ML17276B759

to Electrical Separation Practices.

ML17276B759
Person / Time
Site:	Columbia
Issue date:	12/03/1982
From:	Brastad G, Mallanda J WASHINGTON PUBLIC POWER SUPPLY SYSTEM
To:
Shared Package
ML17276B758	List: ML17276B756 ML17276B759
References
PROC-821203, NUDOCS 8212170379
Download: ML17276B759 (66)

Text

WNP-2 ELECTR I CAL SEPARATION .

PRACTICES REV. NO. DATE PREPARED BY: REVIEWED BY: APPROVED BY:

0 12-5-82 c'.e). GemrA)i gg ~~/

821209 82i2i70379 05000397 PDR*ADOCK A PDR Ij

)

L

WNP-2 ELECTRICAL SEPARATION PRACTICES Page No.

I ~ Purpose II. Electrical Separation Criteria A. Definitions B. Class 1E Redundant Circuit Design Requirements 1 ~ Spatial Separation Between Raceways 2~ Spatial Separation Within Enclosures and Equipment 9 3 Separation for Fail-Safe Systems 9 4~ Raceway, Cable, Equipment, and Enclosures 11 Identification * >>'~

5. Transient Data Acquisition System (TDAS) 12

6. General Plant/PGCC Interface 12

7. Isolation Devices 13 C. Associated Circuit Design Requirements 13 1 ~ Prime Circuits 13

2. Proximity Circuits 14

3. Prime and Proximity Circuit Identification 15 D. NonWlass 1E Circuit Design Requirements 16 ZII. Criteria Implementation 17 A. Class 1E Circuits 18 B Prime Circuits 18 C. Non-Class 1E Circuits D Non-Class 1E, Non-Divisional Circuits 19 E. General Plant/PGCC 'Interface .'20 "~:"

IV. Field Verification 20 V, References 20 VZ. Tables and Figures 21

Purpose The purpose of this document is to clarify "the'NP-2 electrical separation cri-teria, describe practices used to implement the criteria, and to provide suf-ficient information in a manner to simplify verification of implementation in the field. There are no differences in the design criteria between this docu-ment and the WNP-2 FSAR.

This document should be used by engineers, designers, contractors, QA/QC per-sonnel and operations personnel.

II'lectrical Separation Criteria Ao Definitions 1.,Class 1E Class 1E is the safety classification of the electrical equipment and systems that are essential to emergency reactor shutdown, containment isolation, reactor core cooling, and containment and reactor heat removal, or otherwise prevent significant release of radioactive material to the environment.

2. Power Circuits Power circuits provide electrical energy for equipment motive power and heating requiring 14.4 kV, 6.9 kV, 4.16 kV, 480 volts, 240 volts, 120/208 V AC, 250 and 125. V DC (see Table I for details).

3. Control Circuits.

Control circuits use 120 V AC (or below) or 125 V DC (or below), and are designed to supply control power for plant systems The largest control circuit protective device (fuse/breaker) has a 35 amp rating.

The majority of the control circuits are intermittent in operation Control circuits include the following functions (see Table I for details):

a 125 V DC or 120 V AC control to switchgear, control room and local panels, and logic interlock circuits b 125 V DC or 120 V AC control power to solenoids.

c- Annunciator/computer digital, circuits.

d Space heaters including motor heaters.

4. Instrumentation Circuits Instrumentation circuits are low level analog or digital signals

5. Low Energy Circuits Low energy circuits are control and instrumentation circuits.

6. Isolation Device An isolation device prevents an electrical event in one section of a circuit from causing unacceptable consequences in other sections of the circuit or .other circuits.

7. Associated Circuits Associated circuits are defined as either prime or proximity circuits as follows:

a. Prime Circuits A Non-Class 1E circuit which receives power from a Class 1E source. The circuit begins at the load side of the source cir-cuit protective device (isolation device), through the intercon-necting cables, and up to the final connected load. The portion of a prime circuit which is routed in a Class 1E raceway is addi-tionally termed "Associated By Proximity" ~

b. Proximity Circuits A proximity circuit is a Non-Class 1E circuit which is routed (along any portion of its length) in a raceway with a Class 1E circuit or is contained in an enclosure with Class 1E circuits and physically routed less than 6" from a Class 1E circuit (without an appropriate barrier). The portion of the proximity circuit which is routed in a Class 1E raceway is termed "Associated By Proximity". If the circuit leaves the Class 1E raceway, the circuit is termed and treated as NonWlass 1E unless the circuit is also prime (see Figure 4).

8 Redundant For the purposes of this document redundant shall refer to the collection of Class 1E circuits, components, equipment, etc.

(system(s)) performing a specific plant safety function which is a backup to other Class 1E system(s) independently performing the same safety function. Safety functions are Emergency Reactor Shutdown, Containment Isolation, Reactor Core Cooling,. Containment and Reactor Heat Removal, and Offsite Radioactive Release prevention. For example, the Low Pressure Core Spray System is redundant to the Resi<<

dual Heat Removal System (Low Pressure Coolant Inspection mode) Loop C for the "Reactor Core Cooling" safety function.

9. Intruding Circuits Intruding circuits are of two types: 1) Class 1E or prime circuits which enter equipment or an enclosure assigned to a redundant Class 1E division, 2) Redundant prime circuits which enter common equipment or enclosures assigned to a Non-Class 1E division; one of these becomes intruding. For example, Division A prime and Division B prime cir-cuits within a Division A panel requires the Division B prime circuit be treated as an intruder.

-1 0. 'Barrie'r LQ,'a'z'riex'K'hhteri:al= or-"a" rstrud'tuie~ placed'etween=:redundant Class 1E or prime equipment or circuits to limit damage to Glass 1E cir-I-Oui'ts-<from'-~internally generated fires. Within enclosures and equip-ment barriers are Haveg Siltemp tape or sleeving, conduits (flexible Outside 'enclo-

'1 A?br-'.WigM'~rand"sh'eeotmeMt-"-enc1osures='o'r-:"me'AD'platesv-c:sures- and>"equipmen't ~barriers"--are sold'rsteel tray 'cover's-=and:bottoms,

='sheet"m'etal~'panel's, '-Ther'molag insulation, and conduits (flexible or rigid) .

an<>>

o

' <<'ower Generation Control Complex (PGCC) c< tll< <',

Assoc) at< ~ c'< c <its a'< o'A< neo

< << o, Q "o+ j<'xr%< c)r~

a'The.PGCC located in the Main Control Room is defined for the purposes of this document as a modular assembly of termination cabinets inter-

connected.'by floor sections comprised of multiple, separate cable ducts on which are mounted control room panels. The PGCC forms an inter face'-between cth'e.'xncomiwg< pl'ant.'cabl'es 'and'-'control <<room .panels.

So<."ce< 'e circu.. becins a-., "h.- <oad si.< o: Mo ."-cure.

2~ Periphery <of PGCC oe<< cc <<c<

"~>>

w '<; ic.

""'n..'.

<< < w < r ' + ~ cv ncctine ca" s, an" u<o "". conn"..o"ed lo:.c<

The:.periphery:of:~e. PGCC; iS-.defined as the .subfloor. area between the termi'nation 'cabinets .'and--'the Main Control-'Room wall.

13. Direct Bridging V 14'irect"bridging-i's=~def3;ried= as-'a -circuit. which':route's "between redundant Class'..c1.E."racewaysx-('see. Figure<<1'A=)"." Dire'ct 'bridging.'is 'prohibited.

c'r .u ." Qr xs ccnz.<'xned "n an c<. ".osur( '<",; <'1< Cl" Secondary';Bridging"By Pro'ximity:r".

Secondary. bridging:by-:proximity,. is.:defi'ned->as:

Bridging of .redundant Class 1E 'circuits by two (o'r more) NonClass

..1E (Division A,.:B, XXX1, XXX2, or XXX3) proximity circuits, routed together in a common enclosure or raceway, and each having part

-:-= -.of their routing in a redundant Class 1E raceway (See Figure 1B).

-"'b"'Bri'dging-'of 'redundant.'Cla'ssx 1E"-~cir'c'uits='y-No'n='Class- 1E"(Division Ag* Bg XXX1'g<'XXX2g oi'XXX3) pr'oxi'mity'ircuits "within enclosures

( s Ys d'or .equipaten'tax'The'se~.'proximity-'ircuits='may>>Qscp'be "~ex'tendai ons of bacxu'circui'ts';origiaatixg=)from.Clash~clE~Vac'eway5 )(She>Yigure"-'1C)hax'"-

saxe"<: rune=-on. Sexes: funcxxons are "mer=ency keac-o" Shu""o'.<n,

15. -Vail-Saf e J

Systems'-=.. <<ea-"-c: '-o"'o:.:.",:. ."v",.a nr":-.,;- ~.n., .. ac":

a: . ~ ~

anc 4-" s < a(acxo<" o'":v< weA.<.<

eSystems usedi:to 'shutdown C(SCRAM.)".cthe 'reactor are-'desi'gned- to faH~ .

o'safe..upon.;loss:..of"power(de'-'energize.-'to-operate)'.-nThese. sys'tems"are

~ the Reactor Protection System'RPS) and those portions of the Neutx'on Monitoring System (NMS) i.e., Source Range Monitoring (SRM), Inter-

-.'mediate. Range. Monitoring (IRM), Average Power Range Monitoring (APRM),

and Local Power Range Monitoring (LPRM) providing input to the RPS.

'.-'In-- addition, 'system inputs and"logic associated with the containment w<'isolation functiom are: designed .to be fail-saf e. '-

.=c nc .....~r

16. gquxpment <<< + co<< + t<qw < ~< '< ~ < ~<', ~~<, '<ct

) ~ < ~ 8

"-"For'he purposes'of-'-this 'document"equi'pm'ent is .defined as panels and

- racks'ncluding .open- faced instrument racks.

Bv Class 1E Redundant Circuit Design Requirements I ~

Each Clase'tE-component. and .interconnecting: cabling,shall';:be'<assigned ".to .; =

one of seve'Class.'1Z"divisions asnoted ia Table IZ;";=Class -lE.;compon'ents of one devi'sion-care'.Cepara'ted Zrom Class'tE..coppbnents of other:tredundant "-

divisiona-"." Minimum separationr distances,".Nor ztrays,, condui*s<;and cables within enclo'su'res;are described beloW ~~:Note -that",'the s'eparationi',diatanceS--

specified"are 'to. prrtclude. internally .generated fire propagation, between:to;,.:=

redundant Class. DE divisions'nd.do motuconsideref ects .of, .externally < f generated fi'res or pipe breaks and missiles.

1 ~ Spatial Separation Between Raceways a) ..;General .Plant Areas (Outside RGB) c'

-Distances shown. consider the ideal arrangement of two (2) d:raceways..only:..r Zf~anore. than, two (2)z raceways exist.-in'.any"par=

'cular arrangement, physical separationdistances:;chosen must.-.be based on the complete configuration. Additionally, minimum distances are shown assuming that there are no equipment or materials in that distance that can aid in the propagation of fire.

rr r r (1) Minimum horizontal separation requirement between any two redundant Class 1E divisions is 3 feet. This is also appli-cable if one raceway is enclosed and the enclosed raceway is

'.,". <<. not, laker, than. the zopen;raceway...u "zI~ e"'>.: I 'D -I z'zone

","z( ~I It %, ( oi,.(- " <<u-r) 1; t r 'r

~

( '= h" OPEN TRAY

" ~DZV I DIV ZI (TYPICAL) 3I (2) Minimum vertical separation requirements between any two

. redundant Class lE divisions are shown below..

Barrier .or:.-.

solid

<<t .DZV 4 I Dtttom~ ~DIV;I I~

equipmen ...

~e'i'

~

CT npr

~

These 8'IV ps .OPm OR -cu ENCLOSED 7"zz; zzzzn~'

TRAY OR 5'ZV I CONDUIT CONDUZT (TYPICAL )

. 'THREE OR EORE '. ~DZV(1111 DIV II

-'-iPER TIER AND . ')= '. '* ., . TWO OR LESS NO AULOMATZC,

'z <PIRE'DETECTION .. iDZV .II ... ~, c:~DZV.ZZ '..: .,ir:.

i G. EXTINGUISHING

'AVAILABLE'" <':

~DIV II

~ ~

~~

~ <<j* tf >>~

(3) Where minimum separation requirements between two raceways

-E cof redundaptt>> C3.assc1Endivisions. arecnotamet,;onesof;)the."

lgOllOWiggVmeth)OdS Shagl .heiimplementede Claaa ). COmpcn" ntc z oi one division a1.e "senarated zrom Class 1E ccpoonents o" other redundan" divis'ons. Min~aA)) @Br)1zoÃtq3. %e'er)ationfor trays. con"uits, ana car.zer witnin e))closurcs are described below. Note that U)e separat on dis'ances

-c or g.u Open)mnclosedcRaceways Insta1ledaPara3.g,el, -wc.

divisicn're. co rc"' ~ \

t>>rr e) te v ) e r>> I ' '>> te t' I>> q>>>>ie ~ >>

DIV I B II I

>>'ace

~DIV DIV e "&r t .ta ~ ~ ~

7 tetr( Vc "-'.Beecher .'(Typical) based on 'w)e ccmpLe):e coKR.C))rc t" Qnr "y C )a.. '" ~ Vea r r)lr')

>>' r>> r -~ t>> ~

~ I>>>> Dc ~ e ir. ""=," distance in ~hc orAQc- ~e ti or t!.

2. Enclosed Raceways Installed Parallel O))>> D ..)vza. ~ ..')C,.!VD>>'r)(>> ". e.XC.LO~' ' ( I; .c..

! ~ )>>T D,O )U)>>)Z).)! ti 0>>)' >> tlc '>>e>>l I Installed Tray,Covers"or Barriers Tcp'..

I ~DIV II" (Typical)

I~)

~DIV Bottom

~ \ ~

I

~ \ '4 I

~

DIV

~ . r ~DIV-II': ~ D

))QTE ) ENCI.OSE')>>>>70r DP..., '>>

)>>rl)>>>>'tp DIV: V>>4 D~":

B = 12" Minimum or Plush to Ceiling

<Ez -- GR,C'>> 12".Minimum or Plush to Floor

.I-,>,;D ~ 1 Mxnxmum F 'R

, -Note 1='No'inimum separa'tion distance is required be-tween redundant division conduits or enclosed

.trays but they must not physically touch.

l E'

I I

Vertical Separation

..

; "c. "..:l.;." DOpen/Enclosed Raceways: Installed .Parallel.=" ".

o: recuncant "'ass E "'v.s on; are no.. me=, one c

=o 'owinc me"';o. s sn~ "=:.:..p emen '=".

"vr versa

',eve s~- ~

q.

+

Ot 1 isr-~v ~ ~ m DIV I

~DIV I

<<~ j "ir.

i aa<<-.

~DIV II ~DIV II A )A A..'; '

2~ Enclosed Raceways Installed Paral1el ev (>Vhms I DIV I DIV I ,.

Q uj I-O DIV II Z

~DIV II '

A = 12" Minimum or Flush to Wall.---"

Note 1 ',:- No'inimum. separation distance I resqireud bet-

'ween redundant division conduits or enclosed trays but they must not physically touch.

(4) Tray covers shall be used for all crossovers of redun-dant division raceway systems, except when the bottom raceway-~i's a conduit. The schemes shown below shall be used regardless of .'M'e voltage level of the cables in a crossover 'ra'ceway system.

I I 11 Z 1 I

~DIV!I'.."..=.. DIV I

..us: ~. "lo.

n asia v r 1" Min DIV"'I 'IV II

~

V s a" " p 1 AI "W" is defined as the nominal tray width of the widest tray involved.

3W ~ 3 times the nominal tray SECTION A-A width or flush to a wall

1 2 ll 12ll DIV I

"-DIN I 1" Min~=

DIV ZI gB MDIV II SFGTION B-B

~DZV I DIV I

~ ~nc'o&e 1" Min DIV II DIV II 1 2ll 12" c(

SECTION C-C (5) Open raceways assigned to route NonMlass 1E power cables (Division A or B) shall be separated from all Class 1E raceways using the separation criteria spe-cified in a) ~ (1) through (4) above.

b) Unique Requirements -For-Certain General--Plant Areas

1) Cable Spreading Room and Cable Chases The minimum separation distance between open trays of redundant Class lE divisions shall be one foot: horizontally and three feet vertically. The minimum separation distance between conduits and open trays of redundant Class 1E divisions is one-inch with a barrier provided when the conduit is below or to the side of the open tray'and three feet when the conduit is located above the open raceways. Where these distances'cannot be maintained, fire barr>.ers shall be installed'-Autos'tie dire detection"and suppression must'be piovided oi these areas become General'Plant Areas.

2) Periphery of PGCC A modular floor raceway system is not provided'in thf.'s-'area.

Cables in this. area shall be routed -in .grounded flexible conduit with 3 feet horizontal separation maintained between redundant Class 1E flexible conduits. Where this distance cannot be main-tained, one of the redundant divisions shall be routed in rigid conduit. The-redundant-conduits shall not touch(a'"fire barrier may be used to physically separate the two conduits).

3) Class 1E Underground Duct System Class 1E equipment located remotely from the plant (e.g.i equip-ment located at the ultimate heat sink) is serviced by divi-sionally separated Class 1E underground duct systems and manholes.

The underground duct system for Class 1E systems is constructed of steel encased in reinforced concrete. The minimum horizontal 8

I ~

I

'I

3) Class 1E Underground Duct System (Cont'd) separation between redundant duct banks measured from the bank edges is 18 inches. Redundant duct banks do not crossovere '.Se'paration within manhoIes psi-provicCecf by barriers.

Dp7 T ) 1 1l Msv c) Power Genera.tion Control Complex (PGCC) a ~

1 a Separation-is-provided-by the design of the-modular floor in the PGCC The modular floor is latticed and constructed of steel "I" beams and rectangular steel tubes forming longitudinal and laterial raceways. These raceways interconnect the control panels (which are bolted on the modular floor)"'and tSe termination cabinets. The network, including transition and extension race-ways, provides separation using vertical and/or horizontal barriers and fire stops. Miniducts (raceways within raceways) are of similar-construction to the floor raceways and provide separation-withe"We-longitudinal raceways;--Cables-in the mini-ducts are routed in flexible metailic conduit. or wrapped with Siltemp tape.

When it is necessary to route cables between PGCC sections which are not directly: connected by floor raceways it; is permissible to route these cables through the cable spreading roomr a special set of raceways has been allocated for this use. The cables and

,an.oraceways.. shall be considered-part, of -PGCC and. therefore are iden-tified the same as those in PGCC ~

4

2. Spatial. Separati:on, Within Enclosures andrEquipment -"-.,

s a Where, devices of redundant Class 1E systems are mounted in or on the same enclosure or equipment, physical separation,(six inches),

barriers,. or isolation devices shall be provided<. In addition, separated or. isolated..terminal boards and wiring shall .be provided.

When it.-is necessary for a single. device such as a.relay. to be con-nected-.to. wiring from. redundant. Class 1E.divisions, 'the intruding division, wiring shall be routed- immediately. away from the. device to attain the required six-inch separation or to the extent where a barrier can be installed. Within open faced instrument racks all wiring-between +rminal boxes and the instrumentation shall be routed in flexible metallic conduits.

3 ~ Separation- for Fail-Safe Systems,

~

Outside. of equipment and. enclosures, circuits:belonging to fail-safe, systems or portions of systems designed to be fail-safe shall meet the fo3,$ ggj.ng requirements..;

r a 4e r s,, ~ i)t ra a a) The fail-safe divisions do not provide redundant safety functions to the non-fail-safe divisions except as noted in 2) below.

Therefore, in general, no separation is required between the non-fail;safe divisions (Div 1, 2, 3) and the fail-safe divisions (Div 4,. 5, 6, 7) . The following specific criteria applies to

~

fail-safe circuits: ~ 4

l

.0

1) External to PGCC fail-safe circuits shall be routed in grounded conduit (rigid or flex) or totally enclosed raceways carrying only fail-safe cables/wires; the grounded raceways are provided only to preserve the fail-safe nature of these circuits.

2) Within PGCC fail-safe circuits shall be routed in grounded flexible metallic conduit carrying only fail-safe circuits and shall be assigned to raceways as described below.

3) Since the Nuclear Steam Supply Shutoff System logic out-puts control Divisions 1 and 2 valves and PGCC contains no Division 4, 5, 6, or 7 raceways it is necessary to route the fail-safe cables with non-fail-safe cables.

Hense, Divisions 4 6 6 cables are assiqned compatibility with Division 1, and Divisions 5 6 7 with Division 2.

These Divisions are compatible in General Plant Areas as well as in PGCC.

Considering the above, Division 1 raceways/cables/wires require no separation from Divisions 4 or 6 raceways/cables/wires; Division 2 raceways/cables/wires require no separation from Divisions 5 or 7 raceways/cables/wires. Divisions 4 and 6 shall be separated from Division 2 and Divisions 5 and 7 shall be separated from Division 1. Divisions 4, 5g 6i or 7 need not be separated from Division 3 except to preclude direct bridging bet-ween redundant Class 1E raceways.

b) RPS SCRAM Solenoid Cabling Wires from both RPS trip system. trip actuators to a single group of SCRAM solenoids are permitted to route in a single conduit. A single conduit shall not contain wires to more than one group of SCRAM solenoids. Wiring for the A and 8 solenoids for the same control rod can run in the same conduit. See Figure 2.

c) NMS and Main Steam Line Cabling Cables routed through the containment penetrations are grouped so that failure of all cabling in a single penetration cannot pre-vent a SCRAM. This applies specifically to the NMS and main steam line inboard isolation valve position switch cables. See Figures 2 and 3.

d) RPS Power Supplies Power supplies to systems which de-energize to operate require only that separation which is deemed prudent to ensure reliable operation- Therefore, the RPS motor generator sets output cabling are hot required to comply with Class 1E separation requirements.

e) Four Division Separation Wiring for the four RPS SCRAM group outputs and the NMS LPRM inputs shall be routed as four separate divisions'ee Table XV and XVI and Figure 2.

10

I f) The NMS cabling in the area immediately underneath the reactor need not'be completely routed 'in enclosed'aceways'or'eparated in accorNEce'-'QitfinSection Il.Bila due to. space-'imitations and the need"'Ro'r"'cable'lexibility"."---""--"'"

Class Qround e~ ., acowc'vs ',.' a ov'( Q>> c )

4 'o proser's e vzj'-

logic'-3.nputs- to the'RPS and"-Containment Zsolation System g) 1E.

from main steam turbine process and status sensing instrumen-tation (Load'Rejection'x-Turbine Tiip) - Turbine"Generator Buildin'g le'ak detect3.on and-Main-Steam"Tunnel- hi'gh radiation instrumentati.on "their'asso'crated instrument."ra'ck's','abling and raceways are located in the Turbine Generator Building This equipment, even though located in a non-seismic Category I struc-ture,'hall be'moun'te'd to- sei.smi'c Category .I requirements and all related cabling routed to Class 1Er srequirements.

4~ Raceway, Cable, Equipment,*

Pt Cd'< <0 + c and Enclosure g - rO,Identific'ation a) Class 1E'- cables-wouted nothin- conduits- need riot'be- identified 0 5, ~ $ t 'I hl 'I within the-'condui:t.""" ' co""""i'> e 'n ',genera Pxan'. mr~sr. a b) Class 1E General Plant raceways shall be uniquely identified with a .color coded marker every 15 feet,'t the beginning, end, at pull boxes, and discontinuities '(wall's, "stru'ctures, 'etc.) as shown in Table IZI.

C

~ ~

~ ~ \j c)" Class cables ~uted- in-Division 'through 7 raceways in

" General 1E 1 Plant-Are'as--shall be uniquely identified with-':color

"-c'coded marker 'every"1'5 feet-'and at their termimations-as shown 'in Table ZIZ. These markers are provided on the cables up to the first termination within equipment and enclosures.

d) Class 1E cables routed in PGCC raceways shall be uniquely iden-

."4ified with a color coded marker every 5 feet near the cable

'ivisional marker as shown in Table V. These markers are pro-

-"vided on the cables up to the first termination within equipment

"'and enclosures. 'GCC longitudinal raceways shall be identified

with a color coded marker every 5 feet. Each lateral raceway shall be identified at the longitudinal raceway lip centered

'""above the lateral iabeway.

e )-a Ri'thin"encl.osure's"- and". 'eq'uipment'l'as's=-'1h 'intrudex"'cir'cui'Es- shall

"'b'e 'uniquelyo.id'entiK'ed with" a- c'olor'coded marker a't "1 2'+ '"2 'i'nch "e"int'ervals as shown in. Table VIZ;-"AdditXona*lly,*to.'differentiate

'between cables and wires,'olor coded-wire- markers are utilized

- as shown in Table VZ.

f )' Cir'cuits 'that have been upgraded from Non-Class 1E to Class 1E and are already installed in raceways shall be identified with a Clas's'E color coded. marker't termin'ati;ons, pull boxes,- and entrances and exits to raceways. Upgraded cables shall be

'e routed in Class 1E raceways. Cable installation records shall reviewed to provide assurance that these cables are routed in Class 1E raceways and installed to Class 1E requirements (cable installation parameters). Otherwise, megger and continuity tests

""shal'1" be perfoimed, termination and routing reinspected to Class 1E requirements, and documentation prepared verifying the

' upgrade.

11

-g) Equipment, and enclosures,shall=be uniquely identified with two

-color,.coded. markers';- one marker with the identification number

. and.:a-.second with the.:,assigned, separation division; of -the residing.;components',ccables; and wires. These markers shall be color coded as shown in Tables III, IV and V. Individual com-Cponents 3.ocatednon-or:in equipment.and enclosures.,require iden--

=tgicatjon~markers.-(qotonecessari,lysqolor co4ed)< but-need-not

.have individual.;divisional;,separation'markers q For. example, an

instrumentzack-,shall;be;,uniquelyidentified with color. coded

~

identificatio11marker and:a.-'divisional. separation marker :

..However, .each separate instrument need-not.,have> a.'color coded

-identification marker or a divisional separation marker.

h) .Within open faced instrument racks wiring from terminal boxes to individual instruments is routed in flexible conduits. These conduits need not:be.identified- with a cable identification number or with a divisional separation marker.

fll > t" ~ > rt> >

~

\'\ 0~ > >>R- '>'> > W>> t '> 1>

i) ~o .different-.equipment, enclosure, and cable identification schemes exist within PGCC; one for'hose provided within the

-General; electric NSSS scope and,;the other";for -thosecproyided .'

.-within the Balance of. Plant scope. Refer to;Tables IV,,;V, ~ XIII,

-,and XIV-for details of. these-schemes, 5~ Transient Data Acquisition System (TDAS)

The,,TDAS. is., a;NonMlass;1E, computerbased~~data>collection- and reduction- system-.which= receives. the majority-.of - its. inputs from Class 1E systems'.,The,system"shall;be

a. All TDAS input circuits within

~ ~, shall 4esigned as follows:,"

raceways

>' ~

be identified and

,"routed to Class,-1E: requirements up to a remote. isolation device.

- From the isolation device to the remote multiplexer the circuits are considered to be NonMlass 1E.

b. Remote multiplexer. outputs-are- transmitted toi the-computer yia a

fiber optic cable which is"inherently an .isolation device., The

fiber optjq cable, therefore,-can-.-be. routed, in any raceway

.,without.regard, to-separation criteria.

ec ~ 'I TDAs: remotesmul tip).exers.- az e'.supplied frog-auNonclass

> 1'E 2)vDc

.'urrent-.limiting.- power"supply'--.The-power source-to. this",power

~

supply,,is:.,Claqs~-1Ewith;.a..ClaSs 1E-isolytion"dept.ce. ; The.

circuit

';.to the power supply shall be routed as- prime-(see Section

~II.C.13 .:-Downstream of the power supply, the circuits shall not be routed as prime.

Uw

6. General Plant/PGCC Interface

>\ >,

For the purposes of cable identification General Plant Area cabling entering the PGCC- interfaces with PGCC cabling-at..termination modules within -the termination cabinets. This cabling shall be designed to the divisional compatibilities and designations as shown in Tables XIII and XIV.-

>~> > 'VP ~

12

7. Isolation Devices Where circuit isolation devices are required, consideration shall be given to types of devices available and the type of circuit protec-tion required.

Isolation device types .shall be applied .as follows:

a) Class 1E power circuits shall be isolated from Non-Class 1E circuit faults by devices which provide adequate circuit interrupting capability. Circuit breakers tripped by an accident signal are preferable. However, where Non-Class 1E circuits are helpful to operations personnel following an accident, coor-dinated circuit breakers or fuses actuated by time overcurrent trips shall be used. Trip characteristics shall be such that for all faults the downstream device will interrupt current prior to trip of any upstream breaker or fuse. Various combinations of fuses and circuit breakers may be used.

Zn addition to current interrupting devices, current limiting devices may be used either alone or in conjunction with interrupting devices to isolate power circuits. Current limiting shall be accomplished by using current limiting or isolation transformers b) Low energy Class 1E circuits shall be isolated from redundant low energy Class 1E circuits or from Non-Class 1E circuits by devices such as relays, isolation amplifiers, resistors, fuses, circuit breakers, or current transformers When it is necessary to interface between sions, relay coil-to-contact isolation is redundant Class 1E divi-acceptable. That is, the coil of the relay may be powered from one division and the relay contacts can be used for interface with a redundant division The contacts shall not be used in more than one redundant divi-sion circuit since this condition would be contact-to-contact separation .which is not acceptable.

Class 1E instrumentation circuits may be isolated from NonWlass 1E portions of the circuit by a fuse, resistor(s), or an isola-tion amplifier.

Associated Circuit Design Requirements 1 ~ Prime Circuits a~ Redundant prime circuits shall be physically separated with the same requirements as redundant Class lE circuits (See Section ZZ.B) from the load side of the source circuit protective device to the final connected load except as noted in c. below. For example, a Division A'ircuit shall be separated from a Division B'ircuit and a Division 2 circuit; a Division B'ircuit shall be separated from a Division A'ircuit and Division 1 circuit.

b. Class 1E power sources shall be protected from failures within prime circuits by a Class 1E isolation device.

C ~ Deviations to prime circuit separation criteria implementation are as follows:

13

. ~

1) " Circuits downstream of Class 1E Wsolation devices

(~ (circuit breakers) which are tripped by an accident signal shall be d

--treated as -Non-Class-1E'andrnot-as "preme'. '"

I ~

--2} '-"Emergency lighting, obstruction lighting, main control room normal lighting, meteorlogical tower supervisory, and fire p2oteHioiPcirc6its shall~ be grovided-with two series Class 1E isolation devices (circuit breakers/fuses). Downstream of

"- ""the Becondcksolation"device the-ciicuitcshall 'be"'treated as c cuNon<Xass 14 Snl~nat as"prime"v-cc aoecua"'. =""--

3)' single'-circuit supplies power to the Technical:Support

-.--,-Center -(TSC) '"'Thiscircuit shall be routed- as: prime-to the

~

~ - -Motor Control Center incoming breaker (NonWlass 1E) located

-in -the TSC ~ Downstream of this-'breaker =the circuit shall be tr'eated as-Non-"Class 1E"and not as'rime ~

')

--Circuitscsupplyingcpower to the 24VDC power sources for the Transient Data Acquisition System remote multiplexers and the General Electric"scope Regula'tory Guide 1;47 displays

"'-~~"shall be"routed as"prime-from. the Class"1E"-isolation device (circuit-breaker) to. the curient limiting 120VAC/24VDC power

--- supply"'ownstream of. this--power supply the circuits shall be treated as Non-Class 1E and not as prime S) Circuits supplying-power to'ther Regulatory Guide '7 1

-= -- .displays from the -Division 1'and 2 24VDC batteries shall be treatedyas Non-Class 1'Erand= not V vp 'h

~ i 'a\

\ ~ .

as-'primei'u

6) The Non<<class 1E inverters (IN-1, Security System, and TDAS) input power ciicuits from the Class-1E 125VDC battery shall

- be treated. as prime to the= inverter. Downstream of the inverter--the output circuits shall be treated as Non-Class 1E and'ot as prime 2~ Proximity= Circuits circuits:.when routed. in-a Class 1E raceway ("Associated by

'roximi:ty Proximity" ) shall meet the same physical separation criteria as that applied to the Class-lE circuits as follows.

~ v 'i.'.one Or Li(. Ci cu. Qp c. Qst' '~~As iol ~ a ~ Qz c '. '4 ~i

a. Routing'criteria for proximity circuits are as shown in Tables X, XI, and XII external to PGCC and Table XIV within PGCC ~

"-. Pioximity circuits-may also be prime circuits. Refer to Section II C 1 for prime circuit separation criteria.

b Proximity circuit sections routed in Non-Class 1E raceways shall be treated as Non-Class lE and have no specific separation cri-teria applied'except as"described in Sections II.B. 1.a'5 and II.C.1 (See Figure 4).

c. Within equipment- or enclosures, no specific'eparation criteria is applied to-proximity'ircuits= unless- they are also*prime cir-cuits.

d. Bridging; Circuits--:.-

e ey/

1 ) Class im circuits', prime circuits; ahd: proximity circuits, as shown in Figure 1A shall not bridge between redundant C3.ass;,1 gcraceways;.:, Design-;control.,to - aler t; designyrs of, a-potential. for cable, digect,bridging.--isr provided. by Nate. 6 in thpo mmpatyrgzeguga51e,; schedule.-g Ba~ prawiz)gq<.>>$ 5(Or and class E551 }.">1Fefer to; Tab3.e(WIVy -.Examples".:1" through.,9.; ns;...ea-A ' '

8 X e e e l ~ '

e ee S

4 ~

Jl5 \

h ea x wv t 'I '4

2) Secondary.. bridging'within- Class 1E equipment or enclosures is allowed for low energy circuits as shown in Figure 1C.

e e\= ~ h / 0r r

3) Secondary bridging by-proximity circuits. is allowed to occur within NonWlass 1E or.Non-Divisional raceways as shown in Figure 1B It. is..acceptable to route. Divisions; A,. B, XXXly XXX2, and-XXX3 cables together in the same PGCC Non-Divisional raceway.

e ~ Note 5 of .the>.computerized.- cable scheduleis .assigned,to any .-

NonWlass 1E cable. with the potential,to become- a direct bridge.

This occurs when.,Wis cable. is routed"in: a;-Class 1E.,paqewayoand has a continuing section- routed in a Non-Class 1E. raceway. For example, Note 5 would-be applied to-a= Division Axcable routed in a Division -1 raceway and subsequently routed into a

~

Non-Divisional PGCC raceway; potentially this cable could be routed into a Division B raceway and .then,ipto.a Division 2 raceway creating a,,direct; bridge.

Prime and Proximity Circuit Identification m AVe

a. Prime cables routed- in, Diyision A and B raceways in general plant areas shall be uniquely identified with p color coded marker every 15 feet as shown in Table IV except as. follows:

1) Prime cables routed in conduit need not be uniquely iden-tified with the color coded marker.

.-; =-

2.).... Enclosed=. and open"raceways shall be identified .every 1-5

=.".-.:.-;..-feet-, at discontinuities, at. pull- boxes,- and.-at end points With the appropriate prime color coded marker. If Class 1E cables are also routed within the same enclosed raceway then

.'ot.. the raceway.- wi13. beoj4entified-ys-Diyision le~through" g<- and no.prime,.garjcer, is. required, 3.) ,Cables that have been upgraded, from NonMlass 1E to prime and are already physically installed in plant raceways shall

-: not be retrofitted.with the prime,color .coded marker.iexceptl at all terminations, pull points, and entrances and exits to

,.raceways. C~ ~ ~ I ~ - ~

b. Prime cables routed in PGCC raceways shall be uniquely identified with a color coded marker every 5 feet near the cable divisional marker- as shown in Table V except as, follows:

15

Circuits. that have been upgraded from NonClass 1E to prime and are already physically installed in the PGCC raceways shall.. be-identified with= the. prime .color coded.marker:only at:entrances and exits to,PGCC.,raceWays and,at.terminations within enclosures~, ~e~g.q>> con;.rc.. ~~ a,~e:.;.. ces~ -,.n~. s c en>>A j 2 ~ c( ca( 4 d1+ Qc b cc ~ 4s Qrov (,

Co Wi thin tClaSs m') E. enclosures lynd cequipment;intrgd ing sprite circui ts shall be-.identified the('same as-Class 1E~intruding-circuits as in II '.4.e above.

d.

e<<c (a ~ bv'0/ c'( (c $ t( '( Tl C (

~ (%

Within Non-Class 1E-mu3.+-divisional;enclosures and.equipment 1 ( c (,( . <<1 '( (+('

I assigned to either Division A, Bg XXX1g or XXX2g an intruding prime circuit shall.-benuniquely,-.identified as.in;ZZ B.4.e above.=

C ~

r e Proximity circuits shall(have a unique. color; coded. marker as described, in;Table:ZV.,-... e(

f ~ Conduits which contain prime and proximity cables with a Division 1-through 7 ~ompatibi),ity<shall. besjdentified wj,th;the appropriate..divisional separationngarker eyen -.if +ese.cqnduits route tocNon-Class r1E enclosuresqor~tequipment.=ss E race ~~v are

( '\( (

" ( 4 -C NON-CLASS lE- CIRCUIT, DESZGN REQUIREMENTS -.c i =.

i(: ' ~.

(k 'h(

Non-essential circuits. or. portions.of .circuits, which, are-not prime or "Associated gory.,Proximity"( are termed.and treated as Non-Class-1E. Refer ~

also to Figure 4..-Electrical. separation criteria shall not apply to Non-Class 1E circuits except as noted in ZZ B.1.a) (5) or below for uti- ~ ~

lity power circuits, -.,NonMlass 3E:circuits shall be assigned to Non-Class

~

1E divisions as shown in Table XIV Non-Class 1E raceways need not be physically. separated,,from. each other or.from, any Class 1E raceways. unless they contain power-circuits. .Deviations to strict divisional assignments are as follows:

Digital computer signals-in the reactor building are routed in Class

. 1E divisional raceways as applicable by the device being served.

Non-Class 1E digital signals in other areas are routed in instrumen-tation raceways =of Division B;-iryespective of device;,division being 2~

served. "pr. ~ w I(

Analog computer'signals;,in o-( <<q<<w

~

..-the

- (" p(,

( '

L ~

'<<8 ~'(<<g<<(p(

<<(s g=<<

reactor,>>building<ar8, routed rin,.Class-

~ (

.

1E divisional raceways vaz. applicable.by< the device-being.-served'on&lass 1E analog signals ineothex areas are routed in instrumen-tation raceways of Division A.

16

<<>>> Non-Class 1E Division A=wnd B raceways,~..excepting.condurts; do'not exist within the Reactor Building or::,the Cable Spreading Room; This, requires o<

that most Non-.&lass -.15 .~'ables;3e routed--in Class 1E:,raceways;i.;-.these cables become "Associated;Ay .P~ximity!'.. -Division A,and-.B conduits @outed .,within these areas are..designated;with separation markers as shown in Table IV.

If cables within these conduits have a Division 1 or 2 "compatibility" then .the >separatLon,.markers >aha1l-..be>fain inaccordance..yd th> .Claps.-9E= requtr e=..

ments (see;Section.cXX+B'4)-.'ze s;- ~;"~ .".',".s>> ".I int-v-1 r! c:.-c;.<<:.", ar i..

Within PGCC, raceways are designated Division 1, 2, 3, or Non-Divisional.

No Division A..or .B -raceways exist":-;Thus.; Division..A,,and B,.:cables shall be assigned to Division;1;and 2, respectively," .or to, a Non-Divisional -'-,-

raceway..":- .. -:.".;=. sn;...l,i-;,n>c.. >>,.ue;>z .= c <,= .>. ~ .. ~" . a<<~oi"-.

Within Class 1E Main Control Room panels Non-Class 1E utility=power cir-cuits shall be separated by>6" or a barrier from all other wiring.

Non&lass.;1E .cgrcuits.:need, got. be"uniquely identified.~npide enclosures .

or equipment. except fog,;;yires .'as,,shown.in,-Table VI....

>\ +

>>> = \ 9% <<QVi NonWlass -1E. cablesxrouted in. open ~clays. shall,;,be,;uniquely identified as described in Table IV. Non-Class 1E cables shall be tagged with color coded markers':,at..their. terminations,'ull points, entrances and exits to raceways, and every 100 feet. Division A and B raceways are tagged every

.,'l,00 feet, at discontinuities;-.:entrances and;exits.=to rOoms,-..gu13. boxes, c> c4,'. ~ >><<> - <<>,> " .> ~ w<<<<v>><<

-Non&lass 1E .cables.-routed:.in PGCC raceways. shall .be uniquely.>identified with a cable S.D .,marker every 10 feet.and with .a,color:.coded =cable

<<W% 4 ~ 5: ~,

".separation..marker.qeyery 5.fe~;as shown in, Table V.;cc,w,v- n;.<,

.The NonWlass -1E-cables which whollyqroute in-compatible.NonWlass lE V C << ., << ~ 4

~

raceways (Div. A or Div. B) are routed in accordance with cable routing criteria stated in Tables X, XI and XII. Division markers for equipment/raceways and cables are color coded perTable .IV.

Criteria Implementation -;~-

, <<c:.4 v',- <<),>,J,.vh.bc", ',.>-.;; . v(. o odv} c ><<v .s>

The purpose. of this section is to assist the design engineer in the implemen-tation of the design criteria. The principal elements for design consideration include: ~na co'a<<'." s Q ><<>,a<<; ,. l... g'- cuo Q "~gQ3L>w a '8 rout o 'll gas.,

' v s=on-. r\. ew<< 'v='as aD," ca~:.-. Dv tne o'-'vl e be' se v

~ ' > << 'A '>

Device,,service requirement,,q .;.

e Providing an appropriate power supply based 4

~

on device service requirements, 4 Assigning the cables to meet device/power source compatibility, 4 Routing of the cables in raceways to meet 'the separation criteria requirements, and Enclosure/equipment/raceway/cable identification.

The following details explain the steps to be followed to assure proper imple-mentation of the criteria.

17

d I

'1

Class 1E Circuits-Class lE"systems are listed in Table IZ. r OCCCa'... '.'!'O<<'<<'; By CX .. L' d:.V<<,~.'..O.. C-. an<< 'On .

" ':O:.

All Class"1E electricalcequipmerit is "tagged=witR"ari"equipment"nGmbei'n addi-tion, a-division identification" marker is prove.ded"whi.ch indicates the"assign-ment totBne oX seven" BiViSibns"(Divisions"1,-2,'5, 4, 5, 6, 'Knd 7')"

marker is 'inscribed'ith color coded characters using the color scheme

'his'""""'ivision shown in Tables III, XIII, and XIV for all equipment external to PGCC and per Table V'for equipment-internalrtooPGCC"including control'oom panels.

All devices required to"preserve Class lE functi'ons"are'upplied from-Class 1E power sources'of the compatible division as shown in Table II. For example, RHR Loop A is supplied from the Division Class 1E power source.

1 The assignment of a. propei cable number is key-to the implementation of separa-tion criteria. Each cable number is guided by Class 1E division designation, the equipment-of origiri, and the. circuit/cable'.identification-number.="The metho-dology of cable numbei'ssignment and the significance of various characters are provided in Tables VIII, XIII, and XIV. Zn addition to the unique iden-tification'umber;-each'able"is also"identified'>>witli"a'ivisional"marker.as- -

shown iri. Tables-IZZ and "V>>'-'

maL ~ A Routing criteria for Class 1E cables in General-Plant Area raceways is provided in Tables X, =XI and XII; Table XIII provides'he'outing iequi'rements inside the PGCC raceways's indicated in these tables, routing of Class 1E cables in non-compatible division raceways or Non-Class is not

<< -."S= i Ca' "-l 'ul '" l .-'i 1E L

raceways c','. c '.".. "saL. :...C ~

permitted .

CL'- ~

are designed to meet =the- criteria -requirements as stated II "B.1 'he" raceway" identification scheme's provided in Tables IZZ

'ivisionalized'raceways-in Section ~

and V.

'I Each class 1E enclosure is identified with an appropriate divisional marker to ~

show the residing Class 1E division of the internal cables and-wires. Intruder circuits are identified with a color coded-marker in accordance with Table VZZ.

B; -Prime Circuits "

prime ci.rcuits-are"*identi>>fied-on the"cable'schedules 6y a"A'I or B'2 de'signa-ti'on-in the "SFTY CLR" field.See"'Table"ZX'Column 14'for details'A'1" Signi-fies-a-cable that connects a Class 1E Division 1 power source to a NonClass lE Division A device. Similarly B'2 signifies a cable that connects a Division 2 power source'o a Division' device.

The Division 1 power source is* nevei Connected to a Division B device via a

'i'milarly, a Division 2 power source is never connected to a Division A B'able device via an A'able.

All prime cables and the Non-Class 1E divisional raceways in which they route, in addition to the Non-Class 1E identification markers, are identified with a checkered marker as described'n Tables IV and V.

A'1 and B'2 circuits are not routed in the same raceway. The separation requirements for the prime cables in enclosures is the same as that for the Class 1E cables as shown in Table VZZ.

a ~

Within PGCC prime circuits are required to be routed in Class 1E compatible divisional raceways as shown in Table XIV.

18

C - Non-Class.

~

1E Circuits A

~

-NopKlass .1E circuits.suck. as. Turbine Generator, plant service circuits, etc.

are assigned to either Division A or Division B. As described in Section ZZ.D,

. lNon-,Class- 1E, raceways for. routing.. of )on.-Class 17,cables do not exist, in all.

~g.anat, areas.. Therefore, certain,Non-Class,,1E,cablesc:(prefiped wi+A or B), are mepqquj.red to;.be..xputef.in> glass>.1E- raceway systems.. guch. cableq are,,treated as

~;~.associated-.by. Proximity"; and are..divisionally marked, as shown. in-Tables- IV and Dalvi ii ITI 1 t

~

v i ~ ~

w<<r

' ~

v H

v DTaw a

i

~

~

r l v

~ i c ',

r vie ~ e'D v

iar r v er "

i

<<i*a ev ~

. a Within PGCC, Division A, Division B, XXX1, 2 and 3 Non-Class 1E circuits are

- allowed to, be .routed- together in a Non-Divisional raceway. Precautions must be

-.,o taken. to-,assure-that., these, circuits do not, cause direct bridging ~ Refer to-

,= Table XIV for further discussion.

u3.on c"" <<>>.'.: c i ~c.cI r

cc 5'= a~Detail

~ ), r '8 1 " -e ' A

~

e ee Ie

...-it, A r I aa M ~

de logy .>. "BD,'.e 'I I

~~ D e Dame:i v i nv ~".', =3 CneL '. '.. ?ioi Cr'" Va .Xcl'l! ".'li r" C' t '.'.

'rica;-:c". r v-..." ., Transition;-Point, -.,

r- TP Non-Class 1E Class Raceway Non-Class .1E""- Non-Class 1E Device .

~- '  ! v e C 1.E outeyn 0 "

)toaa ~re, i IL

-; Raceway  ;;, End Device

-AHISC-9001 -AHISC-9001

, Typical-Cable Tag-AHISC.-9002 ... 4 Typical Cable .tag-AHZSC-9002

.Typical Tray-.Compatibility C1--. e Typical Tray Compatibility CA Detail 1 illustrates the treatment of a proximity cable with sections routed in

-both Class 1E and Non-Class:IE raceways. Due to the programming limitation of

- the computerized

=

cable schedule, -such a cable is treated in two sections ~ The section routed in the Class 1E raceway is assigned a type, a divisional com-

. patibility, and an AXXX 9000 series number in the cable schedule. This entry (see Table ZX, Column (2)) is developed as shown in Table VIIZ, Item (2) ~ The

. cable-destination is called-. out -to be TP. ,:an .imaginary Transition Point with

a. note thati.the- cable continues to be identified with a consecutive. number.

fRefer M.Table-ZX~oColumn $ 4]igor petails.. oThe portion .raceways' of the. cable which is Drouted in aeNon&lass, 1E; raceway has,.type/cable,compatibilitycnoted in Column 2 opfa,Table ZX.- This. section. of .the cable is assigned a consecutive cable number.

The 9000 series cable as described above are color coded as shown in Table IV.

Note that both consecutive cable numbers appear along the entire length of the cable in the, Class 1E.as. well as.the Non=Class 1E ,

a D. Non-Class 1E, Non-Divisional Circuits 2

-a ~ ~ v == ei e ' r I There are certain systems such apthe security system, fire protection,

~ c ~ e lighting,. communications etc. which are not assigned to a division.

gi,'t Identification requirements for these systems are noted in Item 2 of Table IV.

I~ "~

p f li e

~ *

'E( General Plant/PGCC Interface

~ ghr The requirements I ( r, ~ rr ~ 1'1 1 ( r ')c <<i ~ <<111 ~ Crc pf General. Plant/P~C inter face are shown, in Table XIII and.

i,.(1rh<<rh' ~ wch rh 1 << I C1 XIV. GE NSSS circuit, designis,.based on the general. details provided in Tables XV, and XVI, I<< 'I

<<<<\

~- 1 - C ~

"cc" =- ~. - '.".:. rou-e= in Cl.s: 1E rac:~;,ay systems. Suc:. ca~le= a4r =r>>.;z d IV h ~ hh (- 1 1 \ I " 11 I~ I << ~

To be provided in Revision 1 to this document.

V. References WNP-2 FSAR Section "8:3 Contract 218 Specification General Electric Specification 22A7416-'1

~ I" << \ << I~ ~ he% ~ ~

r . IE O ~ ..I << I... C-.C=.E

'\ r

~

~ ~

SF.-<<r

'<<C, ~ I << ~ CC = ~ ~.

~- I'C ) CI C. 'I" '<<h'h r 1<< '( ~ gh

('fe 'c C

h

<<<<s 4k)A . ~ I<<4 ~ CCIIC j.<<I ~ ~ Oc LI C4E 4 'IIII' c ron " '1. a acewc v ~

J 4 1I 1 I ' <<C(c<<r '. O',CE)(c <<i'<<~(.r. <<V nh<<'C Xc<<<<( r '"

CCI hh ~ 1~

~ ~1 O Vr. <<1

<< I=

' r <<. I~ I

$1 20

TABLE I

'I POWER/CONTROL CABLE CLASSIFICATION

(I r .; Q l 1 w7 ID O ld

<<Il 'l<< l'$

iD ~ C <<D

<<lj LOAD TYPE I$ I<<) l)<< J Ig fh

)<<

FDR 'S '10 METERING, <<'HALL r l<<) il SERVIC HOTOR- 'R g lLOC PRO'gECTIO lI ALL EXCE SPACE HEATE TRANS ~ SWG 'MOTORS ~ r VOLTAG fn l)

SHALL OPERATE SOLENOI ( INC o MOTOR PROCES (INC e PWRo CONT e PANEL 6 CONTRO ~ (SEE.NOTE in .;l

(') iI (VOLTS ) MOTORS VALVES VALVES HEATER) HEATER AND LIGHT'Go (SEE NOTE'), CKTS ~ 1 l~

(See Note 2 I<<

ll BELOW'OTORS <<7 o :S l) ll (I :l () I )

I<<

120 VA C C -,, C C 1'D 125 V (up to 900W) (up to 35k. i 6 circuits) <<fj iD D) l)

D) 120 VA P GC;:. NA III

<<)

125 V 6 BELD l)

I <<)

l

~) (0 ABOVE NA P NA <n NA <<<<<)

i o I 120 VA 125 V 0 I <<<<

ll I<<)

<< I

~ l<<

NOTES: ~

0 l) lD P ly 1 ~ INCLUDED ARE: ELECTRO HYDRAULIC OPERATORS (EHO 'S ), HVAC DAHPERS, NMS STARTUP RANGE l) l<<<<'

DETEC1OR DRIVE MOTOR, HOTORS UP 10 1/3 HP <<

p<<

2~ CONTROL DESIGNATION IS 10 BE RETAINED FOR CABLES REQJIRING SIZES LARGER THAN 510 AWG FOR (i l ~

l<<I VOLTAGE DROP REDUCTION l" LEGEND: "<<I

)f p .<<<<

P POWER C CONTROL <<

NA NOT APPLICABLE f<<) I

~

g '<<

<<I<<

l l<<

~ <<

21

0 I l

TABLE I I ASSIGNMENT OF SYSTEMS TO DIVISIONS OF SEPARATION Division I Division 2 Division 3 RIR A RIR B HPCS LPCS fOR C Standby Emergency Power 3 .

Containment Containment Outboard Isolation Inboard Isolation 125 VDC Valves Valves Battery 3 Standby Emergency Standby Emergency HPCS Service Water Power I Power 2 RCIC Safety&elated Display Instr 3 Automatic Oepressurlza- Automatic Oepressurlza-tlon Olv I controls tlon Dlv. 2 controls Standby Gas Treatment Standby Gas Treatment (Loop 1) (Loop 2) 250 volt DC Battery 125 volt OC Battery I 125 volt DC Battery 2 24 volt DC Battery I 24 volt DC Battery 2 Standby Service Water Standby Service Water Pump A Pump 8 MSTV-LCS (Inboard) MSTV-LCS (Outboard)

Leak Oet, System I Leak Det. System 2 CAC I CAC 2 Cont. Inst. Air I Cont. Inst Air 2 SLCS I SLCS 2 Mn ~ Cont, Rm HVAC I Mn ~ Cont Room HVAC 2 Remote Shutdown I Remote Shutdown 2 RPT I Output RPT 2 Output Safety-Related Display Instr. I Sa fetym I ated Display Instr. 2 Suppression Pool Suppression Pool Temp, Monlt I Temp. Monit. 2 Power 8, Control for Power 8, Control for Selected non-Class IE Selected nonWlass IE Equi pment (prime clrcults) Equipment (prime circuits)

Fuel Pool Cool lng and Fuel Pool Cool lng and Cleanup I Cleanup 2 Reactor Bldg. Pressure Reactor Bldg Pressure Control I Control 2 Orywel I and Head Area Drywell and Head A'rea Reclrculatlon Fans I Recirculation Fans 2 ASSIGNMENT OF RPS, NSSSS ANO NMS TO DIVISIONS OF SEPARATION (FAIL-SAFE WIRING)

Dlvlslon 4 Division 5" Division 6 Division 7" RPS Al RPS A2 RPS 8I RPS 82 NSSSS Al NSSSS A2 NSSSS Bl NSSSS B2 NMS A %IS C NMS B %IS D

+ Compatible with Dlvlslon I Compatible with Division 2 22

TABLE III DIVISION MARKERS FOR CLASS 1E EQUIPHENT, RACEWAYS, gj CABLES EXTERNAL TO PGCC EQUIPMENT/RACEWAY/

>> P i/i i m {" '< CABLE; MARKER . ~ O (~

C 0 A CABLE RACEWAY .7 Q

DIVISION DIVISION RACEWAY CABLE HARKING MARKING BACKGROUND CHARACTER r TYPE DIVISION ' CHARACTER CHARACTERS COIDR COLOR IA 0

H,P,C,S DIV>> *DIV1 YELIDW BLACK H,P,C,S DIV>> 2 *DIV2 ORANGE BLACK Q H,P,C,S 3 DIV 3 *DIV3 RED BLACK R,C,S 4 CHA1 *CHA1 LT>> BLUE RED R,C,S CHA2 *CHA2 GREEN RED R,C,S CHB1 *CHB1 DRK>> BLUE RED R,C,S CHB2 *CHB2 BROWN RED

>> I -"

Raceway Types *Raceway 'type letter is utilized at beginning -.

of marking characters, H High Volt Power E

"16 KV and above Example: PDIV1 = Power Raceway, Division 1 P Power 480/240/208/120 V AC 250/125 V DC C Control-120 V AC/125 V DC and below S, Signal R RPS Scram SOV Raceway n-Typical Division 1 Markers (Yellow Background) 1LPCS-5 DIV>> 1 *DIV1 DIV>> 1 Black Characters (Typical)

Cable Harker Raceway, Pullbox, etc. Equipment Marker Marker The Cable Marker Includes (Voltage Level is Added Both the Cable Number 6 For Above 600 V The Division Harking Application)

Characters 23

TABLE IV Page 1 of 2 j jj DIVISION MARKERS FOR PRIHE AND NONWLASS 1E ENCLOSURES, EQUIPMENT, RACEWAYS, AND CABLES "J " ~

EXTERNAL TO PGCC j J

E550/E551 REPRESEN CABLE E550/E551 PRIME CIRCUITS DIVISIONA MARKER CABLE TATIVE, MARKER REFERENC (NOTE 2)

HARKER- BACKGQOUN C HARACTE COMPATI- CABLE BACKGROUN NOTES E550/E551 ADDITIONA COLOR COLOR BILITY NUMBER COLOR SAFETY CLR CHECKERED FIELD MARKER AMISC402 Si iver

• DIV A, Salver Black A'1 Red/White (NOTE 1) .:,Si iver/

AMISC9001 . Yellow BHISC402 Gold MDIV B Gold Black B'2 Green/Whit (NOTE 1.) Gold/

2 BHISC9001 0ranqe Notes *See Note on Table III

• • See Table VIII, Page 4, Note 5 See Page 2 for Notes.

Equipment Markers for Non-Class 1E Devices

1. Equipment marker for Div.. A separation class is -, Black characters on Silver background.

Equipment marker for Div. B separation class is - Black characters on Gold background.

2. All non-divisional equipment, raceways and cables shall be identified by a tag having black characters on a white background.

'l cj'say, j'j 3 ~

j JJ ~ 'I l ~

24

TABLE IV Page 2 of 2 DIVISION MARKERS FOR NONWLASS 1E EQUIPMENT, RACEWAYS AND CABLES EXTERNAL TO PGCC NOTES 1 a A NonMlass 1E 9000 series cable is routed partially or wholly in a Class 1E raceway (Associated by Proximity) ~

b. A Non-Class lE cable, which is physically not separated from a Class 1E cable within its equipment of origin or destination, but is never routed in a Class 1E raceway, is also assigned with a 9000 series number. These cables are marked with dual color tags as stated above for a 9000 series cable. However, such cables are not considered to be "Associated by Proximity". This is implemented by "Non-divisional (Div. A or Div. B) cable compatibility" in E550/551 cable schedules.

2.a. Prime cables connect Non-Class 1E loads to Class 1E power sources.

A'1 signifies Div. 1 power feeder to Non-Class 1E Div. A device.

B'2 signifies Div. 2 power feeder to Non-Class 1E Div. B device.

A '2 6 B'1 circuits are not permitted.

b. An additional checkered marker, as stated in the table, is applied to prime cables as well as to the Non-Class 1E raceways carrying prime cables.

25

TABLE V DIVISION MARKERS FOR EQUIPMENT, RACEWAYS, CABLES IN PGCC*

C Cl CABLE MARKERS 0 ~-

4J 0 CABLE SEPARA- V W 'Cd J CO ' 4J Cd V V Cl TION MARKER 0 C

4J C" 'Cd H Cl Cl 0

~O O Cd Cd Cl 0 8 8 Cl~ V 0 I N (le CO 0 Cl 0 Cl Cl c J g A V L N 00 0'd V 0 C1l 0 Cll Cd VW Cd m u NQ Cd 4J N Cd Cl A4J ClW 0 Cl J0 0 Cd Cd CI

<<d cd 0 Cl T C N V Ndl 0U cdu cd Cl Cl 0 Cd NH Cd N CQ T 0 4J 4J Cd 0l 0 Cl 0 Cl Cl Cl 00 Cl Cl W Cl Cl W Cl L c U H g V Cd CQ Sl H Cil E V 0 ~ Cd <<d 8 A 0 J0 0 Cl

~0 Cl Cl 0 Cl C0 Cd Cl b0 Cd Cl R 0 CluCl8 8'RW Cl Cl Cl Cl O

O N

Cd H

y0. V Cl O a uClOX I R u '0 O

O A O H 0 OQH C0 CO a0 OOQC cd cd cd OOOOcd C cd N Cl4 Cd cd 8 N U C9 Cl4 Cd 8 &

Cl C3 Cd 0 CW V V G

RPS-A1 RPS-I RED DIV-1A DIV I BLACK X RPS-Bl RPS-I RED DIV-1B DIV I BLACK N/A ESSZ ESS I BLACK NSSI NSS I BLACK DIV 1 YELLOW SI,CI DZV I BLACK XXXI N/A N/A RED/WHITE DIVA N N/A RED HITE

~~

VI RPS-A2 RPS-ZZ RED DZV-2A DIV II WHITE RPS-B2 RPS-ZI RED DIV-2B DIV ZI WHITE N/A ESSZI ESS II WHITE NSSII NSS IZ WHITE DIV 2 BLUE SII,CI DIV II WHITE XXXII N/A N/A GREEN /WHITE X DZV B N /A GREEN /WHITE a

ESSIII ESSZZI WHITE N /A X XXXZII N A N/A BLUE/YELLOW DZV 3 GREEN S CZII DZVIZZ WHITE N/A Non- XXX1 Div XXX1 1 N/A N/A N/A N/A WHITE XXX1 '1 1 DIV A DZV B

• This table includeS'ontrol room panel markers even though these panels are not defined as part of PGCC.

26

TABLE VI INTERNAL PANEL WIRE IDENTIFICATION For the purpqse of d$ fferentiating between wires and cables, all individual conduc -

ticondu tor cable shall be )efined as wires. In addition-,. single conl;-:>t ill..~

10 AWG and smaller shall be defined as wires within equipment and sha l bL re unread. onl where wires from 2 or more cables terminate to a;.

device~

I l: ll I

a

'I I

I The cfires of:; prime c bles requiring Wire markers for tracleability shall be iden-tified,'.with

.i

'l

~

'l

-the appr priata prime cable marker installed- in a flag fashion adjacent to;,each wire, marker.

I I

The color of the( cha racter; and marker sleeve~ bhckgrounh shall be derived from the cable I

number<,and,",prefix asl follows:

I..

1

() l I.,

t

~

I, l l ~

I f, I s Wire Marker l

/ I l t cable Functionali Division l Character Color' Backqround Prefix 6 (No. ) Colo'ellow J

1 Black Black Orange Black Red 4 Red ~ I Gray 5 Red Green 6 "

Red Blue 7 . Red Tan A Red White B "

Green White A (9000) Red White/Yellow B (9000) Green ~ White/Orange I

27

TABLE VII INTRUDER CABLE MARKER l>~<i 6= ~

y ~

y c ws', rj4 ~ ~ s' ~ ~ ~ II,",c] 1 'I l ~ f o' gl t'

~ wl 1/ ~ p~ ~q g [< ~ ~

'I ~ 'I Each enclosure is identified with an appropriate divisional marker to show the residing division of the internal wires/cables. If a Class 1E or a prime cable intrudes into the enclosure I of a redundant Class 1E division, or,a prime cable intrudes into a Division A, BXXX1, XXX2 enclosure with redundant prime cables then that cable and the internal wiring connected to such cable shall be additionally identified with striped marker tape using the following color scheme:

Intruding Cable Marker Divisional Assignmenl Striped Marker Color Code 4i 6i A'r XXX1 Yellow/White XXX2 Blue/White XXX3 Green/White-All cables identified as intruding cables within equipment/enclosure are identified with a striped marker, as stated above, every 12 + 2 inches beginning at the panel entrance point and continuing to the internal wire string associated with each conductor.

28

II ~

I fl t

TABLE VIII Page 1 of 5 EXPLANATORY INFORMATION CONCERNING CABLE ROUTING CABLE LEGEND The legend for the column.,j,dentification in Table IX is as follows; (1) CABLE NUMBER

'>> ey " =g Cable numbers have ten, spaces allocated., Five spaces before the dash and four spaces 1 a ~ ~ ~

after the dash. Each space has a specific meaning, as described below.

FIRST SPACE SIXTH SPACE 1 DIVISION 1 Always to be the, Dash (-)

2 DIVISION 2 3 DIVISION 3 4 DIVISION 4 SEVENTH g E IGHTH g NINTH 6 TENTH SPACE 5 DIVISION 5 6 DIVISION 6 Numbers 1 thru'9999 as required 7 DIVISION 7 A DIVISION A B DIVISION B SECOND g THIRD g FOURTH & FIFTH SPACE System or Equipment Identification-The following are typical examples:

ADS AUTOMATIC DEPRESS'YSTEM RHR RESIDUAL HEAT REMOVAL IR1A INSTRUMENT RACK 1A M7BA MOTOR CONTROL CENTER, NO. MC-7B-A MISC MISCELLANEOUS P8AE POWER PANEL, NO. PP-8A-E SH5 SWITCHGEAR 6.9 kV (HIGH), NO. SH-5 SM7 SWITCHGEAR 4.16 kV (MEDIUM)i NO ~ SM7 SL71 SWITCHGEAR 480 V (LOW), NO. SL-71 EXAMPLES OF CABLE NUMBERS:

1M7BA-221 = 1 (DIV. 1) M (MOTOR CONTROL CENTER) 7BA (MCC NO.) 221 (CABLE NO.)

29

TABLE VIII (Continued) Page 2 of 5 2RHR-222 = 2 (DIV. 2) RHR (SYSTEM),222 (CABLE NO.)

(2) T/C (TYPE AND COMPATIBILITY) i T = TYPE OF RACEWAY WHICH CABLE IS COMPATIBLE TO IS AS FOLLOWS:

P POWER C CONTROL H HIGH VOLT'(6.9kV, 4 .16kV) S SIGNAL R RPS Rc RPS SCRAM SOV RACEWAYC K COMPATIBILITY (OUTSIDE OF PGCC) WHICH IS AS FOLLOWS:

1 COMPATIBLE CABLES ARE ROUTED IN DIV 1 RACEWAY SYSTEM ONLY

' COMPATIBLE CABLES ARE ROUTED IN DIV 2 RACEWAY SYSTEM ONLY 3 COMPATIBLE CABLES ARE ROUTED IN DIV 3 RACEWAY SYSTEM ONLY 4 COMPATIBLE CABLES ARE ROUTED IN DIV 4 RACEWAY SYSTEM ONLY 5 COMPATIBLE CABLES ARE ROUTED IN DIV 5 RACEWAY SYSTEM ONLY lt

~

i 6 COMPATIBLE CABLES ARE ROUTED IN DIV 6 RACEWAY SYSTEM ONLY

'7 COMPATIBLE CABLES ARE ROUTED IN DIV 7 RACEWAY SYSTEM. ONLY (3) ~ FROM EQUIPMENT OR DEVICE IDENTIFICATION WHICH THE CABLE ORIGINATES FROM (4) TO

'w EQUIPMENT OR DEVICE IDENTIFICATION WHICH THE CABLE TERMINATES TO J

SYSTEM AND/OR SERVICE CABLE IS BEING USED FOR (6) RACEWAY ROUTING NUMBER INDICATED DENOTES NODES THROUGH WHICH THE CABLE PASSES IN SEQUENCE IF LETTERS "ENTR" APPEAR IN THE ROUTING, THE CABLE ENTERS AT A POINT BETWEEN THE PRECEDING AND SUCCEEDING NODES'F THE LETTERS "ENTR" DO'OT APPEAR, THE CABLE ENTERS AT FIRST NODE SHOWN'F THE WORD EXITN APPEARS IN THE ROUTINGi THE CABLE EXISTS AT A POINT BETWEEN THE P RECEDI NG AND SUCCEEDING NODES ~ I F THE WORD EX IT DOES NOT APPEAR i THE CABLE EXITS AT THE LAST NODE SHOWN. THE ABOVE MENTIONED NODES ARE LOCATED AND SHOWN ON RACEWAY DRAWINGS.

WHEN NODES DO NOT APPEARi RACEWAYS ARE NOT USED'N SUCH CASESi".CABLES SHALL RUN HFROMN POINT OF ORIGINATION "TO" POINT OF TERMINATION WITH OR WITHOUT CONDUIT, AS INDICATED ON THE DESIGN DRAWINGS 30

t ~

I 1

TABLE VIII (Continued)

~

Page 3 WW\ I'Wof i 5

~ -~= -s~

3 (7) CABLE REQD.

'i'UMBER OF SINGLE 'OR RULED'IPLE CONDUCTOR CABLES REQUIRED.

(8) CABLE SPEC

r i, SEE CABLETYPES AND DESCRIPTIONS BELOW.

'4 (TYPICAL)

"}'}'<: ~

r CONDUCTOR OD AREA TYPE 'UMBER SIZE , INCHES SQ. IN.

8]KV UNGROUNDED NEUTRAL POWER CABLE 1C , 25.0 1.276 1.2788 i r ~

CONDUCTOR NO. "I r

IN A CABLE. = TWELVE CONDUCTORS,

'2C NUMBER OF CONDUCTORS (1C ONE CONDUCTOR ETC. )

(10)wCONDUCTOR SIZE WIRE SIZE IN EITHER AWG ~ OR MCM ~

(11) CIRCUIT LENGTH INDICATES TOTAL LENGTH IN FEET FOR EACH CONDUCTOR INCLUSIVE OF THE DISTANCES "FROM" THE POINT OF ORIGINATION TO RACEWAY ENTRANCE AND FROM THE RACEWAY EXIT "TO" THE POINT OF TERMINATION'HEN RACEWAY. ROUTING. IS OMITTED'ENGTH INDICATED REFERS TO DISTANCES "FROM" THE POINT OF ORIGINATION "TO" THE POINT OF TERMINATION IN FEET FOR EACH CONDUCTOR. THUSr IF THE CABLE CONSISTS OF THREE SINGLE CONDUCTORS, THE TOTAL LENGTH WOULD BE THREE TIMES RUN LENGTH.

(12);REV S.

"i

~,';}r p II r',

3 }"'} . b'

~

iL

'i F ~

,a!',Or w

' ', . r, }

r/ ~i

} i}, '

" l'

"".Rrr

} ~ or' Wi II I I,'}i };>} 'r.

', DESIGNATES W w 1 W REVISION NO. OF THE CABLE-.ISSUE IS DESIGNATED BY THE RE V. NO ~ ' ~ THE; CONSTRUCTION ISSUE STATUS OF THE CABLE., W W i

\~

w>

I r, ~

'i

~ 1 W' W'I ~ }i i'='

~ t ' j=

i}'1

TABLE VIII (Continued) Page 4 of 5 (13) REFERENCE NOTES SEE DRAWINGS E550 AND E551 FOR REFERENCE NOTES. THE LISTED NOTES BELOW WHICH RELATE TO ELECTRICAL SEPARATION ARE REITERATED FROM THE ABOVE DRAWINGS.

E550 REF. ~ NOTES 4 THIS CABLE IS NON-CLASS 1E CABLE THAT DOES NOT ROUTE INTO REDUNDANT CLASS 1E RACEWAYS.

5 I TH IS CABLE IS CLASS FI ED IN THE SEPARATION GROUPING AS ASSOCIATED BY PROXIMITY ~

A) CABLE NUMBERS PREFIXED (FIRST SPACE) WITH "A" AND ROUTED IN DIVISION 1 RACEWAYS.

(COMPATIBILITY IS 1)

B) CABLE NUMBERS PREFIXED (FIRST SPACE) WITH"BN AND ROUTED IN DIVISION 2 RACEWAYS.

(COMPATIBILITY IS 2) 8 THIS CABLE MAY HAVE MORE THAN ONE DESIGNATION IN THE "9000" SERIES NUMBERS'OR ROUTING PURPOSES, THESE CABLES SHALL BE CONTINUOUS FROM ONE PIECE OF EQUIPMENT TO ANOTHER. THERE SHALL NOT BE ANY SPLICES OR TERMINATIONS AT TRANSITION POINTS, FIRE STOPSi OR CABLE NUMBER CHANGES. "TPB INDICATES A TRANSITION POINT. "CONTN INDICATES CONTINUED ON CABLE SHOWN.

WHEN A CABLE CANNOT BE IDENTIFIED AS AN INTEGRAL PART 'OF A SPECIFIC SYSTEM, THE NUMBER "9999" WILL BE INPUT AS THE MECHANICAL SYSTEM NUMBERS. THE CABLES ASSIGNED THIS NUMBER WILL BE REVIEWED PERIODICALLY. C 1 I 13 ALL CABLES WITH PREFIX DIVISION 1 THROUGH 7 AND PRIME CABLES DESIGNATED UNDER 'HE "SFTY CLR" FIELD AS A'1 OR B'2 SHALL BE INSTALLED TO QUALITY CLASS 1 REQUIREMENTS (ONLY FOR PRIME CABLES INSTALLED AFTER 10-20-81).

32

TABLE VIII (Continued) "Page '5'.-o 55 f E551"REF".NOTES SAME'AS 'FOR 'E550". ~ ~ ~ ')4 ' . l')". ~'Pl ~'I" SAME AS FOR E550 ~

) (.',:

SAME AS FOR E550.

)

~, g,

~ - -i c.

SAME'-*AS 'FOR E550.

21 THIS CABLE REVISED'ROM'ULTI-CONDUCTOR TO MULTIPLE SINGLE"CONDUCTORS DUE "TO I' 7 REQUIREMENTS ~ PHASING TAPE SHALL BE USED( FOR COLOR CODE LABELING ON 'NVENTORY CONDUCTOR ENDS ONLY ~ PHASING TAPE TO BE APPLIED APPROXIMATELY TWO INCHES FROM TERMINAL'ONNECTOR~ 'FOR COLOR CODE REQUIREMENTS SEE APPLICABLE CONNECTION DRAWING ~ '

C t

22 CABLES INSTALLED"AFTER 10-20-81) . =

l i 'J

ALL CABLES WITH PREFIX ( FUNCTIONAL DIV. ) 1 THROUGH 7 AND PRIME CABLES DESIGNATED UNDER THE "SFTY CLR" FIELD AS A'1 OR B'2 SHALL BE QUALITY CLASS 1 (ONLY FOR PRIME I "~I' 1'i'l

14. SAFETY CLEARANCE FIELD/

~ ~ h  %

q, P1 ]~I

• f %f $ j 'f( f,[fiji THE DESIGNATION OF(A1'1') IN"THESE FIELDS REPRESENTS A DIVISION A (NON-CLASS 1E) CABLE THAT IS POWERED FROM DIVISION 1 (CLASS lE) ~ AND SIMILARLY, B'2 SIGNIFIES A DIVISION B (NON-CLASS 1E) CABLE'~THAT'IS POWERED FROM DIVISION 2 ('CL'ASS-'lE).

" : 8':" 's, 'l:il'

' l'"j'p,c j~i r>

s

'~

~ . '! >"' '-ii( l'> 'l'11 I 'p ~

1

~

~

33

TABLE IX SAMPLEZAK~CHEDULE

( I) (2) (3) (4) (5) (7) (8) (9) (10) (14) (11) . (12) (13),

CABLE MECH FROM CABL CABL CONDUCTOR SFTY CKT REF NLtiBER T/C FROM TO SYSTEM DWG NO REQD SPEC NO S IZE CLR LGTH REV S NOTES AM7A-0102 P A X(HR TR-7A-B, I

PNL ELP-7A-8 FEEDER 4150 4 Gl IC 2/0 Atl 0015 002 AM7A-0152 P A LOCAL DISC SW PUMP HOIST FEEDER 5110 Gl IC 2 Ati 0050 002 MT-CRA-6A AM7A-9010 P I HCC HC-7A RFS BUS HTG GEN FEEDER 2620 3 Gl IC 4 A' 0044 002 SET HG"I ENTRtCOLX K. I 13t06tt;COLY 11 RTNG: 6987-ENTR-6994-EXIT-6995 EXITtCOLX K, I 6t00>>.COLY 12,2 35t00n- EL 56t4n

= ~

t AH7A-9100 P I MCC MC-7A,,TP... FEEDER 4150 3 Gi, IC . I/O At I, 0062 002 n 4y 5 CONT H(7A-9101 ENTR:.O'OLX K,i 13t06n;COLY 11 22t06n. EL 54t8>>

RTNG: 6992-ENTR-6987-6966-EXIT-6969 I

EXIT:COLX J 16t06n;COLY 10 6t06n; EL 51 t6't

• ' I Ik ~ T, AM7A-9101 P A TP XFHR 1R-7A-B FEEDER 4150 Gl IC I /0 A' 0366 002 + 4, CONT +7A-9100 ENTR:COLX J 16 06;COLY 10 6 06>>I EL 48 6 RTNG:6696-ENTR-6582-6583-,7054-7055-7058-7062-7063-I 7064-7065-1050-1051-1070-EXIT-1073 EXITtCOLX F 6 00n.COLY 14 13t06n EL 73t6n AH7A-9110 P I HCC I4 -7A CONT AM7A-9111 TP, FEEDER 5250 GI. IC ,4/0 A I 0066 002 I

405 ENTR:COLX K, I 9t06n;COLY 11 22t06>>; EL 54t8't RTNG:6992-ENTR-6987-6966-EXIT-6969 EXIT:COLX J 16t06>>'COLY 10 6t06't; EL 51t6n AM7A-9111 P A TP COMPRESSOR FEEDER 5250 3 Gi IC 4/0 At 1 0278 002 tt 4 CONT AM7A-9110 CAS-C-IA ENTR:COLX J 16t06n;COLY 10 6t06n- EL 48t6n RTNG: 6696-ENTR-6582-6583-6549-6548-6546-6545-0429-0427-EXIT-0424 EXIT:COLX G 6t06>>;COLY 7 8'00>>; EL 41'6>>

AH7A-9120 P I HCC MC-7A INVERT PKG IN-1 Ff EOER 4350 3 Gl IC I/0 At I 0054 002 ENTR.COLX K I 12t00>>.COLY 11 22t06>> EL 54t8n RTNG: 6987-ENTR-6992-6994-EXIT-6995 EXIT:COLX K, I 6t00n)COLY 12,2 33t06>>; EL 56t4n 34

I ~ J "I

i )i)! ~ !

TABLE X CABLE ROUTING CRITERIA

~ ~ '= A  ! l'-7h .I> I! I POWER CABLES IN RACEWAYS f F.I I CABLE APPLICATION n ~ Y 14 4 6 9 4 16 KV POWER 480/240/208/120VAC POWER POWE 250/125VDC PWR CABLE DIVISIONS B A B 1 2 A B 1 2 3 A lych !Hc A X Example 1 Hc B

.H A Example 2 H B H 0 H, 0 AP H! 3 Example 3 P-- A R B X P 1 0 Example 4 P -

2 0 AP P 3

~ gal I !'I Non~lass 1E. division cables.

0 Class 1E division cables.

+ High Pressure Core Spray (HPCS) Class 1E Division cables.

AP "Associated by Proximity" cables - Non-Class lE cables routed in compatible Class lE raceway.

. Hc High..Voltage Raceway Conduit.

H High,Voltage Raceway Conduit or tray.

P 480V;.or below Power Raceway Conduit or tray.

Example 1 ,14.4KV Div. A power cable can only be routed in Div. A conduit.

Example 2 lt> is permissible to .route 6. 9KV & 4. 16KV Div. A power cables in same Div A raceway.

Example 3 4. 16KV Div. 3 power cables can only be routed in Div. 3 H raceways.

Example 4 Jt; is permissible to route Div. A power cable in Div. 1 power raceway Such cables are identified by "NOTE 5" in the E550 Cable Schedule Reference Note Column. (For details, see Table IX, Column 13). These

~

(  ! cables have raceway compatibility identified per Table IX, column 2.

~ !! ~,I

I ~

J 1I

TABLE XI CABLE ROUTING CRITERIA, CONTROL CABLES IN. RACEWAYS EXTERNAL TO PGCC CABLE APPLICATION Control RPS/NSSS Control RPS Scram Indic. Trip Logic Ind, Ann. SOV Control a-Annun. Cables Q

• Ckts.:

CABLE DIVISIONS 2 3 4 5 6 B 4 5 C 0 Example 1 C 2 0 AP C 3 - Example 2 0

C 5 0 C 6 0 C 7 0 C A C B Rc 4 0 Rc 5 0 Rc 6 0 Rc 7 0 D'gital Computer, xgna xn eactor u xng on y.

C Raceway, to route control circuits.

Rc RPS Scram Solenoid Raceway - Conduit.

X Non-Class lE Division Cables-High Pressure Core Spray (HPCS ) Class 1E Division 0 1E Division Cables. Cables'lass AP "Associated. by Proximity" Non-Class. 1E Cables routed in .compatible Class lE raceway.

Example 1 Class 1E Div. 1 Control CabIes can .only, be routed ip Div. 3.:,control raceways.

Non Class;,1E Div. A Control/Indication/Ann. Cables are permi,tted to route in Class 1E Div. 1 raceways only. Such cables are termed "Associated by Proximity", and are identified by "Note 5" in the E551 Cable Schedule Reference .Notte Column. (For details see Table VIII, Column,13. ) ~ These cables have raceway compatibility identified per Table VIII, Column 2.

Example 2 Class 1E Div. 3 control cables can only route in Div. 3 raceways.

TABLE XII CABLE ROUTING CRITERIA INSTRUHENTATION SIGNAL, CABLES IN RACEWAYS EXTERNAL %0 PGCC 0 CABLE APPLICATION

'g ANALOG NHS/NSSS/RPS TRIP SIGNA SIGNAL LOGIC SIGNAL CABLES CABLE DIVISION 0 4J

( T(

A 3 4 6 7 A B S 1 0 Example 1 S '2 0 S 3

$ l4 0 S '5 0 Example 2 S 6 0 S 7 0 S A X -',

Example 3 j S B X j

X Non-Class 1E Division Signal Cables."

0 Class 1E Division Signal Cables.

Class 1E HPCS Division 3 Signal Cables.

AP "Associated by Proximity" Non-Class 1E Cables routed in compatible Class 1E raceways...

S Signal Cable Raceway solid tray or .conduit. w ~

Example 1 It is. permissible to route Div. A, signal cable in Div. 1 raceway. Such cables are termed as "Associated by Proximity" and are identified by "Note 5" in the E551 Cable Schedule Reference Note Column (For details see Table VIII,-, Column 13). These cables have raceway compatibility, identified per Table VIII, Column 2. II 4 f1 Example 2 'iv..5 RPS/NHS signal cable can only be routed, in,Div. 5 signal raceways.

C>

Example 3 NonWlass 1E.Div. A signal cables. croute only in. Div.. A signal raceways.

37

TABLE XIII GENERAL PLANT AND PGCC CLASS 1E CABLE INTERFACE CONTROL/INDICATION/SIGNAL INTER- NSSS BOP PGCC FACE PGCC PGCC RACEWAY BOP CABLE CABLE DIVISION CABLE DIV DIV~

DIV, *

• 2 3 ESSI Div 1 ESSII Div 2 Note 1 ESSIII Div 3 RPS A1 Note 2 RPS B1 RPS A2 RPS B2 NSSI Note 2 NSSII DIV1A DIV1B DIV2A DIV2B General Plant PGCC Area-Raceways Raceways 0 Class 1E Division Cables

+ - High Pressure Core Spray (HPCS ) Class 1E Division Cables

• Cable Identification Marker Note 1 Class 1E circuits are routed in compatible Class 1E division of PGCC raceways.

Note 2 RPS/NSS Class 1E control and signal cables are considered compatible to either Div 1 or Div 2 PGCC raceway routing as stated in Table II.

38

TABLE XIV GENERAL PLANT AND PGCC NON-CLASS 1 E CABLE INTERFACE CONTROL/INDICATION/SIGNAL SEE'NOTE 1 CABLE ROUTED IN NSSS BOP PGCC RACEWAY GENERAL PLAN POWER SUPPL PGCC PGCC DIVISION INTERFACING CONNECTION CABLE CABLE CABLE DIVISION DIVISION NON-DIVISION (a), (b) CLASS I

1E DIV A PRIHE A'1 XXX1 DIV A AP Example 1 IV A NON PRIHE XXX1 . DIV A ~

AP X Example 2 DIV A NON PRIHE XXX2 ~

DIV B Example 3 DIV A NON PRIHE XXX2 DIV B Example 4 I

DIV B PRIHE B'2 XXX2 DIV B AP DIV B NON PRIHEl XXX2 DIV B AP DIV B NON PRIHE XXX2 DIV A DIV B NON PRIME XXX2 DIV A DIV 3 PRIHE 3 XXX3 DIV

'IV 3

DIV" 3 3 XXX3 DIV 3 X enera an PGCC X Non-Class 1E cables.

Area Rac'eways Raceways AP Associated by Proximity.

there are two types of=- routing/cable tagging configurations. "NSSS" circuits (General Electric scope

'ote 1 In PGCC circuits interfacing with 600 Series panel modules) follow the- cable divisional tagging per column (a) ~ All other circuits (Balance of Plant circuits interfacing with 800 Series panel modules) follow the cable divi-sional tagging per column (b).

Note 2 For examples see Sh. 2 of this table.

39

p, 2 QE.hJ. PLAQT PCjCC AI2BA EX<MPLE. I PRIMP.

DIVA-A I CABLE PIC TEAM ~XXX I CABLE END CABINET DEVICE'l2ACENAY)

DIV A DIV I (PIC< RACEWAY)

UoTE: PRIME cAELEs ~xxxI,~xxx i[xxxl ~heal IJoT EE l20UTED IxI IJoN'DlvlsloIIAL PGCC DUCTS. PQIME CABLES AQE ALLOWED TO ROUTE IN ONLY THE coMPATIBLE DlvisloNAL DUcTS E.AMPLE 2 DIVA CAe,LE F6CC TERM XXX I CABLE END CABINET DEVICE DIV A DIV I hlD NOTE: IklTERhlAL To Fgcc Div A cABLE. IEIA'T BE RoUTED IH olv I d7g MohJ'T DN'CG R,AC/.WAY.

EXAMPLE 9 DIV A CABLE INST'JD PGCC TERM CAe XXX 2,O DEVICE DIV I OihlOTE: INTERNAL TO IN DIV A PQ~

Pa II ..

'D DIV 'L FGCC..RA~AY 'THE.REBY AVoiDINQ DIRECT 5RIDGlhlg.

4

~'I DIVA CABLE. MAY BE fA@CjED AS XXxW AND ROUTED IN

"'xAMPLE DIV A CABI 6 PGCC TER!vl XXX END 2'ABINET.

DEVICE DIV A ND DIV 'E Oi NOTE'HBN INTEGRI=ACINCI FQCC CABLE IS TAGGBD XXXQ ACRID jcDUTED lhl htQ/DIV '2 PGCC RA<EVJAV S > SUCH CABLE IS NCrr ALLoWED TD FeUTB iN, Pr, DIVISION l P6CC . RACEWA'( IN CQWN 'STREAM CIRCUITS

~

f TIIERES'f AVoiDINCi DIIZEC BIRIDCjlIJ 40

Example I: NSSSS PGCC Cable Information Obtained TABLE XV Page I of 2 from the GE System Cable Suaxnary: Cable Ho. 8708/C518-002, POMER GENERATION CONTROL COMPLEX Fram H13-F687 Hmxrwslcll To: II13-F608 GEN2RRIHlMTTON System: C518 Signal: GE/NAC PGCC CABLE SEPARATIOH CATEGORIES Separation 82 HSSSS BOP SEPARATION CODE CODE(1) DESCRIPTION CODES H ESSI Dlv Core Standby Cooling System 0 Division I N H R E PGCS POllER SUPPLY CLASSIFICATION ESS2 Dlv Core Standby Cooling System I HP 5 INDEX OF SYSTEMS Division 2 ESS3 Dlv Core Standby Cooling System 55 Division 3 X 822A Huclear Bofler Process Instrumentatfon POMER SOURCE C S X 822C Auto Depressurfzatfon System (ADS) PRIHE IE Al Oi v Reactor Protection System/Huclear Stea~ Supply Shutoff System DESCRIPTION 822E Jet Instrumentatfon Channel A Division 1 Pump AS SHOIIN OH Bl Dlv Reactor Protection System/Nuclear Steam Supply Shutoff <<Sstem ELEMENTARY 822II Nuclear Steam Supply Shutoff System (HSSSS) T2UV~HS X Channel 8 Division I A2 Dlv Reactor Protection 12~HS XX Channel A Division System/Nuclear Steam Supply Shutoff 835A Reactor Recirculation ~HSTH EUS XX 82 0lv Reactor Protection 2

System/Huclear Steam Supply Shutoff System X C12A Reactor Hanual Control (RHC) 28~USIA!US XX Channel 8 Division 2 CI28 Control Rod Drfve Hydraulic (CRD HYD) TWVAC IHST X

X C34A Feedwater Control C4IA Standby Liquid Control 2~HST~

2~HS NSSI Ol v Nuclear Steam Supply Shutoff System Division I NSSII Dl v Nuclear Steam Supply Shutoff System C51A Startup Range tfeutron Honftorlng W~HSTnU Dlvfsion 2 C518 Power Range Neutron Honftoring 4~HST

.X C51C C510 C61A Startup Drive Control Traversing In-Core Probe Calfb (Tfp)

Remote Shutdown 2~

V~HST 2U DIV IA DIV DIV 18 DIV Neutron Honftorfng System Trip Logic AI Division IA Neutron Honltorlng System Trip Logic 81 Division 18 X C72A Reactor Protection System (RPS) 2UVKUJP DIV 2A OIV Heutron Nonltorlng System Trip X C728 RPS Hotor Generator Set Control X

X C91A 017A Computer Interconnection Process Radiation Honltorfng 26~

2~ST DIV 28 OIV Logic A2 Division 2A Neutron Monitoring System Trip X D21A Area Radiation Honitorlng (ARH) 2UV~HS Logfc 82 Division 28 X E12A Residual Heat Removal (RNR) 4V~HST XXXI OIV All other non-safety functions routed E21A Low Pressure Core Spray (LPCS) or DIY with Division I PGCC raceways or Hon-X E22A High Pressure Core Spray (HPCS) Class IC GCC raceways. (XXXI cable E228 IlPCS Power Supply ln OIY 1 race~ay fs associated)

Safety-Related Systems XXXII DIV All other non-safety functions routed If E3IA Leak Detection (NSSS)

E51A Reactor Core Isolation Cooling (RCIC) or DIV with Division 2 cables or Hon-Class GIIA Radwaste IE PGCC raceways. (XXII Olv 2 raceway X G33A Reactor Mater Cleanup fs associated)

X H13A Annunciator System XXX111 OIV All other non-safety functions routed

)X N64A Off Gas System - Low Temp. with Olvfsfon 3 PGCC raceways.

(I) This BOP code corresponds to the BOP cable separation classification that interfaces with the NSSSS separation code. This code fs also used In bomlnatlon with the BOP PGCC signal code to describe BOP PGCC cable signal/separation classification, I.e., "CI" Indicates Control, Division 1.

Balance of plant of plant Olv 8 cables can Interface with XXXI PGCC cables providing bridging" between essential raceways does not occur.

Similar for XXX/DIV A Interface cables. Note that 'bridging" between essential raceways Is acceptable In the followfng cases: Case I Dlv I PGCC duct can interface with Dlv 4 or Dlv 6 BOP race~ay. Case 2 Dlv 2 PGCC duct can interface with Dlv 5 or Dlv 7 BOP raceway.

41

~ ~

TABLE XV POWER GENERATION CONTROL COMPLEX Sheet 2-of 2 PGCC CABLE TYPES

' 'CIRCUIT DESIGN (Supplied by General Electric)

NSSS =".'OP  ; GENERAL INFORMATION I: BOP PGCC Cable, Information CODE iy CODE DESCRIPTION Obtained from'the IMR BOP pl!

-Ir TwIsted Shielded Pair of AO WIre C'xample cable routing Cable No. 04-K2-I ~ 10 SPI"AWG 2 0 SP4 'AWG 2 0

' GE-7A I

4 Twisted Shielded Pairs of AO Wire I'n5 (, E "I 1

• Suneary:

From ' "'~

'" H13-P891 SP7 AWG 2 0 GE-5A 7 Twisted Shielded Pairs of 420 Wire To: NI3-P8I I SP13 AWG,20 13 Twisted Shielded Pairs of f20 WIre Signal f Separation: C2 GE-5 7 Twisted Shielded Pairs of E)6 Wire Cable Type: GE-I TC4 Cu/Cn 4 Shielded Pairs of Copper Constantan r Raceway. .. Dlv 2 Thermocouple Wire TC8',Cu/Cn GE-6 8 Shielded Pairs of Copper Constantan Thermocouple Wire TQB Chr/Cn 8 Shielded Pairs of Chrome Constantan Thermocoup le Wire GEr7 Twisted Shielded Pairs of SI6 Wire .

ST/Ii AWG =20 I Twisted Shielded TrIple Conductors of f20

'E-.4 Wire 12 Conductors of'"ll4 Wire with Overall Shield NSSS'OP). .

.; PGCC S I GNAL DESCR IPT I ON

~

v(

, GE-3 7 Conductors of $ 14 Wire CODE ('ODE '( I) DESCRIPTION HC7 AWG, 14 A 8

GE-I 19 Conductors of i)4 Wire I I GE/MAC

'" S Hllliamp Process Signal I '

HC1,9 AWP '14 ~r II Loyal A "Low Level".Analog Signal s

IA 8 Conductors of f16 Wire II 4 Low D .'

Low Level Dlgltal Signal MCB 'AWG 16

'I I Comp A-... S 160 NV Computer Analog Signal Computer. digital Signal P

'i 12 Conductors of I16 Wire i I Comp D .;" S MC12 AWg 116 2 I'9 Conductors of, $ 16 Wire H/R IN Heter/Recorder Input GE

'/SS

~

HC19 AWG 516, 27 Conductors of $ 16 Wire ANN IN Annunciator Input MC27 AWG -'16 37 Conductors of $ 16 Wire 28 VDC' 28 Volt DC Power I MC37 AWG 16, 7 Conductors of l20 Wire 120 VAC ' C > '-120 Volt AC Power HC7 AWG 16 ) 12 Conductors of RO Wire 125 VDC '.' 125 Volt DC Power HC12 AWG 20 19 Conductors of f20 Wire Cl 120A C ;120 Volt AC Control MC19 AWG 27 Conductors of $20 Wire W Indication..SI gnal 37 Conductors of lf20 Wire Cl 125D" Volt DC Control 20'C27 AWG C 125 48 Conductors of /20 Wire Ind I cat Ion 'S I gnal 20,'C37 AWG 20 I

'-;t MC48 AWG 20., Cl 28D C/S 28 Vol't DC Control 8 7/C AWG 14 7 Separate Conductors of $ )4 Wire Routed ln

~

I Ind cation 'S I gnal

,'24 Volt, DC Conduit 24 VDC ~, C Power 12/C AWG t

"14. 12 Separate Conductors of 1)4 Conduit Wire Routed ln CT 5A C 5 Amp.

,Circuit Current Transformer 2 COND FWR . 2 Power Conductors Routed In Conduit ARM IN S Area Radiation Monitor Inpu 3 COND PWR 3 Power Conductors Routed In Conduit COAX RG-6 Coaxial Cable Type RG-6 COAX RG-22 Coaxial Cable Type RG-22, COAX RG-59 Coaxial'able Type RG-59 ~"

~ I COAX RG-59N Coaxial Cable Type RG-5%N I GE-8 6 3/c II6 Individually Shielded GE-9 2 I/c f10 (1) This BOP code corresponds to BOP cable signal classification for GE-10 2 I/c f12 BOP PGCC Cables and for those cables that Interface <<Ith the NSSS GE-12 4 4/c f)4 PGCC cables.

GE-13 4 4/c f)6 Individual I y Shielded GE-14 7/c P)6 Overal I Shield

'21

TABLE XVI Page I of 2 NSSS VENDOR GENERAL DESIGN INFORMATION

. SVSTEM CABLES AND ROUTING CRITERIA

'IELD IN PGCC MODULAR. FLOOR DUCTS "i C>> v'

- 'NSSS O SPECIAL CABLE REQ, DESCRIPTION H 0 Special REMARKS R Ch <<d Ch ChOW Requlr.

O W XD.&-Ch ~,g <<c>>>>>>, ~ ~

O 'P O D& o O <<C

~ C3 W C/X3 C4 Ch A

O Ro<<>>. $ a>>

X Kl C4 Dlv 1 Al C1120A 12/CP14 Fal l safe cables RPS/NSSS 1RIP LOGIC X Kl C6 Olv I Bl C 1 120A 12/CiI14 routed ln grounded CONTROL CABLES X Kl C5 Ol v 2 A2 C'I 120A 12/CP14 f lex CND within PGCC.

X Kl C7 Ol v 2 82 C1120A 12/CP 14 X H2 R4 Olv I Al C1120A 2CONOPWR SCRAM SOV CKT RPS scram SOV cables NEUTRAL TO BE trip logic Al 8, Bl ancI RPS SCRAM X H2 R6 Div 1 81 C1120A 2CONOPWR g6AWG FROM MAIN LPRM group 1 4 3 SOLENOIOS CONTROL PANEL cables are routed In CABLES X H2 R5 Dlv 2 A2 C1120A 2CONOPWR TO SCRAM CROUP separate PGCC OlvlslocI PULL BOX AT I ducts, similarly fo)

X H2 R7 Dl v 2 82 C1120A 2CONOPWR SOVS RPS scram SOV cables L2 S4 Dl v I Al GEMAC SP4 trip logic A2 8, 82 an)

RPS IRIP LOGIC L2 S6 Dl v I 81 GEMAC SP4 LPRM group 2 II, 4 S I GNAL CABLES L2 S5 Olv 2 A2 GEMAC SP4 cables.

L2 S7 Olv 2 82 GEMAC SP4 SENSOR CA 20,5 1000 COAX 3 SHLD HI RAD, TEMP PREAMP SIG, CA Ml LOW A COAX RG6 75 20>>0 1500 COAX STO PREAMP HV ~ CA, L4 LOW A COAX RG59 47 37 3 2000 SHLD PREAMP LV ~ CA L4 Cl 280 COAX RG59 47 37>>3 2000 SHLD SENSOR CA M6 130 9,8 1000 COAX 3 SHLO, PREAMP S I G CA Ml LOW A COAX RG6 75 20>>0 1500 COAX STD PREAMP HV ~ CA, L4 LOW A COAX RG59 47 37>>3 2000 SHLD Neutron PREAMP LV ~ CA, X L4 S4 Div I Dlv1 Cl 280 COAX RG59 47 37,3 2000 SHLO Monitor lng RANGE SW CA Cl 280 MC19 System SENSOR/EPA>>. CA 25>> 7 2300 COAX HI Group I

'RAO TEMP EPA/PGCC CA L4 LOW A COAX RG59 47 37,3 2000 SHLD SENSOR CA>> c Ml 20 5 ~

1000 COAX 3 SHLO HI

'I) Cl) RAD, TEMP PREAMP S IG CA LOW A COAX RG6 75 20>> 0 1500 COAX STD PREAMP HV ~ CA ~ L4 LOW A COAX RG59 47 37>>3 2000 SHLD PREAMP LV CA L4 LOW A COAX RG59 47 37 3 2000 SHLO SAME AS NMS GRP, I. S6 Dl v I Dl vl SAME AS NMS GROUP I NMS'-GROUP I I I SAME AS NMS GRP ~ I S5 Ol v 2 Ol v2 SAME AS NMS GROUP I NMS GROUP II SAME AS NMS GRP,I S7 Dl v 2 Dlv2 SAME AS NMS GROUP I NMS GROUP IV Continued on Page 2

9 C-c n

~

Y TABLE XVI

>ntlnIjed Fromm Page I PROCESS RADIATION MONITORING (D17A)

~~DIATJQM X

-X-I~~I

4) g

'3 <B )-Dlv-2-[-XXX2--)

Iym .mt'"

S21 Dlv 2I XXX2':1 Cif LFS "SAME, AS N.

~

~AME-AS NC8 M4S GROUP NMS GROUP I

I MONITORING (021A) X L3 SA I Dlv 21 XXX2 I ARM IN MCB NA INDEX MECH CABLE C2 27/C SHLD DRIVE MECH POS IND X L3 =C2 Div 2 XXX2 LOW D MC48 48/C SHLD DR I VE MECH CONTRCA X C2 Dlv 2 XXX2 . LOW D MC37 37/C SHLD DRIVE MECH ANALOG Ll S2 ~ Dlv 2 XXX2 LOW A STI POS

~

Dlv.2 y

DRIVE MECH DET SIG X L4 "S2 . XXX2 LOW A COAX RG59 47 37+ 200 SHLD DR I VE MECH CHAMBER X L3 C2 4/C SHLD DRIVE MECH BALL Kl .C2 2/cfl6

., YAGA SHEAR VA ASSY CA X C2 14/c SHLD

~ ey rr <,('ar i ROD LEFT/RIGH cp POSITIO( BRANCH .X Gl CA Dlv.l .XXXI C.l.120A '2C()NDPWR

~ <

wc '

(

CAB I NET I JUNCTION X MB SA Dl v I XXXI LOW D COAX RG22 MODULES CRD FROBE/EPA CAB X K2 Sl RAYCHEM 13/C

.60/7.I 80 OR EQUAL EPA/RPIS CABLE L3 Sl Div I XXXI LOW A MC48 EPA/H22-P 007 Sl RP'PS J2 28 PAIR OA SHLD ~

H2 CI DIv I XXXI C1120A 2CONDPWR Fa I I safe Power Cables G2 PA 0 Iv I XXXI C1120A 2CONDPWR Routed In Grounded POWER X C2 Dl v 2 XXX2 . C1120A 2CONDPWR . Flexible Conduit Within SUPPLY (C72B), .X .P2, Dl v 2 XXX2' C.1120A 2CONDPWR PGCC

,X H2 C2 Dl v 2 XXX2 C1120A 2CONDPWR X G2 PB DIv 2 XXX2 C1120A 2CONDPWR H2 CI 0 Iv I XXXI C1120A 2CONDPWR The LPRM Cables are subdivided into four groups as follows:

Group I (Dlv IA) APRM CHE Group 2 (Dlv .2A) APRM CHCIID-Group 3 (Dlv IB) AFRM CHA(IB Group 4 (Dlv 2B) APRM CHF I Pi 44

AREA RAD\.;T ICU i'0'tITC "lll>> (02li )

~

, ~

~

r

~* '! \ I

~ 4 'll 4 ~

P u( ~ ~

w' DIVISION A ENCLOSURE DIVISIOQ A ENCLOSURE DIVISION A ENCLOSURE W)

I 4 '\M 'Vi' I>>>> = ~

DIVISION I. DIVISION I DIVL~JON I.

ENC40KAE EgCLOQQIZE EkCLOSJRE I- 'PACEWAY'IVI DIVI'BIOH I SION RACEWAY I

~

DIVISION I rM ~ >>>> RACEWAY'gR rrg I'>>

DIVISION A DIVISION DIVISION 2.

EkCLOSUIZE 5'ZACEWA'f EI4CLOSU RE.

gBK cQ@)~

DIVISIOI4 6 DIVISION DIVISION 2 5~ : RACEWA+ IZACKWA'f RACEWA'f u l/l oh/

Vou.. RZIME OIZ DIVISION CLASS 'lE CIRCUIT

'L'ZACEWA'f AYPIC'AL'I ASSOCIATED SY FIZOXIMITT CIIZCUIT'TYPICAL)

NO1E: DIRECT 5RIDGIM 8 HOT ALLOWED

l Cy 1

';- CONDAR SE BPI D

'.BY:..PRO.AIM,ITY Ill DIVISION! A PIVI5)OM Q ENCLOSURa EMCLDSUR&

olulsioA I IV I DIV 'L DIVISIokl 2 I2ACEWAQ CLA65 IE CLASS IE R4CBWAQ CABLE --- cABLB DIVISIoQ a oivisloN 5 EWAY RACEWAY

~- ~

'EcoNo<ay MoN. DiVISIONALog gog-cLASS IK 5' DG1MQ BY PROXIMITY RACKWAY QR E.NC~5UlZB GIRCLllTS NOTE: BECoQDAI2'( 52IDglMg G ALLoWED WHERE.

AccEPTA5LF 5Y AhJALYSIS 46

FICjURE IC SECONDARY BQIDCjlQCq UVlTHlkl UIPtvlEHT AND ENCLOSURES MAY 5E Ahl BMCLO5UIZ6 SEPARATION BARRIFg CLA55 IE CLASS IE DIVISION I DIVISION 2 DEVICE DEVICE UON-CLASS IF DIVISION A DEVICE

.. G=PuIPMae'Z

&cLaSUZE.

DIVISION I DIVISION A DIVISION 2 CABLF CABLE CA@LE.

DIVISION I DIVISION A DIVISION 2 mc.EW<y ~EV/A'( l2ACEWAQ MOTE: SECCRDARY BRIDGlklQ Ikl KklCLOSUlZES IS ALLOVlED VIHERE ACCEPTAKE BY Ah!ALYSlS 47

'O' U

FIQLII2E 2 CONDUIT PENETRATION B WIREWAY %IV NON NEUTRON Cc'ONDUIT 5

5ENSORS INST M C AT C CHANNSL5 o DIV DIV DI V DIV PENBT Zh rA APRM IRM APRIA 5 A A BOP S PWR N

PEN ET QN D IRM Ae E. TRIP TRIP LOGIC,A LOGIC 8I APRM INDIVIDUAL F OUTPUT LOGIC IRM TRIP 6XT INTER-CONNECTIONS TRI P Dgg LOGIC A GRB SR2 LOGIC Q GR'2 TRIP ~~+

WIRIEV(AY Rv+ TRI P APRNI I RNI APRM ., ACTUAIOR WIREWAY DIV'7 ACTUATOR. LO&K ceo OUTPUT B- GROUP I

GROUP I WIREWAY PIU 5 PKNKT C SCRAIIL GROUP PIJLI BO)C Oft CQIJIVAI EAT (SY AR) r ISCRh,M GROUP SUBWAY OR 4 EQUIVALENT SY ARQ gI ONC CONDUIT PER SKH ROD W~ A %IRKED B PROTECTION TERMINAL BOX ON HCU

%C fe wt SEPARATE 'TERM BOARDS, NO AIR, PILOT SCRAM SOLENOID YALVES SARRIFR RECQIRED FOR OIIE ROD, 4 RPS SENSORS AWB OR C(D MAY M COHIIECTED TCI A COMMON. PROCESS TAP

~

, "RPS SENSORS AgG ORbfO Ihu5T NOT MCOIINKTED TO A COMMON PROCE55'TAP

. QIREWAVS IIAiNbiETC. MAY bE ASSIGNED TO SEPARATE DIVISIONS AS APPROPRIATE TQ PLANT LAYOUT'.

4~ SEE FOUR PENETRATION RPS SEPARATION CONCEPT

~ I

QSB5$ . $ E,PAR'AjlDH O'QkfcFPP C.Q<il-l= '"'

j r t

~

~ s'v' COMMON I'R<<<<5 - .,-;,;;t ...,.. I ROCESS TAP TAP

~ ~

AlP A

g I

>>0 ~ I tv CONOUIT5 COND UITS

~ t j~ tt>>>>

8 PS

'FAI LSAPE . "

DIVISION X LOGIC COHbUIT P DIVISION g NON RPS I.OGI g I IP TRIP TRIP SEI4SOR5' I LOGIC l- CONDD IT'N. LOGI C, I O+I.C 8I AP.

INOIVIOUAL CON OUITS A G OFt RACEWAYS AUXILIARY">> " AUXILIARY WWuAL I MANUA RELAYS I RtLAY5 O'IV blV X OUTBOARD SWITCH ,I N BOARD WIREVIIAY VALVES I VALVE5 E WIREWAY j CCIIOUIT CONDUIT DIV Itv>> - ~

I MOTOR "- OIV-P I 5Th POWER POWER AC AND/OR DC I

I~ lt <<jjtvjg hh."0.. >>vent j<<MRlv<< * %7

• t>> %A ~

M 0,

~ ~ t rg ~ 'I Og tvvtt>>>>>>r<<>>t. I j v'+j QR SOL. SOL.

'RIv'l ~+Oltft&'- . YC fl ~

~ l a rl t<<t

~<<v wjtt tr 'll~

I,t 'll<<j t t jt 'f j t ~ t

~ ~

~,

tjt tt ~ I

<<r I

\ ~ t

'l INTERCONNWCTING CONOUIT%.USED FOBI,MAIN S7EAltl ISOUATION'VALVE l.OTIC ONLY i

~ ~

l -~ ~ ">> ~ ~

~ ~

>r v a ~

FIGUP.E 4 PaP XIMITY CIRt-U IT'5ECTIOAALIZ'ATIOkl l2EACTOI2 5LDQ. TURBINE /LDLL, CLASS IE RACBV/AY5 KIOSK-CLASS IE. WCE.WAYS 4 ' e,, 'e I

/ON- CLASS IE WITHIhl Eq UIPME4/

EhlcLosvzh ASSQCIATSD -SeS Ef PROXIMITY I WITHIN CLASS IE

'4'CBWAQ ll 'e

'O IICIJ-CIASS Al-l'Kl2 LE'AVll4D CLASS IE RACEWAY FINAL LOAD IP.

klOI4IKLLS5 I B. l>e y FOWER SOuat.E e .eeee e "i e V ~

DIVISIoN LJ I DIVISIoW A l

EqUIPMEMT/&lCLoSUI2B 'lhlAL KLKCTRIcAI LOAD I ~ I~ e ~

~v e eee

~ ~

~ I>> I ~ ~ <<e II 1

P Cetib'= I S 4e ~I ~ .. + ~

~ Il>>, '

50

4 ee t

C r