ML20128G994
| ML20128G994 | |
| Person / Time | |
|---|---|
| Site: | Comanche Peak  |
| Issue date: | 04/06/1992 |
| From: | Alhussaini T, Bhatia P, Gwal A INSTITUTE OF ELECTRICAL & ELECTRONICS ENGINEERS |
| To: | |
| Shared Package | |
| ML20127K787 | List: |
| References | |
| P848-D11-DRFT, NUDOCS 9302160221 | |
| Download: ML20128G994 (30) | |
Text
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April 6,1992 P848/D11 PROCEDURE FOR TIIE DETERMINATIGN OF TIE AMPACITY DERATING OF FIRE PROTELW CABLES Prepared by Task Group 12-45 . . ,,_.
d of the Test and Measurements Subcommittec #12 of the IEEE lnsulated Conductors Committee e
All rights reserved by the Institute of Electrical and Electronics Engineers, Inc, s
9302160221 930339
{DR ADOCK'03000446 PDR I
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At the time this draft was completed, the Task Group on Procedure for the i Determination of the Ampacity Derating of Fire Protected Cables had the following membership.
l A.K. Gwal, Chairman .
i 4 T. J. Al-Hussaini R. G. Koza P. Bhatia R. Ucht
[ J. E. Merando, Jr.
, E. A. Capouch
- E. J. Coffey K. W. Prier
! E. J. D'Aquanno D. N. Priest R. Das B. E. Reagan
- j. J. DalyL G. A. Remaley P. D. Skelly P. J. Finnerty
=
J. B. Gardner M. Spurlock -
P. A. Giaccaglia - W. Torok
= A. Hiranandani J. R. Tuzinski -
CV. Johnson F. W. Van Nest A.E/Kollar T. A Venkataraman
- J. G. Waligorski 4
Other individuals who have contributed are: - .
K. W. Brovm -
D. C Gasda f
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PROCEDURE f for the Determination of the l
i AMPACITY DERATING OF FIRE PROTECTED CABLES i
i D. RAFT 11
- Apdl 1992 l
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INTRODUC110N Many instahations incorporate individual or grouped cables which do not limit the flame propagation under fire conditions. This deficiency can be attributed to conventional:
[ cable constructions, such as polyethylene insulated PVC jacketed control cables; widch
- were popular in the sixties and early seventies. Such cables do not meet the flame ;
! spread criteria when subjected to the vertical tray flame test which has been accepted in-
- one form or another. Other installations which fall in the same category indude metal j- sheathed or arinored vertical shaft cables with overall polyethylene jacket and secured.
! with clamps at various intervals. Polyethylene jacket is used because of its high resistance _.,,_
- to creep under pressure in the clamp area to support the sheer weight of the cable, i
l The foregoing installations include industrial, commercial, marine, nuclear or fossil i generating stations and others.-
i h To retard the flame propagation propmics of cables in cable trays, protective coatings
! are applied either along the entire length of the cable (s) or in certain sections as deemed
! necessary. The flame retardant coatings may be;in a form of tapes, blankets, liquids or >
mastics applied to individual or to grouped cables, both for retrofitting cixisting
[ imtallations or for new installations.
- 1. PURPOSE I ' Die purpose of the standard is to provide a test procedure which may be used to .
determine the ampacity derating required for fire protected cables in conduit, in p penetrations (fire stop) and in cable tray systems.
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- 2. SCOPE This standard provides a detailed procedure for determining the ampacity derating required for fire protected cable systems. The tests are intended to be used to determine the ampacity derating of fire protected systems which is to be applied to the ampacity of cables determined by standard methods such as ICEA P-46-426 Power Cable Ampacity Volumes 1 & 2, and ICEA P-54-440 Cables in Open top Cable Trays.
2.1 General The procedure presented in this standard includes the principles and methods of
- testing. This test procedure will provide the ampacity derating of a fire protected cable system.
2.2 Applicability Fire protected cable systems outlined herein are intended for use in power generating stations, both nuclear and fossil, as well as other applicable commercial and industrial installations, both outdoors and indoor. The categories of cables include, but are not limited to: power, control, and instrumentation including signal and communication cables. Testing of flame retardant coatings on horizontal cables will qualify the coatings for all orientations. The tests as
- described herein are intended to be used in determining the derating factor, which .
may be required for fire protected cables in conduits and trays. The ampacity of the cable in raceway will typically have first been determined using accepted
~ practices such as ICEA P-46-426 Power Cable Ampacities Volumes 1 and II, and ICEA P-54-440 Cables in Open Top Cable Trays.
The user of flame retardant coatings is cautioned to determine that the coating is compatible with the cable materials with which it comes in contact and with the.
environment in which it is installed; The user may specify tests in addition to those specified in this standard to reflect the installation conditions, e.g., for nuclear stations, the user may /ish to add irradiation test or effects of added weight; or for outdoor installations, the user may wish to add a U.V. resistance test.
- 3. DEFINITIONS These definitions establish the meanings of v/ords in the context of their use in this standard.
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d Fire Protected Cable Systems t
Cable systems to which an application of a flame retardant barrier, fire resistive barrier or coating (Game retardant coating) to protect cables from fires from any cause has been applied.
4 Mame Retardant Coatings A material applied to a completed cable or assembly of cables to prevent the propagation of ihme when exposed to a flame source. Flame retardant coatings
. include tapes, blankets, liquids, flame retardant mechanical system or mastics.
Passive Fire Pmtection Systems l Systems which einbody fire resistant construction such as coatings, barriers, walls, and penetrations (fire stops) as opposed to water sprinkler systems or gaseous
- extinguishing system
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'Ihrough-Penetration Fire-stop i
A specific construction of devices, fill materials, or both, designed to resist the -
penetration of fire through those openings in fire resistive floors or walls that are j
intended to accommodate electric cables, raceways and me**1 service ,_
penetrations.
l Ampacity Derating Factor A factor appiicable to the ampacity rating of a cable (or other device) to account i for the adverse affects of some installation or environmental condition.
- Raceway Any channel that is designed and used expressly for supporting or enclosing wires, cables, or bus barr~ _ Raceways consist primarily of, but are not restricted to, cable trays and conduits.
1 Cable Tray A continuous rigid structure used to support cables. Cable trap include ladders, troughs, channels and other similar structures. Conduits are not included in this category.
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Enclosures A surrounding case or housing used to protect the contained equipment and prevent personnel from accidentally contacting live parts.
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- 4. REFERENCES The followirig standards were used as references in preparing this standard and may be useful in the interpretation of its meaning:
ICEA P-46-426/IEEE S-135 Power Cable Ampacities, Vols.1 and 2. Dated 1%2 (Reprinted in 1984).
ICEA P-54-440/ NEMA WC-51 Ampacities - Cable in Open Top Cable Trays. Dated 1986.
- 5. TEST DESCRIPIION 5.1 General l
This section describes the method for determining arapacities of cable passing
' through single tray and conduit with and without a passive fire protection systern. , .
. 5.1.1 Applicability
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This method shall be. applicable to a single cable or groups of cables enclosed in a passive fire protection system. Cables may be contained in a raceway or as dictated by the actual installation.
. 5.1.2 Method of Testing Ampacity derating for cables of a passive fire protective system shall be by testing. Testing shall be performed using the configurations depicted in Figures 1 and 2. As an alternative, tests may be performed using representative assembly which can be analyzed to ~
show its applicability to actual installed comlitions. Results are also applicable for 1000 volts and higher rated cables.
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5.2 Test Specimens 5.2.1 Cable Selection The cable to be utilized is chosen as one which is representative of a 4 wide range of cables. The selection of a 3 conductor cross link polyethylene insulated, #6 AWG 600 volts copper cable widi an overall chlorosulfonated polyethylene (i.e. hypalon) jacket was chosen as representative.
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5.2.2 Cable Fill Cable fill is the ratio of cable area to the inside area of the tray expressed in percentage. A 40 percent cable fill, as determined V from actual measurement shall be used for cable trays, i 5.2.3 Cable I.ayout The length of both the conduit and the tray shall be twelve feet.
One to two feet of cable shall extend out each end and shall be wrapped with unfaced hberglass blanket insulation (or ciectrically-heated tape) as necessary to eliminate heat flow out of raceway ends.
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- 5.2.4 Conduit The conduit system shall be 4 inch and 1 inch steel rigid conduit,12 feet long supported every 18 inches from each end by a horizontal piece of "H"-shaped or 2" x 2" square structural tubing.
5.2.5 Tray The tray shall be a 4 inch deep,24 inch wide kdder-back steel cable tray 12 feet and support similarly to the ccaduit system. The tray and conduit systems, if tested together, must be at least 36 inches j apart along their lengths.
5.2.6 Through-Penetration Fire-stops A through-penetration fire-stop intended for installation in a fire resistive floor assembly, wall assembly, or both, is to be installed in a wall section so that the electrical cables pass horizontally through
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the wall. The through penetration fire-stop is to be installed in 5
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- accordance with all requirements specified for the fire stop being tested.
i The sample wall section is to be representative of that specified for the through-penetration fire stop. The thickness of the wall section 4 is to be equal to the maximum thickness of the fir-estop system or device. The size of the through opening i2 the wall section is to be representative of the through opening size specified for the through-l penetration fire-stop.
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$ The fire protective system is to be installed around the electrical cable (s) and raceway (s) in accordant.c with all requirements specified for the system.
5.3 Test Facility 5.3.1 Test Room The ampacity test shall be conducted in an enclosure as defined in Figure 3, The test specimen shall be suitably enclosed such that temperature around the specimen shall be controlled at the test a temperature of 40 C 2 C. The enclosure surrounding the test specimen shall be of even temperature, but must not cause drafts on i the test specimen. The temperature inside the. enclosure shall be _ ._ _
measured at no less than three places one foot from the specimen, and in the horizontal p!ane of the test specimen. The temperature of the enclosure shall be taken as the average of the steady state
- measurements.
5.3.2 Cable Installation 4
5.3.2.1 Tray The tray is to be loaded with three conductor #6 AWG,3/c copper cable, with an overall chlorosulfonated polyethylene jacket. The tray fill should be based on 40 percent fill.
i Tray cables should be installed in an orderly, symmetric manner, so as to limit the flow of air through the bundle, and to facilitate -
inter and intra-laboratory repeatability of these tests. The
, cables shall be connected as a single series electrical circuit, which contains all conductors in the system. The tray is to be ;
supported by two horizontal pieces of "H"-shaped or a suitable ,
- support system, located as shown in Figure 3. A 3" x 25" piece l
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of 1" thick mineral fiber blanket shall be placed between the tray and support system to fotm a thermal break. Thermal insulation (e.g., fiberglass or electrically-heated tape) shall be wrapped around the cable which extends out of both ends of the tray to allow adjustment of eno temperatures. The end temperatures must be adjusted such that the average values for the thermocouples at locations 1 and 3 are within 4*C of the average for location 2 to minimize axial heat flow.
5.3.2.2 Conduit Since the application of the fire protection system may result in differing derating for different conduit sizes, two sizes of conduits shall be tested:
(a) 1 inch rigid steel conduit with one 3/c No 6 AWG copper cable (b) 4 inch rigid steel conduit with one 3/c,750 Kcmil copper cable Derating for both sizes shall be reported. Lowest factor shall be used for ampacity derating. The bundle shall be instrumented with thermocouples as shown in Figure 2, tied with wraps every. _ _ ~
2 feet, and pulled into position in the conduit. The cables shall be connected as a single series electrical circuit, which contains all conductors in the system. The conduit is to be supported by two horizontal pieces of "H" shaped or 2" x 2" structural square tubing with a minimum of 36 inches clearance from the tray or walls of the enclosure. The attachment points between the conduit and the supporting beam are to be insulated with 1" thick mineral fiber blanket to form a thermal break similar to the tray system. Insulation (or electrically-heated tape) shall be wrapped around the cable which extends out of both ends of the conduit to allow adjustment of end temperatures. The end temperatures must be adjusted such that the average values for the thermocouples at locations 1 and 3 are within 4 C of the average for location 2, to minimize axial heat flow. In other.
words, the ends should be close to the same temperatures as the middle, thereby minimizing axial heat flow.
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- e 5.3.2.3 Through Penetration Fire-stops The electrical cabic(s) and raceway (s) penetrating the sample wall section are to be representative of those specified for the through-penetration fire-stop and are to be of sufficient length to project a minimum of 24 inches beyond both sides of the wall section. For this purpose maximum thickness of fire-stop shall be measured. Thermocouples on the electrical cables in through-penetration fire-stops are to be located so that temperatures are measured in the interior of the fire-stop and at
' the fire-stop mid-depth as in figure 5.
5.3.2.4 Orientation The test spechnens shall be mounted and the tests run in the horizontal direction so as to eliminate any possibility of a
" chimney effect" which could cause air movement within the j system.
l 5.3.2.5 Thermocouple Placement Thermocouples (24 gage, Type K [Special Grade] Chromel-Alumel, accuracy 1.15 C) shall be installed by slitting the cable insulation and jacket and placing the thermojunction.in intimate ._ _
physical contact with the conductor strands, as illustrated in Figure 4. The cable shall then be restored as closely as possible
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to its original condition, and the slit sealed with a single-layer
- spiral wrap of electrical tape. Since the test is evaluating the temperature at the hottest position, rather than the average of all thermocouples, the cables within the bundle have been instrumented, instead of those near the outside. For both the conduit and tray systems, thermocouples shall be placed at each of three vertical planes along their lengths, as illustrated in Figures 1 and 2. The tray system shall be instrumented with 13 thermocouples at each plane, for a total of 39 thermocouples, and the conduit system shall be monitored with 1 thermocouple at each plane, for a total of 3 thermocouples.
5.3.2.6 Installation of Passive Fire Protection Systems The tray and/or conduit is to be lifted off it's support after the completion of the baseline test, the passive fire protective system applied in accordance with the manufacturer's instructions, and the entire assembly lowered onto the horizontal 8
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. support, thereby minimizing any heat sink effect from the !
support system. After installation, the passive fire protection system shall be allowed to equilibrate (or cure) to a state of constant moisture content, if applicable. Moisture content (in l tcims of percent moisture) shall be taken 4 hours4.62963e-5 days <br />0.00111 hours <br />6.613757e-6 weeks <br />1.522e-6 months <br /> .or less before i the test is begun and within 4 hours4.62963e-5 days <br />0.00111 hours <br />6.613757e-6 weeks <br />1.522e-6 months <br /> after completion of the t st, using either a hand. held moisture meter, or standard 120 C oven-dry methods). Such moisture de'ermination is to be ma.,
on the top and bottom exterior surfaces of both the tray and conduit systems at their mid-length, and the results of top and bottom averaged.
5.4 Test Procedure 5.4.1 Baseline Evaluation At least one baseline experiment for each system (conduit and tray) using Sections 5.4.2,5.4.4, and 5.4.5 shall be conducted to establish the cable ampacity prior to application of the fire protective system. The ampacity value measured should be compared to the E2E-ICEA Power Cable ampacities standards.
5.4.2 Current -
The circuit shall be energized with 60 Hz, single phase a!:ernating current suf5cient to reach a steady-state temperature of 9')C at the hottest single point monitored at location 2 (see Figures 1 & 2). The current values measured shall be reported to the nearest 0.1 ampere. The use of a constant-current amplifier is highly recommended as a power source, since the increasing temperatures of the conductor circuit cause resistance changes. Alternatively large variable transformers may be used, with constant readjustment to maintain a set current flow 5.4.3 Temperature Measurement All temperatures shall be recorded at in ervals no greater than 1 minute. The current in each test circuit shall be at justed so as to give an equilibrium temperature of 90 C 1.1 C At the hottest point monitored within location #2 (those located at the center of the system). The average temperatures of thermocouple locations #1 and #3 shall be within 4 C of the average of thermocouple location #2. Each cable circuit shall be 9
. considered to be in, steady state conditien when a three-hour period has elapsed since any perturbation of the system 2 occurred (current adjustment, box temperature change, additional insulation placed on ends, etc.) and the rate of i change of the average of all monitored conductor temperatures in that circuit does not exceed 0.55 C for the conduit1 and 0.35 C for tray2 . Re-adjustment of the current flow to a circuit in order to maintain a given amperage value is not to be considered a perturbation.
In order to statistically assure thermal equilibrium, the conductor
- temperatures should be averaged at each sampling period and a linear regression analysis (least-squares fit) performed on the data obtained from that and all other averages taken over the preceding 60 minute period. 'Ihe slope of the line obtained will be in units of "C/ hour. As soon as the absolute value of the slope of these data becomes less than 0.55 (conduit) or 0.35 (tray), equilibrium has been reached. The degrees of freedom obtained by averaging many thermocouple locations (3 for conduit,39 for tray), allows the precision to exceed the 1.1 C limit of any one thermocouple. The only practical m:thod of obtaining the required accuracy in determining thermal j equilibrium is through the use of computerized data retrieval As an example of the least-squares technique, consider the tray system in Figure 1. At each sampling time, an average temperature of thermocouples 1 through 39 will be calculated.
This value will then be added to the top of an array large enough to hold 60 minutes worth of these averages, and the oldest value discarded. A linear regression fit is then performed on the array and presented on the video screen to the operator.
When the next data sampling is completed, the entire process is
. repeated, thus yield a linear regression fit of the data from the previous 60 minutes. As cach new data point is added to array, all previous ones are shifted down one time increment, until each is finally discarded due to the fixed size of the array, i
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l Chosen as the 95% confidence limits fcr Special Grade, Type K thermocouples at ;
90 C.
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LINEAR REGRESSION (LEAST SOUARES METHOD) FIT:
, Y = mX + b N = EXfn
? = EY/n y
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- EXY EXEY n '
. M= i i gg2 _ {EN) l n
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) Where:
Y = Average Conductor Temperature (*C)
X = Time Increment (min)
- mr Slope ofline (C/ min)
. S = Y-Aris intercept ("C) . ,
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! 5.4.4 Enclosure Temperature The temperature within the test enclosure shall be controlled to 40C 22 C. Some induced dr movement within the enclosure is necessary to achieve uniform steady-state temperatures, but care
- must be taken to avoid direct air currents against the test specimens.
Method of amolent temperature control within the test enclosure iz important and care must be taken to a' old any additional heat 4
loading on the cables by radiation froh. heat source.
- 6. li. VALUATION OF TESTS By a simple comparison of the baseline and test specimen ampacities, a derating '
factor i m be calculated.
Data Interpretatian: Ampacity Demting Factor The maximuio current carrying capacity shell be determined by derating applied as dictated by the test. The derating factor as determined by the test is to be ceJcolateu as follows:
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4 j % Ampacity Derating Factor = (lo .1,)/ lo x 100
- Where
i lo u Current in amperes required to attain a temperature i of 90 *C for the baseline (un protected) system.
i However, if Io is larger than published ampacity i.e.
ICEA P-46-426, P 54-440 then published ampacity 1
. hall be used for 1.3 I t= Current in amperes required to attain a temperature 4 of 90 *C for the systcm as protected by the passive fire protection system.
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- 7. DOCUMENTATION OF TFSTING ,
3 Following the procedure outlined in this standard, provide percentage ampacity 1 derating and record the following specific data.
- Description of cables and raceway,if different from specifico herein.
. All thermocouple data
- All current m.d voltage values .
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- Current and conductor temperature values observed at equilibrium
! e Vreight of passive fire protection eystem (Ib/ft) e Average thickness of tire protective system (icches) e Details ofinstallation of fire protecthre system j The documentation of records shall be provided in the form of e FINAL REPORT. The report shall contain for permanent record allinformation-
, - pertaining to the test including the Test Plan, laboratory notebook, til raw data, interpretations, and observations. The report shall provide the. documentation of all the above parameters and cvidence of calibration to NIST standstds for equipment used in obtaining this dsta (including before and after calibration of thermocouples), and appropriate resolution of any test anomalies. All calculations, conclusions or interpretations shall have been checked and approved by authorized individuals certified by the tet. ting organization to be knowledgeable of the techniques used. 1 j
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j SIDE VIEW Scale: 0.5'- l' l LOCAtl0 ;
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CROSS SECTIONAL VIEWS ;
i Scale: 1.5" - l' L. ,
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. NOTE: Cable tray is to be 100i4 visual-fill with 3 Conductor #6 AWG Cable.
Number of cables = 122. Cable dameter = 0.75 inch.
n TRAY AMPACITY DESIGN -
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! To attach thermo-junction to copper conductor, make an approximmuly 2 inch !
i long slit in the outer wrap, expose the three conductors, k,cate the conductor to be instrumented, make a 1 inch slit in the insulation ar.d insert the -
! thermocouple junction in contact with the strands, Close the slit, reposition the
- wouter wrap and seal with a spiral wind of a single layer of glass-reinforcea l clectrical tape.
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COMANCHE PEAX 8 TEAM ELECTRIC 3 TAT 1CN N EE45", I
,. DESIGN CHANGE AU?HORIZAT10N CONT 1MUATION SHEET % ::t -
RE ALON CHANGE (SLCCk 3c)
ATTACHM ENT A Of PMc7EC*r PAccEDUAE !!-\08 (f!~tos-A)
. DETAIL.S TetF, TYPLS0F PACTAUb tNG. AACdWAYS WHICH DO
,ND T RKquIA K AN AnPACiTY REVIEW.
ATTACHMENT .8 LISP'I THE AACEWAYS / Aour/N& CoWTAf NING.
CAELK2 WHICH REqutAE 19 Go/t 50 SKAL M ATKhl AL DU6 70 An9ACIT*Y CCHCEANS, WHEN PEHETRAYtoN SEAL.C ARE RGQUIREO SF-ilLO JGAL MATRAIA L M A Y RE USED fo A AI.L oTNER RncEwAYs.
- ENGINf EA tH G- BACIC: (Bloch 76)
ATTACHMENTS A L B WILL PAovtDE ccAssynucTroH DIRECTf0H foA FPIA fish =ouT*cf NdN n t ~ f?oO PKo rnublNG AACKWAYS3 AMD THE 1.NETALLATION
_OF THE APHtofttATE PENETA AT/0N CEAL.
k REPLACING SF-20 IJfrH SF*ie0/t.SO .&fCULD Al07 NAVE ANY 5'GN/fACAAIr IMPACT CD CABLE Lift.
CLA551C CABl.ES ARE SIEED BASED CAI J.25 k VULL LCAD c:URMNT, BU'r ACTLlAU.Y CPERATL AY /.00 X FCLL 404D CVAREUT OR 80% OF RATING . TH/S MEMS THRT &4% of THE Attok/ABLE /tSAY IS GEAICRATCD IN 'fftE CABLE Also THESE CAEut.s HAsE Brad ANER&lECD INTERAITTENTL;Y AND /d /tANY CASES LESS TRAN FVLL LCA D.
7dtAEWRE
- TMSE f. ABLES HAVE NOT RUA) AT OR NEAR DE5IG d TSs1prRATORrs. 2"Al YNESG c.Ascs untRE SF-2o uAS wt.T/AU.Y ksrALLED AND Is BEING REPLACED gjlTN $r-40, ysteg gycyLO BE NO APPRECTABLE EF"fECT CN THE Gt/ALITIED ufE or THE CABLE.
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- (2) This Criteria is IIet applicable to Raceways which have SF+40 Fire ' Steps. -
i (3) saTo j This critarla is for themselas only. .a #((,5
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DESIGN CHANGE AUTHOMf2ATION CONTINUAT!ON SHEET a',.a + y A
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C*02stoest C-1290404g C-1200s t e A C420 $0664 C*12001049 C*12003ise C+02Sil233 C*12001010 C-12905204 C*028titSS Cal 2901051 C*t2003454 C =02911940 C*I2601082 C=1260sto7 C-02st2128 Cal 2301023 C*1200de?9
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REV. : REV. : M~5ECTG 00CUMENT -
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CCMANCHE PEAX STEAM ELECTRIC STATION ava+o , t OESIGN CHANGE AUTHORIZATION CONTINUATION SHERT? ..a ta ,/a 4
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COMANCHE PEAK STEAM El.ECTRIC STATIN IYd&*11 I DENIGN CHANGE AUTHORIZATION CONTINUAT10N SHEET
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i TU ELECTfIC Comascret Ptos 8 f t AM ELECTf!C 57AfIt*4 134 8 7 too . I REVIS!CDs Coota CP=tste Pe0Ci $ue 77.e v .05 t 2 tune OAft: 23 M r a f tf EFaeo/150 Cal 2007121 C*t20J4504 Cal 2001334 i Cal 200712J C+12034505 C.spoogs44 1 i
C-129001la C*12072649 Cal 2001478 l
C-12000114 C+12072470 Cal 2002424 C*129048IS Cal 2072471 Cal 2002e32 Cat 2soelF7 Cat 2:02334 C-13002834 C-12eost94 C 12504047 C*120est44 Cat 2eoe;sSJ C
- t 2K04050 C*12003 tee C=12613249 C*42506054 C=12003144 C-12913354 C *12294052 C=12003406 Cal 2982542 Cal 2804053 Cal 200 Set!
Cal 2914454 C+12E060ee C=t2003334 C*t2014725 C-12Koe04/ C-12002537 Ca128150$4 C=12R04048 C=12002539 C=12015032 C=12204049 C-82003544 C=12815053 C *12504772 C 12003544 Caste 13054 Cal 2E1279t C*12U02S49 C=12e13721 C 82t12300 C+12G04290 C*12839614 Cal 2t!260s C+12004291 C-12019757 C a t 2E 128 Je Cal 2004282 C=8201975e C 12tt2s37 Cal 2004eco C = 129 89755 C = 12815022 C.1200goyy C=12SMoss C.I2 r 15050 C=12009079 C-12830044 C = 12R1 0 74 C-12005093 C*1203esen C*12583041 C.1200s094 C=12n30sva C-t2E15082 C=12005099 C=12039307 C *124113043 g.t300g1Og C.I2s3050w C=12E1511e C=12005442 C-12233494 C+12ESSit? C=1200SSSO Ca12033493 C 12000+52 C=1200$151 C-12033344 Cal 200095* C*120024e9 Ca12012555 C*I h>0Vhe C=12005190 C=12033544 C=120009b9 C*1200S310 C-t20335t7 C=12000t90 C=12005442 Cal 293351s Cal 2000 M C-1200S$39 C*t2033549 C- t *001002 C=1200SeJt ca12C333*1 C-1200100e C*12001432 l C*12S33322 C=12004005 C=12006ft4 l C a t 20.3s524 Cal 2001004 Cat 20ee014 l C=12933325 C-12Det0cs C*1206ect7 l *-12833326 C+1200tooV C=t2004488 C+12033527 Cal 2004040 Cat 20tet?S C-82033528 Cal 2Dondle Cat &Ottle?
C*t203352V C=L200s0tv C+12C12e04 Ca82033 tac C*t2WC1028 Cat 2013024 C+12033138 C-120013te C*1201302S C-82c33SJ2 C-12004315 C=12013044 (A8LE **O AActute SATA SYSTEM l
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