aging effects, i

which the aging trend in the failure rate is a nonlinear function of the age. It is therefore

important to collect and analyze plant specific data to estimate aging component failure

rates. Using standard reliability theory, the canponent unavailability modes developed

in this study can be then straightforwardly exmnded to include thresiold nd nonlinear

aging hilure rates, where applicable.

The PRAs truncated many contributions, (eg, contributions from multiple check valve

failures were excluded), that could become inmportant when aging is considered. It wodd

be useful to expand the PRA contributions (mnfimal cut sets) and rerun the aging I

evaluations to determine the contributions fraz higher order, multiple component aging

effects. It would also be us. ful to evaluate addtional PRAs to determine generic

conclusions regarding aging 'ffects and aging contributors.

The aging contributions from balance of plant equipment, passive components, and

structures are not included in the present evalations. It is important to include these

critical contributors to obtain a more complete picture of aging impacts not only on core

melt frequency, but on public health risks. Tfl approaches which have been developed

can include aging effects from balance of pla= equipment, passive components, and

structures if aging information and models are assembled as they were f.o the active

components. It is important to include these additional contributors since they could

have large impacts.

With regard to regulatory applications, the apxoaches which have been developed car He

useful in helping to define maintenance guidEnes for controlling core melt frequency

impacts and risk impacts from aging. The dereloped risk quantification approaches ca:

serve as useful tools :o complement determini:tic evaluations. Tle approaches can be

used to prioritize aging contributors to deterrnne where to focus more detailed,

deterministic aging analyses and aging maintenance. In the applications which were

carried out. there were a relatively small numoer of important contributors which

impacted the core melt frequency, implying tkat prioritization can De very effective. Tke

quantification approaches which have been developed can also be used to help define

guidelines for risk-effective overhaul intervals and surveillance intervals to control agirg

impacts. Tle approaches can furthermore be ised to define component rerformance

guidelines in terms of component failure rn'.e creases and unavailability increases

which require action before risk is impacted. Data collection guidelines can also be

developed to define what data should be colleted and should be analyzed to audit and

monitor aging effects and their risk implications.

in
Probability that the Aging Increase in Core Melt Frequency

is Larger than Given Values

Plant A i

100 9O

80%

60%

Probability

40%

20%

0%

1.,Y10' 7

f

1xIO-6 IxIO 5 1X10-4 1x10'3 x10-2 ]1iO'1

Core Melt Frequency Increase (per yr)

- Casel. L=12-120 - Case 2. TIRGALEX Range -4- Case 3. L = 12-120, T - 1-12

.~ ~~~~~~~~~~~~~ N4, W ., , *,~~~~~~~ __ , ~~~~~ q A v g , .
*l:

Probability that the Aging Increase in Core Melt Frequency

is Larger than Given Values

Plant B

100%

80%

60%

p roba billty

40%

20%

0% -

IXIO-7 jx10-6 1x10-5 1XIO' 4 Ix10-3 jX10-2 lxlO'1

Core Melt Frequea.., Tnerense (per yr)

- Case 1. L - 12-120 -CCase 2. TIRGALEX Range -+-4.Can 3. L a 12-120 T a1-12

. ;,/ -s i~~~~~~~~~~~~~~ d~~~~~~~~~~ ' %~~~~~1 4 - s . ,
REFTENiCS

1. G.E TMas Jr, CmJcuhz and Analytic Geo= y Addisvo.Vesely. Reading,

Messdm setts, 1960 pp. 134-143. U

2. 'Ci.YA Users Manual'. Version 1.7, El-RI Research Institur, September 1987.

3. NURE.CR-4769, 'Risk Evaluations of Agng Phenomena: The Lier Aging

Reliabiy Model and its Extensim', April 1987.

4. NUREGCR-5248, "Pricztization of TERGALEX-Recoamaded Components fcr

Further Aging Research, November 198&

5. EGGSSR8603, A Suvey of the Nuclear Plant Reliabiity Data System and

license Event Reports t Determine Increasing Faiure Ral?, June 1989.

6. R-. Badlow nd F. Prosdcan, Mathematica! Theory of Reliitv Wiley and

Sons, Tka York, 1965.

7. H. Ascber and 11. Feingo, Repairable Sys s Reliabilit, Marcel Dekker, New

York 1984.

191
I

-I

APPENDIX A: A GENERAL SESrrSVIf METHODOLOGY

WiTE APPUCkT=ONS TO AGING PRIORniTAlONS

i

i

l
A GEN'RALSXSrfTVnY METHODOLOGY WT

APPUCATIONS TO AGING ?ORfIIZAflONM

General 'ormulation

Let R be an aWropiate risk meastrr, for example be core melt frequency or system

unavailability. The R may be wriuen in the generi form

RuZ Rjq + I Rjqiqj + I Rjkqj-kqiqj

I Vhj !>

+R12..n qlq2 (1)

where Rt, Rij, etc. are appropriate coefficients, so of which may be zero and where qi

are compoaclt uavailabilities. We assume there e n components ilabilities

qiq2,,qn. he sumE are over aD combinations ofthe componce' uz- ailabiities tae

one at a time, two at a time, threi at atime, up tot a lime. Equafn i() is valid in

general for any risk measure.

To obtain a genera! sensitivity formula for R let us change each qj toq: + u;. (ihe

unavailability change u; canbe any incremental change, negative orpasitiv, and does

not need to be stnll compared to q;. From Equatim (1) the general cepression for the

change r in R due to the changes o; can be expresse s

r uE Siui +j sijuiuj + I Sjuiujuk +

+ S 12 ... n ul2 U .. (2)

where S-, %S*, Sij,..S 1 re diffcrent coefficies and are related o R., Rij,..R12n.

We shall call5; SjSj, Sijk,-.Sl.n sensitivity coeE:ients since they give the sensitivity

of r to particular combinations of unavailability cdges.

When we determine the sensitivity coefficients Si Sij, etc. then we hive comprehensive

Inowledge about how changes u; in the componec unavailability cotnhute to the

change in risk r. We not only have the linear cortzrvtions Siui but &c two factor

contributions S--u-u1J the three fctor contributions SJkulujuk, up to the nth fbctor

contribution S 1 2.nuFu2 ... u. Fa small unavailahity changes the linear contribution

dominates. However for larger unavailability chqans the multiple fbr contributions

can dominate.

Tbe individual coatributions to the risk change in Equation (2) have fX fol:owirg

interpretations:

Siui the change in risk due to the individual Kiavailability chuge u;. (3)

A.1
I , n~~

Sijuit th ffc ange ia risk duc to the combination of changes ui uj (4)

S12 ..lulxq-.un= the change in risk due to the combination of

changes ul, U2,.-un (5)

:The sensitivity coefficients Si, Sij, etc. in turn bzve the following interpretations:

Si = the linear change in risk per unit change in qi (6) 4

Sij = th two-factor change m risk per unit change in

qiqj (7)

SijkL = the three-factor change in risk per unit change

in qjqiqk (8)

S12 ..n= the n-factor change in risk per unit change in

qlq2-qn (9)

The general risk change expresion, Equation (2), and the corresponding sensitivity

coefficients are comprehensive and quite powerful. Ane risk change expression gives the

change in the risk due to linear contributions from the ;navailability changes. When only

specific component unavailabllities are changed, for example ul, u2, and U3, then the risk

change is determined from the sensitivity coefficients encompassing combinations of the

specific component inuicts. For the example in which ul, u2 and U3 are the Only

changes, the risk change r is

r = Slul + S2 u2 + S 3 u 3 (10)

+ S 12 ul u2 + S13 ul u3 + S2 S 3 u2 u 3

+ S123 ul u2 u3

Application to Prioritization of Aging Effects

For risk prioritizations of aging effects, the sensitivity expressions provide

comprehensive information on the risk impacts from individual component aging effects

and from multiple component aging effects. For aging studies, the changes in component

unavailabilities u; are those due to aging effecs. For example, if components 1,2 and 3

are aging and have increases u,, ub, and u3, respectively, ic their unavailzbilit-es due to

aging effects then the increase r in core melt frequency (or another appropriate risk

measure) due to the agin- effeas is given by the previous equation, Equation (10). Each

of the sensitivities S1 S 2 S3, et. can be interp-cted as the impact on the core melt

Al

.. ~~~~~~~~~ .4
4.

frequency due to individual component aging effects and multiple component aging

effst~s.

In gmeeral, for aging studies, the sensitivity coefficients Si Sij, etc. have the folloM*g

more specific definitions:

Si = the change in risk per unit change in qi due to

individual aging effects in component i (11)

Sjj = the change in risk per unit change in qiq% due to

multiple aging effects in components ij (12)

Sak = the change in risk per unit change in qiq~jq due

to multiple aging effects in components ijk (13)

S , 1 2 = the change in risk per unit change in qlq2-qn

due to multiple aging effects in 1,2,.- (14)

If over a time period the aging effects produce changes u1, u2,...uf in the component

unavailabilities as compared to the steady state unavailabilities then the contributions to

the risk change are obtained by multiplying the unavailability changes by the sensitivity

coefficients:

Sjui = the change in risk due to individual aging

effects in component i (15)

Sijuiuj = the change in risk Cue to multiple aging effects

in components i and j (16)

Sijkuiujuk = the change in risk due to multipke aging effects

in components ij, and k (17)

Sl2 nulu2 .... un = the change in risk due to multiple aging

effects in 1,2,3,..,n (18)

The total change in risk is the sum of the above individual contributions. If only ce tain

components are aging or if the risk impact is only desired from a group ef components

which are hypothesized to be aging then ouzl the pertinent contributions are corrpu::d.

For example if components 1,2,3, and 4 are . rpothesized to be aging with unavailability

increases ul, u2, u3, and u4 then the total rist increase would consist of the sum of:

The individual contributions Slul, ..,S4u4

The two factor contributions S1 2ulu2 , Sjzul'j3,--.,S 34u3u4

The three factor contribution S1 23u1u 2 r 3, .. S;3 4u 2u 3u4

A3

- :4

I
-i

and

The four factor contributix S 1 .34ulu2u 3u 4

Orgunizing the Contributiocs into Various Order App-oximations

For various applications, th: unavailability changes ul, u2,..u, will be small enough

such that the higher order cowributions, e-g. S1234ulu`u3u4 will be negligible compared

to the lower ordered contnrbutions, ie. Sjul. In fact if ul, u2 ....un are small enough than

the dominant contributions will only be the first order terms, i.e. Sju 1, S2u2,...,Snun.

These first order terms are the standard fint order Taylor expansion terms approximating

the change in risk r. However the general risk change expression, Equation (2), gives all

the contributions.

We can order the contributiocs to the change in risk acording to a first order model,

wahich includes only the fixst order terms; a second ord& model which includes first order

plus second order turms, ctc, up to an n-th order model which has all the terms. This

hierarchy of different mod; approximations is given below:

First Order Approximation for the Risk Change:

r=Slul + S2u2 + .. +S2u (19)

Second Order Approxicution for the Risk Change:

12 = Slul + S2u2 + --+ Snun (211)

+ Sl2ulu2 + Sl3ulu3 + ...+ Sn ln n IInl 

Exact (nth order) Formnz2 fo- tue Risk Change

rD = Slu1 + ....+ + S+12uu 2 + -+ Sn-l n un Un (21).

+.+S1 2..Dn U1U2U

Calculating the Sensitivity Coefficients by the MCS Anproach

The sensitivity coefficients S., S--. etc- can be determined in a varnety of ways. A

straightforward approacb is the minimal cut set-based 22proach, o.- mcs approach, for

shorL To understand the rcs approach, consider the minimal cu: set contribution

qlq2 q3-

Leting ul, u2, and u3 be tie ch2nges is qllq2l and q- the new minimal cut set

contribution is

AA
I

II

(q1 + U1 ) (q 2 + U2 ) (q 3 + u3 ) qlq2 q3

+ q2q3 "I + qlq3 u2 + qlq2 u3

+Wu u1 2+q2ulu3 +q u 2 u 3

+ U1u2 u 3 (22)

The sensitivity coefficient contributions ae therefore:

sitivity Coefficient

Si

S2

S3

S12

S13

S23

S123

Contribution

q2q3

q1q3

qlq2

q3

q2

I

A

I

I1

The sensitivity contributions can be simply obtained by setting the appropriate

unavailability values equal to one in the expression qlq2q3. For example, the

contribution to SI is obtained by setting qI = 1, i.e. S1 = q2q3 . The contribution to S1 2

is obtained by setting qI = I and q2 = 1, i.c:. S 12 =q. The contribution to S123 is

obtained by setting q1 = 1, q2 = 1, q3 = 1, i.e. S 123 = 1.

For a general minimal cut set qk qjV qk the

scasitivity coefficient contributions are obtained by setting the appropriate combinations

of q:;, -.qk equal to one:

Sensitivity Coefficient

S,

Sk

k2

Sk~k2

Contribution

qkpqk_.--qk

k qk ...qk

qk3qki*-qkc

I

II

I

i

I

i

II

i

I

0

4

i

A.5
S'Llk 3qk2qki-- qkn

Sk 2k 3 k~ki* qk

For each Animal cut set the respective sensitivity contributions are obtained in this

manner. A: the minimal cut sets are processed and the sensitivity coefficient

contributicrs are summed for each sensitivity coefficient to obtain the total sensitivity

coefficient value.

Algorithm t, Calculate the Sensitivity coefficients Using the MCS Approach

Using the i',proach discussed in the previous section an algorithm cen be constructed to

calculate LI sensitivity coefficients from any set of minimal cut sets. The steps of the

algorithm re as follows:

Step 1. To calculate each single sensitivity coefficient Si:

Identify all the minimal cut sets containing component i.

Set qi = I and sum the minimal cut set contributions to obtain Si.

Step 2. To calculate each double sensitivity coefficient Sjj

Identify all the minimal cut sets, each containing i and j.

Set qj = 1 and qj = I in each minimal cut set and sum the contributions to

obtain Sj.;

Step n. To calculate each nth order sensitivity coefficient Sk 2l:

IL ntify all the minimal cut sets, each containing qki qk - qkn

Set qk = 1, qk - 1 qk I in each minimal cut 1 2k 12

A.6
set and sum the contributions to obtain S42_.

By efficiently searcbing the rnminimal cut sc: list orby developing an efficient cross

referencing procedure, the calculations can be carried out in an efficient manner. Tle

calculations can also be terminuted at a given step to produce the nth orn sr model.

Calculating the Sensitivity Coefficients by Calculating Risk Changes

Instead of calculating the sensitivity coefficienu using the minimal cut sets, the

sensitivity coefficients can also be determined by directly calculating the risk changes. In

this direct risk calculztion appoach, specific component unavailabilities qi are changed

by given amounts ui and the caresponding risk change r is determined. By rt peating

these calculations for different sets of component uaavailabilities and by manipulating

the associated risk changes, the sensitivity coefficients can be obtained.

The approach proceeds as follows. From Equation (2) again, the risk change r due to

arbitrary changes ui in the component unavailabilities q; is again:

r = Si ui + I Sij ui uj + I Sijk ui 5u °k

i i>j inj>k

+ ... + S1i2.. U1 u2-. (23)

To determine the sensitivity coefficient Si, change only component unavailability qi to q;

+ u;. Don't change any other component unavailabilities, i.e. al u = 0 for j = i. With the

changed unavailability qi + ui calculate the risk change r which equals the difference

between the risk value wi&, the change and the risk value without the change. Call this

risk change ri.

From Equation (23)

r= Si ui (24)

Hence

Si = (25)

Therefore by changing each qS separately for all the components i=1,...,n, and

determining the corresponding risk change ri, the individual sensitivity coefficients Si

can be determined using Equaion (25).

A.7
To determine the two bctor sensitivity coefficient Sj change %to qi + u; and change q;

to qj + uj. Don't chang any other cponent untairaability (9,= 0 k = ij). Caliculate

the relting risk chante rij. Then frova Equation (23)

r~ij = Si j +Sj 5 + Sij Ui (26

Since Sj and Si have leady been determined (fron Ec5Jaa2an Py the coefficient Sjj is

determine frhi rij

Sj = rij - Sj ui -

Uin

If ui and ulsedin derminiiigS. are the same values as usein determining Si and Si

then Equation (25) car. be substituted into Equation (27) to o*nk Sij in terns of rij, ri

and rj,

Sijj = r ri - tj -4'

Ui U

A general approach is thus apparent. To determine the three frr sensitivity coefficient

Sijk change q;, qj, qk to q; + u;, qj + uj. qk + uk. Leave af o0:h5 unavailabilities

unchanged. Determnin the resulting risk change rijk Fron E~mdon (23), rijj is given

by

rijk =SX x + I Sxy ux uy + Sijk UiUjuk (j9

where

= the sum over the individual indices in (i, j, k)

1 (3C)F

and

= sum over al combinations of two indices in zi

2 (i,j, k) k31)

Therefore, I

Sijk =rrii- Siu,- u S .uxu)3 (32)

* 1I 2

Uj Uj Uk

- A-8
* -- _- ---- - --. --- -- --- -

If the 83me Values of uj, u-. uk are usd as fr the previous two factor and one factor

seitivity determinadons then the czpessions for S, and Sx. ie. Equations (25) and

(27rLspectivclYcanbesubstititedintoEquation(32)toobtainSjk intemsof rsw ?

and rt. r

h generl S; 2 kan be determined from the formula

e~l2 ..,L YiV2_-k £ Sxyx £SuxUy'_} x~SU

~Ui2.A~ i: (33)

In using the above approach, nunerical accuracy problems can be encountered because

o the subtractir t Ihe term. oo th right hand side of Equation (33). The unaailability

changes ui, uj, ett- must thus be lre enough so that the risk change is larger than the

loder order contributions.

A.9
X~~~~APNI B: AGN FET NCMOETUAALBL

l~~~ICROAIGOEHULITRASADSRELAC II< ;NEVL

A. ^~~~~~~~~~~~~
AGING EFFECTS ON COMIPONENT UNAVAMABILITY INCORPORATING

ONERIIAUL INTIPVALS AND SURVEILLANCE LMTERVALS

Let ).t) be The geneaal age dependent failure rate contribution due to aging. If the

component is renewed at periodic ir:ervals of L then the increase in unavailability tq(t)

at a given age is

Aq(t) = 1-exp (- di(td) (I)

where t is measured from the 2st renewal, or overhaul, point. The average value of &q(t)

over the reiewal interval I, which is denoted by hq, is then

A&q Jq(t) di (2)

L

If the exponential in Equation (1) is approximated by its linear term then

L l

&q =ff X t)dt dt (3)

If X(I) is given by the linear aging model then

Aq= // at dt dt (4)

L

=I &L2 (5)

In reliability terminology the renewal interval L is also termed the 'good as new' interval

since the component is effectively restored to as good as new with regard to the particular

aging failure mode. If there are inefficiencies associated with the overhauls then L in the

above equatzons is the efi ctive overhaul interval, which is Wt actual interval divided by

the efficiency. If L varies, the L can be taken as the average value.

Coasider naw the cast where the component is periodically checked for aging effects at

surveillance intervals of T in aduidon to being overhauled at intervals of L At a

B.1
surveillance with interval T. the componei is assured

However, subassemblies and tmjor piccepans are no:

found failed and major replacenents a=/=de then th

intervals Tin reliabiIity temnindogy are trmed *good

is treated as coming out of the rst in basica!ly the san

same age) as going into the tes; This 'good as old' m

surveillance test effects on agirf,

When suir. eilla:nce is performef at effective intervals i

performed at effective intervalsL, the change in unav;

Aq(to, u) = 1- cxp(- ](tl)dt')

to be in an operational condition.

replaced. (If the component is

is becomes an overhaul.) The

I as old intervals if the component I

ic condition (with basically the

iodel will be used as the model of

of T, and overhauls (renewals) ar

ailability Aq(Qtu) is then given by

(6)

asured with regard to the point of

e exponential, Aq(t0, u) is then

The time to is the time of the lwt surveillane test ma

last overhaul. The value u rangs from 0 to T.

Using the linear aging model ard the linea-term of tlb

given by the formula

A&q(to, ii) = JP+yd.

to

I

II

II

I

I

7)

= la 12tou + u2]

2

(8)

Averaging u between 0 and T gves the av-zge unavailability change Aq(t0) at to. Using

Equation (8), Aq(to) is thus giV!n by

Aq(to) =I ia~to T Il

2 (9)

Finally treating to as a continuns variable and averaging Aq(t) over to = 0 to to = L-T

(since the last surveillance test i at L-1) gives the overall average unwvailability Aq.

Using Equation (9) Aq is conseuently

Dq = Ia[(L-T) T+r2 2 3

(10)

I

7.'I
!~~~ I I A~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~

r

If there are inefficiencies associated with the sirveillance tests and overhauls then Land

T in the above formulas are the effectivt intervals, which are the actual intervals divided

by the fcficiencies of the activities. If L and Tvary then average values can be used. For

more information on the underlying bSsic rliablfity approaches for the above formulas

sec referer ,s (B-1) or (B-2) I

I~~~~~~~~~~~~~~~~~~ q#

Af

B3

I. . *1
II

I

i

REFERENCES

B-i. RE. Barlow aiu F. Proschan. Msf!imatical Iheg of Reliability 'Wiley and

Sons, New Yorx, 1965.

B-2. HI Ascher and I. Feingold, Repairable Systems Reliability Marcel Delkker, New

York 1984.

B.4

_ _ _ _ _ _ _ _~~~~~~~ I
APPENI1DIX Q DETERMTINA71ON OF AGING RATES

FOR SENSMITIIX STUDIES

Aging rates for sensitivity studies as used in this report are aging rates determined to

satisfy some condition or the resulting failure rec, unavailability, or observed number of

failures. By using sensitivity-study aging rates, tst aid maintenance programs cn be

evaluated with regard to their effectiveness in ccstrolling core melt frequency and risks

from defined aging rates which characterize givn types of aging.

For the linear aging mod:l, the aging failure rate \(t) at age t is given by the formula

-kt) = at -(1)

where a is the aging rate. The doubling time Is 6.e time at which the aging failure rate is

equal to the steady state failure rate used i1J the FRA. If Xo is the steady state failure rate

and t2 the defined doubling time then

at2 = h (2)

Ibe aging rate is then given by

a = A> .

t2 (3)

For a doubling time of 20 years, t 2 =20 years is subst tuted into Equation (3); these were

the aging rates determined for the TIRGALEX-MOD2 data base.

Another sensitivity-study aging rate can be deteained by placing a criteria or he aging

failure contribution. The expected aging fai:.ire :ontribution F in time t is

F= Iat 2 (4)

For defined criteria values for F and t, the aging rate is thus determined to be

a = 2F (5)

t2

Using F = I and t = 5 years gives the aging rates used in the TIRGALEX-MOD3 data

base. (To obtain the aging rate in units of per hour per year as given in the report, the

value in units of per year squared must be divided by 8760.)

Note thai since 1 at" is also the unavailability cectribution from the aging

ClI

I~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~'
N

I.:

(to first rder), Equation (4) can be used to determine aging rates whick satisfy given

unavailability criteria where F is now the unavailabiLnr criteria. For example the aging

rate whidc satisfies 1 failure in 5 years also satisfies, to order of magnitude, an

unavailability of 0.1 in 18 months (1.5 years) Le.

I

(S yrs)2

a .1

(1.5 yrs)

(6)

l

Thuss the sensitivity-study aging rates used for the TIRGALEX-MOD3 data base an

also be viewed as giving an unavailability of 0.1 in 1s months (tht average time between

shutdowns)

At2

(f - i6
APPENDIX D: POINT CORE MELT FREQMCY INCRFASES FOR PLANT A

WHMN UNAVAILABILITY IS CONTROLLED

The following pages show the pointwise core me frequency increases for Pant A when

the component univailabilities art controlled to te no larger thin 0.3. For th

calculations, unavailability changes Aq above 0.3 were set to 03. The results am for the

TIRGALEX-MOD3 aging rate data set and for tde 72 month effective ovehul interval

case. Tle other cases did not produce unavailabaies above 03 and hence would not be

affected by this additional control.

This type of additional imavailability control ch-arterizes mainzenance pro-rxms which

carry out additional sufficient maintenance to liz. the unavailability until a renewal is

performed. Tle results arc not significantly diffmmt from the results witbout this control

given in the main reporL More stringent unavailility performance controls or

overhauls which are triggered on unavailability peformance levels could pruce

significantly lower core melt frequency increases

D.1
EFFECTIVE OVERHAUL INTERVAL = 72 MONTHS

Plant A 'I'IROALFIX - MOD 3 / 72 MO.

30-Oct-39 TOP SINGLE CONTRIBUTORS

01:39 PM

Total AC- 2.75-03

Ronk Conmpnnit Nm. &ql Si AC

I HPI-CKV-PT-CV225 3.01E-01 2. 11-03 6.35-04

2 IIPI-CKV-FT-CV25 3.0R-01 1.4R-03 4.2R-0

3 HPI-CKV-PT-CV410 3.02-01 1.41-03 4.2e3-0

4 ACC-CKV-1T-CV128 3.0E-01 5.0E-04 1.51-i4

5 ACC-CKV-FF-CV147 3.0E-01 S.OE-04 1.5E-04

6 ACC-CKV-FT-CV14S 3.06-01 5.05-04 1.53-04

7 ACC-CKV-VT-CV130 3.0P.-01 5.OR-04 1.5E-04

S IIPI-MOV-FT 3.01-01 3.41F-04 1.0t!-04

P9 O1P-UON-rS-Dooi 3.013-01 2.3E-04 7.0lE-05

10 LPI-MDP-FS 3.0E-01 2.3E-04 6.S1-05

11 OEP-DGN-FR-6HDG1 3.01S-01 2.11-04 6.4E-0S

12 LPR-MOV-FT 3.0E-01 1.3E-04 4.0E-0S

13 OlP-DON-PS-DW03 3.01E-01 1.313-04 3.U3-05

14 OIIP-DON-PS-DO02 3.011-01 1.33-04 3.53-05

15 OEP-DON-FR-6HDW3 3.013-01 1.21E-04 3.71;-05

16 OEP-DON-PR-611D02 3.08-01 1. I3-04 3.211-03

17 HPI-MOV-FT-1350 3.0E-01 6.713-05 2.03-OS

18 CVC-MDP-FR-2AIHR 3.0E-01 6.71E-05 2.0E-05

19 OEP-DON-FR-DC3OI 3.05-01 3.315-0S 1. IE-05

20 AFW-TDP-PS-FW2 3.0E-01 2.93-05 8.78-06

21 AFW-MDP-FS 3.012-01 2.65E-05 7.91-06

22 LPI-MDP-FS-SIIA 3.0E-01 2.SE-OS 7.4E-06

23 LPI-MDP-FS-SIIB 3.0E-01 2.5E1-S 7.4E-06

24 LPR-MOV-iT-18t.2B 3.013-01 2.1E-OS 6.3E-06

25 LPR-MOV-FT- 1862A 3.0E-01 2.113-05 6.3E-06
EPVECTVE OVERHAUL INTERVAL -72 MONTHS

TMRGALPX - MOD 3 / 72 MO.

TOP DOUBLE CONTRIBUTORS

Plant A

27-Oet-89

01:55 PM

Total AC - 4.2E-03

31

1

1

z

Rank Component N me

I OEP-DON-FR-6HD03

2 O2P-DON-rs-1X"n

3 OEP-DON-FS-DW02

4 OEP-DON-FR- 6HD02

5 LPR -MOV-FT-I 862A

6 LPR -MOV-FT-1890B

7 LPR-MOV-FT-1 62A

Rt LPI-MDP-FS-SIIR

9 LPR-MOV-FT-1860A

;0 LPI-MtP-FS-SlI A

I IlPR-MOV-FT-IP0f0n

12 LPR-MOV-FT-1I62B

13 LPR-MOV-T-1 862A

14 LPR-MOV-FT-1160A

I 5 HPI-MOV-FT-I I 15C

16 HPI-MOV-FT-IIISB

II LPR-MOV-PT-1l60B

IS cPc-MDP-rS-SWloII

19 LPR-MOV-FT-1962A

20 LPR-MOV-FT-1860A

2i LPR-MOV-FT-1862D

22 LPI- MDP-FS-SI IA

23 LPI-MDP-FS-SIIB

24 OEP-DGN-FR-DG0t

25 OEP-DON-FS-DO02

A q

3.0E-01

3.0F-0

3.0E-01

3.OE-01

3.0E-01

3.OE-01

3.02-01

3.0E-01

3.OE-01

3.0E-01

3.0-01

3.OE-01

3.0E-01

3.0E-01

3.OE-01

3.0E-01

3.0E-01

3.0P-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

Compoment Name

OEP-DON-FR-6HD I

Or-P-D0N-FR-6l4D0 I

OEP-DON-FR-6HDO I

OEP-DWN-FR-6HD 1

LPR-MOV-PT-18628

LPR-MOV-FT-1t9(

LPR-MOV-FT-186CB

1lP-MDP-FS-SIIA

LPR-MOV-PT-1 860B

LPR-MOV-FT-1160B

lIPI-M DP-FS-St IA

LPR-MOV-PT-1860A

LPI-MDP-FS-SII1

L!'1-MDP-FS-SIIB

HPI-MOV-FT-1 I ISE

HPI-MOV-FI'-1115D

LPI-MDP-FR-A2lHR

CPC-MDP-rR-SWA3H

LPI-MDP-FR-B21HR

LPI-MDP-FR-D21HR

LPI-MDP-FR-A2lHR

LPI-MDP-FR-B21HR

LP1-MDP-FR-A21HR

OEP-DGN-FR-DW03

OEP-WON-FR-DW01

A q2

3.02-01

3.013-01

3.0E-01

3.OE-01

3.04-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.01-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

3.01-01

3.0E-01

3.0E-01

3.OE-01

3.0E-01

3.0E-01

3.0E-01

3.0E-01

Si

3.64-03

2.5E-03

2.5E-03

2.4E-03

1.52-03

I.5E-03

1.51-03

I.5E-03

1.5E-03

I.SE-03

1.5E-03

1.54-03

1.5E-03

1.5E-03

1.4E-03

1.4E-03

1.OE-03

I.OR-03

1.0E-03

1.04-03

1.0E-03

1.0E-03

1.0E-03

6.4E-04

6.0E-04

ql *q2

9.ns2-0

9.0E-02

9.01-02

9.0E2-0

9.012-0

9.0E-02

9.0E-02

9.01-02

9.0E-02

9.0E-02

9.0R-02

9.0E-02

9.0E-02

.OE-02

9.01-02

9.0E2-0

9.04-02

9.0R-02

9.0E-02

9.0E3-2

9.021-2

9.0-02

9.0E-02

9.0h-02

9.012-0

AC

3.2E-4

2.2P-04

2.28-04

2.2E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-04

1.4E-44

1.4E-04

1.4E-04

1.4E-04

1.4E1.4E-04

1.2E-4

1.2E-04

9.0P,-5

9.0R-0

9.0E-05

9.01-05

9.0E-05

9.0E-0S

9.0E-05

S.8E-05

5.41-05

bw..!
A.1,

II

AFs

1-A

'. i

-j*S

3;

~T.,

'APPENDIX E: POINT CORE MELT FREQUtNCIES INCREASES FOR PLANT

B WHEN U!NAVAILBILIT4 ' IS CONTROLLED

The following pages show the pointwise core melt frequency increases for Plant B when

component unavailabilities are controlled to be no larer than 0.3. The results are for

TIRGALEX-MOD3 aging rate data and 72 month effective renewal intervals. This type

of unavailability control characterizes maintenance programs which limit the

unavailability to be no larger than 0.3 through performance monitoring. The results are

not significantly different from those presented in the main report without the

unavailability control. More stringent unavailability performance controls or renewals

which are triggered on unavailability levels could result in significantly lower core melt

frequency increases.

A

I

e

P

I

11. A

El
- - -'a----..

EFFECTIVE OVERHAUL INTERVAL 72 MONTHS

PlantB Tl'IGALEEX - MOD 3 / 72 MO.

27-Oce-89 TOP SINGLE CONTRIBUTORS

02:00 PM

Total C 6.65-OS

Rank Componont NaJ- &q1 Si C

I SSW-MDP-FS-CM 3.OE-O1 7.7E-OS 2.3E-OS

2 ACP-DGN-FS-DG13 3.0E-01 2.6E-05 7.SE-06

3 ACP-DGN-FR-D013 3.0E-01 2.6E-OS 7.8E-06

4 ACP-DGN-FR-D012 3.0E-01 1.9E-05 S.6E-06

S ACP-DON-FR-DOI I 3.0E-01 1.9E-05 5.6E-06

6 ACP-DGN-Prq-DG12 3.05-01 1.911-05 5.6E-OO

7 ACP-DON-PS-DO I I 3.0E-01 1.9E-05 5.6E-06

8 SSW-MDP-FS-MDP2C 3.0E-01 1.8E-OS 5.3E-6

1%i 9 SSW-MDP-FS-MDPID 3.0E-01 1.2E-05 3.7E-06

10 SSW-MDP-FS-MDPIA 3.0E-01 1.2E-05 3.7E-06

1l SSW-MDP-FR-MDP2C 3.0E-01 I.IE-OS 3.3E-06

12 SSW-MDP-FR-MDPIA 3.0E-01 7.2E-06 2.2E-06

. 13 SSW-MDP-FR-MDPIB 3.OE-01 7.2E-06 2.2E-06

14 RCI-TDP-FR-TDPI 3.0E-01 6.4E-)6 1.9E-06

IS RCI-TDP-FS-TDPI 3.0E-01 6.3E-06 1.9E06

16 EHV-FAN-FR-77C02 1. IE-02 8.9E-06 9.tE-08

17 EHV-FAN-FS-77C02 1. IE-02 8.9E-06 9.81-08

18 EHV-FAN-FS-77CIB 1.1E-02 S.1E-06 5.7E-08

19 EHV-FAN-FS-77CIA 1.1E-02 5.1E-0 5.7E-08

20 EHV-FAN-FR-77CIB 1.1E-02 5.1E-06 5.75-08

21 EHV-FAN-FR-77CIA 1.IE-02 5.lE-06 5.7E-08
t ! "" :t I 0 , . , , , .- . . ... - - - . , I

q

I I . t

I i I 4 I #

: I l, I I i

i

I , I I I I I .1

i u I , H i it Um ;. 1 J14 1,

Il *. .

Ui I 1N !;

TOlW C - 9.911-4

I At I'-IKI§N-tthiWilS

7 Arl'-DnN-PR'!-Ml I

J %C'P-IxIN- PSLJ-IS

4 ACP-D0N-FS-D012

5 ACP-DO N-rS-DO l

6 ACP-DON-PS-0 13

7 RCI-TDP-FR-TDPI

8 SSW-MDP-FS-CM

p ArP-rN-I'R-Vlx

1(1 ACP 14I1fi IPR M11

11 ACP-WN-4S-IXIII

12 ACP-DON-FS-DO12

I IAVP lWIN 1"_1-Mil

14 Al'P -I)(IN lR-III

I AVP ll'fj4 I," twll

Ih AVP lH$NI't-b-1il1

l? AfT' IWIN PI ImIl

IN ACP ' th I'N P)1XI1I

19 ACP-DON-PS-DO 12

20 ACP-DWN-FS-DWI I

21 ACPNDON-FR-Dt13

'JI AP IHIN I'll INIII

A n P (nWq t me""

J.ht -0l APl' lWN.I tI' 1111

1 Of? 0t ACP-MN-rq-lIl

J.alt-o0 A '-LXiN I1f-liXJI2

3.0E-01 ACP-DON-rR-D013

3.0F.-01 ACP-DON-PR-D013

3.06-01 ACP-DON-PR-DOI I

3.0E-01 SSW-MDP-PS-CM

3.0E-01 RCI-TDP-FS-TDPI

1.01n i Ac(r-DON-rRI'x112

1.1 01 AVP IJ(IN'1' *I 1R)

3.0fl-01

3.OE-01

I On- lI

1.111 oIil

I Ill' III glut ill

1.014 Ill1

3.OH-01

3.OE-01

1 IIll (II

.1:(lic I1

31bi.01

3.OE-01

ACP-WN-1'5-1)(112

ACP-DGN-FR-D I I

AF I'-flM I-Pt' I WJ l

OqW Ml1p-I'll MIPPr

hbW M411 tb mlIpit

1"W Mill' Fr '46P1'J('

MMtW MIIP 11v MIrIPIA

SSW-MDP-PS-MVr'IA

SSW-MDP-FS-MDPIB

q1W-MDr-FS-MDPIlF

nPW-MIr-1, MnrlA

mqW MlDp '1m MIWIIIl

SSW-MD)P-P.S- MDIP2C

SSW!-MDP-FS-MDP2C

A q?

2,01t-01

3.011-0l

3.06t-01

3.0E-01

3.0E-01

3.0-01

3.OE-01

1.011 01

3.0E-01

3.I11 -0I

1.01,-ll

11.0114 III

3.011-01

3.0E-01

3.0-01

1,IJ1- 01

3.011-01

3.OE-01

B12

,11 04

3.51-04

3.3E-04

3.3E-04

3.3B-0

3.26-04

3.2E-04

'. H11-114 3x.ENx

4,h -04

2.411-04

2.4E-04

2,02-0

2,011'04

I,1Ii fI

1.011-04

1.9E-04

aql Aq2

o,nnt 0

9.011-02

0,nn11 .f

9.0E-02

9.0E-02

9.09-02

9.0E-02

9.0E-02

9.011-07

PAMI

9.011-02

9.0E-02

O.OR-02

9.11ti-IhJ

Q,fll-0

l,#1" 040

91611i 01

9.011-02

9.0E-02

9,06-02

0011-0,2

Opt 0.

9,011-02

9.0E-02

AC

3, 40.01

3. 1 P-05

3,011411

3.0H-05

3.0E-05

3.0E-os

2.9E-05

2.9E-05

3110-03

2. K 11-03

2.7E-05

2.71R-M

2.71 -05

2. IE-05

2.1E4 OS~

2.811-05

1.32-05

1.711-0i

I,7U-0i 24

'25

ACPIXINl'RIX1II

ACP-DON-FR-DO 12
JAW 

J.4

V

4k:

t1o.; 7.

M; 0 .

..ask,

'I NV

-4kr IF,

tip J

tf oL in

r

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WC, 

M7

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