ML030570444

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IR 05000305-02-007(DRS), 11/08/2002, Nuclear Management Company, Llc.Safety System Design & Performance Capability Inspection
ML030570444
Person / Time
Site: Kewaunee Dominion icon.png
Issue date: 02/21/2003
From: Pederson C
Division of Reactor Safety III
To: Coutu T
Nuclear Management Co
References
IR-02-007
Download: ML030570444 (37)


See also: IR 05000305/2002007

Text

February 21, 2003

Mr. T. Coutu

Site Vice President

Kewaunee Nuclear Power Plant

N490 Hwy 42

Kewaunee, WI 54216

SUBJECT: KEWAUNEE NUCLEAR POWER PLANT

NRC INSPECTION REPORT 50-305/02-07(DRS)

Dear Mr. Coutu:

On November 8, 2002, the NRC completed an inspection at your Kewaunee Nuclear Power

Plant. The enclosed report documents the inspection findings, which were discussed on

November 8, 2002, with you and other members of your staff. Follow-up telephone exits were

held with you and members of licensee management, on December 19, 2002, and January 21,

2003.

The inspection examined activities conducted under your license as they relate to safety and

compliance with the Commissions rules and regulations and with the conditions of your license.

The inspectors reviewed selected procedures and records, observed activities, and interviewed

personnel. Specifically, this inspection focused on the design and performance capability of the

component cooling water system to ensure that it was capable of performing its required

safety-related functions. In addition, the inspection reviewed a sample of permanent plant

modifications and changes made under 10 CFR 50.59.

Based on the results of this inspection, the inspectors identified two issues of very low safety

significance (Green) that were determined to involve violations of NRC requirements. However,

because of their very low safety significance and because they were entered into your

corrective action program, the NRC is treating the issues as Non-Cited Violations in accordance

with Section VI.A.1 of the NRCs Enforcement Policy. If you deny these Non-Cited Violations,

in whole or in part, you should provide a response with a basis for your denial, within 30 days of

the date of this inspection report, to the Nuclear Regulatory Commission, ATTN: Document

Control Desk, Washington, DC 20555-0001, with copies to the Regional Administrator, Region

III; the Director, Office of Enforcement, United States Nuclear Regulatory Commission,

Washington, DC 20555-0001; and the NRC Resident Inspector at the Kewaunee Nuclear

Power Plant.

T. Coutu -2-

In accordance with 10 CFR 2.790 of the NRCs Rules of Practice, a copy of this letter

and its enclosure will be available electronically for public inspection in the NRC Public

Document Room or from the Publicly Available Records (PARS) component of NRCs

document system (ADAMS). ADAMS is accessible from the NRC Web site at

http://www.nrc.gov/reading-rm/adams.html (the Public Electronic Reading Room).

Sincerely,

/RA by RCaniano Acting For/

Cynthia D. Pederson, Director

Division of Reactor Safety

Docket No. 50-305

License No. DPR-43

Enclosure: Inspection Report 50-305/02-07(DRS)

cc w/encl: D. Graham, Director, Bureau of Field Operations

Chairman, Wisconsin Public Service Commission

State Liaison Officer

T. Coutu -2-

In accordance with 10 CFR 2.790 of the NRCs Rules of Practice, a copy of this letter

and its enclosure will be available electronically for public inspection in the NRC Public

Document Room or from the Publicly Available Records (PARS) component of NRCs

document system (ADAMS). ADAMS is accessible from the NRC Web site at

http://www.nrc.gov/reading-rm/adams.html (the Public Electronic Reading Room).

Sincerely,

/RA by RCaniano Acting For/

Cynthia D. Pederson, Director

Division of Reactor Safety

Docket No. 50-305

License No. DPR-43

Enclosure: Inspection Report 50-305/02-07(DRS)

cc w/encl: D. Graham, Director, Bureau of Field Operations

Chairman, Wisconsin Public Service Commission

State Liaison Officer

ADAMS Distribution:

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DOCUMENT NAME: C:\ORPCheckout\FileNET\ML030570444.wpd

  • See Previous Concurrence

To receive a copy of this document, indicate in the box: C = Copy without attachment/enclosure E = Copy with attachment/enclosure N = No copy

OFFICE RIII E RIII E NRR** RIII RIII

NAME ZFalevits DHills ZFalevits for MKunowski for RCaniano for

ADunlop:sd JLamb KReimer CPederson

DATE 02/13/03 02/20/03 02/18/03 02/14/03 02/21/03

OFFICIAL RECORD COPY

    • NRR concurrence for section 1R17.b of inspection report

U.S. NUCLEAR REGULATORY COMMISSION

REGION III

Docket No: 50-305

License No: DPR-43

Report No: 50-305/02-07

Licensee: Nuclear Management Company, LLC

Facility: Kewaunee Nuclear Power Plant

Location: N490 State Highway 42

Kewaunee, WI 54216

Dates: October 21, 2002, through November 8, 2002

Re-exit Dates: December 19, 2002

January 21, 2003

Inspectors: A. Dunlop, Reactor Engineer

Z. Falevits, Reactor Engineer

J. Neurauter, Reactor Engineer

S. Sheldon, Reactor Engineer

T. Bilik, Reactor Engineer, Trainee

J. Panchison, Mechanical Contractor

H. Anderson, Mechanical Contractor

C. Baron, Mechanical Contractor

Approved by: David E. Hills, Chief

Mechanical Engineering Branch

Division of Reactor Safety

SUMMARY OF FINDINGS

IR 05000305/02-07(DRS); Nuclear Management Company, LLC; on 10/21-11/8/2002,

Kewaunee Nuclear Power Plant. Safety System Design and Performance Capability Inspection.

The inspection was a three-week baseline inspection of the design and performance capability

of the component cooling water system. In addition, the biennial reviews of permanent plant

modifications and 10 CFR 50.59 evaluations were concurrently performed. The inspection was

conducted by regional engineering specialists with mechanical consultants assistance. The

inspection identified two issues of very low significance.

The significance of most findings is indicated by their color (Green, White, Yellow, Red) using

IMC 0609 Significance Determination Process (SDP). Findings for which the SDP does not

apply may be Green, or be assigned a severity level after NRC management review. The

NRC's program for overseeing the safe operation of commercial nuclear power reactors is

described in NUREG-1649, Reactor Oversight Process, Revision 3, dated July 2000.

A. Inspection Findings

Cornerstone: Mitigating Systems

  • Green. A finding of very low safety significance associated with a Non-Cited Violation of

10 CFR Part 50, Appendix B, Criterion III, Design Control, was identified that pertained

to improper application and use of a common non-safety related power supply to feed

two redundant safety related circuits. This was not in accordance with the plant

engineering specification procedure, the Updated Safety Analysis Report and the

applicable Electrical and Electronics Engineers Standards.

This finding was more than minor because this finding was associated with design

control attributes which affected the Mitigating Systems Cornerstone objective to ensure

the reliability and capability of the component cooling water (CCW) system to respond to

initiating events to prevent undesirable consequences. The use of a common balance

of plant (non-safety) power supply to feed redundant safeguard electrical circuits, the

lack of adequate electrical separation, and evaluation of seismic qualifications of some

of these redundant circuits and components have the potential to upset plant stability,

challenge critical safety functions during shutdown as well as power operations, and

could potentially affect the reliability and capability of the CCW system to respond to

initiating events.

This design deficiency finding is assessed as Green because it did not result an actual

loss of the CCW systems safety function. A review of the system design identified a

number of electrical separation issues, but did not result in any immediate operability

concerns. This provides reasonable assurance that there has not been an actual loss of

system function due to this condition. Therefore, this issue was screened out of the

significance determination process as Green (Section 1R17).

  • Green. A finding of very low safety significance associated with a Non-Cited Violation of

10 CFR Part 50, Appendix B, Criterion III, Design Control, was identified that related to

2

the control and quality of design basis engineering calculations. Specifically, a number

of concerns were identified related to the indexing and control of existing calculations,

the lack of available calculations to support some aspects of the current design basis,

and errors in existing calculations. As a result of these issues, the current design basis

calculations, as well as the existing calculation control processes, may not be adequate

to ensure that the design basis will continue to be maintained. Although none of the

specific deficiencies identified during the inspection resulted in immediate operability

concerns, it was concluded that the component cooling water system design basis was

not being adequately controlled by the existing calculations.

This finding was more than minor based on the potential that the lack of adequate

control and quality of design basis calculations could result in the ability of the

component cooling water system to perform its safety functions to be degraded. Design

basis calculations were routinely used in support of design changes, operating

procedures, test acceptance criteria, and operability determinations. This finding was of

very low safety significance (Green) because it did not represent an actual loss of the

component cooling water systems safety function. (Section 1R21.2)

C. Licensee-identified Violations

No findings of significance were identified.

3

REPORT DETAILS

1. REACTOR SAFETY

Cornerstone: Initiating Events, Mitigating Systems, and Barrier Integrity

1R02 Evaluations of Changes, Tests, or Experiments (71111.02)

Review of Evaluations and Screenings for Changes, Tests, or Experiments

a. Inspection Scope

The inspectors reviewed nine 10 CFR 50.59 evaluations and twelve screenings. These

documents were reviewed to ensure consistency with the requirements of 10 CFR

50.59. The inspectors used Nuclear Energy Institute (NEI) 96-07, Guidelines of 50.59

Evaluations, Revision 1, to determine acceptability of the completed evaluations and

screenings. The NEI document was endorsed by the NRC in Regulatory Guide 1.187,

Guidance for Implementation of 10 CFR 50.59, Changes, Tests, and Experiments,

November 2000. The inspectors also consulted Inspection Manual, Part 9900, 10 CFR

GUIDANCE: 50.59. Documents reviewed during the inspection are listed at the end of

the report.

b. Findings

No findings of significance were identified.

1R17 Permanent Plant Modifications (71111.17B)

Review of Recent Permanent Plant Modifications

a. Inspection Scope

The inspectors reviewed 17 permanent plant modifications that were performed by the

licensee's engineering staff during the last two years, 10 of which were commercial

grade dedications. Three of the modifications affected the component cooling water

system and therefore, review of these modifications counted for completion of activities

under both NRC Inspection Procedures 71111, Attachments 17 and 21. The

modifications were reviewed to verify that the completed design changes were in

accordance with specified design requirements and the licensing bases and to confirm

that the changes did not affect the modified system or other systems' safety function.

Calculations which were performed or revised to support the modifications were also

reviewed. As applicable to the status of the modification, post-modification testing was

reviewed to verify that the system, and associated support systems, functioned properly

and that the modification accomplished its intended function. The inspectors also

verified that the completed modifications did not place the plant in an increased risk

configuration. The inspectors evaluated the modifications against the licensee's design

basis documents and the Updated Safety Analysis Report (USAR). The inspectors also

used applicable industry standards, such as the American Society of Mechanical

4

Engineers (ASME) Code and the Institute of Electrical and Electronics Engineers (IEEE)

Standards, to evaluate acceptability of the modifications.

b. Findings

Introduction: Green. The inspectors identified a Non-Cited Violation (NCV) of 10 CFR

Part 50, Appendix B, Criterion III, Design Control, that pertained to improper

application and use of a common balance-of-plant (BOP) non-safety power supply to

feed two redundant safety related control valve circuits.

Discussion: Design Change Request (DCR) 3163 was initiated on January 30, 2000, to

align the service water (SW) system on a safety injection (SI) signal to maximize flow to

the containment fan coil units early in the event of an accident. Specifically, the design

change modified the control circuits for SW to component cooling water (CCW) heat

exchangers temperature control valves CV-31406/SW-1306A (Train A) and

CV-31407/SW-1306B (Train B). The design change modified the control logic and

added control switches, relays, and solenoid valves, which would cause the

SW-1306A/B valves to open on a SI signal and on loss of the non-safety control power.

The valves were designed to modulate and control SW flow to the CCW heat

exchangers, thereby controlling CCW temperature during normal plant operation. If the

valves were fully open, the CCW temperature at the heat exchanger outlet would be

cooled to approximately the SW temperature. This would then result in a subsequent

cooldown of the letdown flow temperature. The valves were designed to fail open on a

SI signal, loss of air, or loss of electrical power.

The DCR documented that actuators for SW-1306A/B, the SI relay contacts, the new

switches, relays, and the cabling from the existing relays to the new relays were all

classified QA1 (safety related) and were to be separated per plant Engineering

Specification ES-9010, Cable Installation and Separation Criteria, and IEEE Standard

308-1971, Criteria for Class 1E Electric Systems for Nuclear Power Generating

Stations. The inspectors noted that separation criteria in ES-9010 included the

following:

  • Section 4.1, Safeguard Separation stated, The objective of the following

criteria is to achieve independent electrical systems compatible with and for

redundant equipment. Cable separation shall provide sufficient isolation

between redundant systems so that no single failure or credible incident can

render both systems inoperable or remove them from service.

  • Section 4.1.2 stated, There are two trains provided for the Redundant

Safeguard System and four channels provided for the Reactor Protection

System. Separation of these trains or channels must be maintained to preclude

the possibility of any single incident causing both trains or more than one

channel from becoming inoperative. The power, control, and instrumentation

cables and trays for the Safeguard System and Reactor Protection System shall

be separated as follows: Train A, Train B...

  • Section 4.1.3 stated, The power cables for each Redundant Safeguard System

may be placed in the cable trays only of the same train.

5

  • Section 4.1.14 stated, Where the wiring for redundant engineered safety

features is within a single panel or panel section, this wiring shall be separated,

one group from the other by six-inch (6") air space or fireproof barrier..., wiring

not associated with either train" may be grouped with one train but may not

cross from one train bundle to the other train.

The inspectors also noted that USAR Section 8.2-2, Separation Criteria, Revision 17,

contained similar separation requirements to the one specified in ES-9010. The

separation criteria in the USAR included the following:

  • Cable separation provides sufficient isolation between redundant systems so that

no single failure or electrical incident can render both redundant systems

inoperable or remove them from service.

  • Non-safety related power, control or instrumentation cable shall not be permitted

to cross over from one safeguard tray to another.

  • Where the wiring for redundant engineering safety features is within a single

panel or panel section, the wiring is separated one group from another, by a

6-inch air space or a fireproof barrier. The barriers are steel metal or flexible

metallic conduit. Wiring not associated with either train may be grouped with

one train but may not cross from one train bundle to the other train.

IEEE Standard 308-1971, Section 5.4, Vital Instrumentation and Control Power

Systems, stated in part,

Dependable power supplies are required for the vital instrumentation and control

systems of the unit(s) including the engineering safety feature instrumentation

and control systems.

Power must be supplied to these systems in such a manner as to preserve their

reliability, independence and redundancy. Typically one or more of the following

may be required: (3) two or more independent alternating current power

supplies having a degree of reliability and availability, compatible with systems

they serve.

The inspectors concluded that use of a common non-safety related power supply to feed

both trains of safety related circuits was not in accordance with the requirements stated

above. The non-safety related power supply was not considered quality power that was

free from adverse voltage and current transients, which can disturb component

operation.

IEEE Standard 279-1968, Proposed IEEE Criteria for Nuclear Power Plant Protection

Systems, required that protection systems that generate reactor trip or engineered

safeguards actuation meet the single failure criterion specified in the IEEE Standard.

Section 4.2 states under Single Failure Criterion, any single failure within the protection

system shall not prevent proper protection system action when required. Valves

SW-1306A and B were designed as redundant safeguard components/systems and

were therefore required to meet the single failure criterion of IEEE Standard 279.

6

Section 3, Design Basis, states in part, a specific protection system design basis shall

be provided for each nuclear power plant and shall document as a minimum the

following: (h) the malfunction, accidents, or other unusual events (e.g., fire, explosion,

missiles, lightening, flood, earth-quake, etc.) which could physically damage protection

system components or could cause environmental changes leading to functional

degradation of system performance and for which provisions must be incorporated to

retain necessary protection system action.

The inspectors reviewed the safety evaluation for this DCR. In response to question

No. 1, the safety evaluation for this DCR stated that the power supply for the control

circuit remained the same and that the new valves were powered from separate power

supplies, separated by Engineering Specification ES-9010. However, the inspectors

determined that the 120VAC power supply for valves SW-1306A and SW-1306B

redundant control circuit logic was not being provided from separate safeguards power

supplies (as it should have been for redundant circuits) and was not separated per the

separation requirements delineated in Engineering Specification ES-9010. The DCR

design implemented in the field indicated that the redundant safeguards valves were

powered from the same BOP (non-safeguard) power feed supplied by fuse panel

RR172 (circuits ACNI-9 and ACNI-10), as shown on schematic diagram E-2492,

Revision G. The licensee, however, considered it separate power supplies based on the

use of a separate fuse from the same BOP source to feed each of the redundant valves

control circuits. As such, the licensee considered that the installed modification was in

agreement with the statements in the safety evaluation. On February 4, 2003, the

licensee initiated CAP014584 which documented the difference between the licensees

and inspectors positions with respect to the statements in the safety evaluation. The

CAP stated that this was not an operability issue and that there was no failure potential

that can impact the operability of the CCW system from fulfilling its safeguards function.

However, the inspectors noted that there was no detailed engineering analysis to

evaluate all potential failures that could result from feeding both redundant circuits from

the same BOP feed.

The inspectors also determined that while the DCR stated that the SW-1306A/B valve

actuators (CV-31406 and CV-31407) were QA 1 components, they were supplied and

installed as non-safety (QA-2) components (reference CAP013501, dated October 30,

2002). In addition, the inspectors noted that an evaluation was not performed for

DCR 3163 to ensure that SW-1306A/B control switches 19904 and 19905 were

seismically qualified. CAP014389 was initiated on January 20, 2003, to address this

issue. The inspectors also noted that temperature controllers TC-26309 and TC-26310

used for controlling CCW temperature by modulating opening positions of valves 1306A

and 1306B had been designated as non-safety components and were also fed from the

same common non-safety power supply.

The DCR stated that normal (non-safeguards) power will be used to power the new

solenoid valves consistent with the remainder of the SW 1306A/B valves and that the

valves will be powered from two existing separate circuits. However, the inspectors

noted that the remainder of the SW-1306A/B control circuits were designed and

installed as safeguard systems but were fed from a common BOP feed.

7

The inspectors reviewed the electrical schematic and wiring diagrams for SW-1306A/B

and noted that terminal box (TB)1371, shown on wiring diagram E-2112, Revision V,

contained field wiring for both SW-1306A and SW-1306B valve circuits. Electrical

conductors coded ACN1-9L1 and ACN1-9L2 (designated as Train A wires), electrical

conductors coded ACN1-10L1 and ACN1-10L2 (designated as Train B wires), and BOP

conductors ACN1-42L1 and ACN1-42L2 were all terminated to terminal blocks inside

TB1371. In addition, a conduit containing the cables feeding control circuits for

SW-1306A and SW-1306B valves was routed from Train A section to Train B section of

TB2771. This conduit contained wire codes ACN1-42L1(power supply to BOP lights

and controllers for both 1306A and 1306B valves), ACN1-9L1 and ACN1-9L2 (power

supply to SW-1306A control circuit), and ACN1-10L1 and ACN1-10L2 (power to

SW-1306B control circuit).

The inspectors also conducted a field inspection of SW-1306A/B and its associated

components. Wiring diagram E-I531, Revision AJ, showed TB2771 wiring which

included the new relays and switches. TB2771 was divided into two sections, which

were separated horizontally by a fireproof metal barrier to separate SW-1306A (Train A)

electrical components from SW-1306B (Train B) electrical components. The BOP feeds

from common fuse panel RR172 were routed via the same conduit into TB2771. Train

A related (9L1) 120VAC BOP feed was routed to the Train A section of TB2771 and

Train B related (10L1) 120VAC BOP feed was routed via the same conduit to the Train

B portion of TB2771. A short conduit was routed from Train A section to Train B section

of TB2771. This conduit contained the BOP feed cables conductors. The inspectors

determined that the present installed configuration of the 120VAC BOP feeds to

SW-1306A/B resulted in electrically connecting Train A and Train B circuitry through the

120VAC BOP power supplies. Each of the SW-1306A/B control circuits was protected

by one fuse and one slug located in RR172. The inspectors determined that the

installed electrical configuration was contrary to the electrical separation requirements

delineated in ES-9010, USAR 8.2.2, and IEEE-308-1971.

During review of condition reports, the inspectors identified that since May 2000, the

SW-1306A and/or the SW-1306B valve(s) inadvertently opened on at least nine

separate occasions. These following events occurred during normal plant operation due

to random grid disturbances, lightning strikes, and/or surveillance testing activities.

  • May 10, 2000, (Kewaunee Assessment Process (KAP) 00-001414) SW-1306A/B

failed open when grid perturbation caused short lived loss of voltage. The KAP

stated that this condition has been experienced in the past.

  • September 2, 2000, (KAP 00-003120) an electrical disturbance caused by a

lightning induced spike resulted in reactivity problems when SW-1306A and B

had failed open.

  • November 24, 2001, (KAP 01-018732) SW-1306B failed open during

performance of SP-33-110, Diesel Generator Automatic Test, as a result of

load shedding and restarting of large loads. The KAP stated that the apparent

cause for the identified problem appears to be that the system design is subject

to this type of event because a momentary loss of power which occurs when

switching 120VAC QA2 power will result in valves SW-1306A and B failing open.

8

  • November 20, 2001, (KAP 01-18695) valves SW-1306A and B failed open during

performance of surveillance testing SOP-ELV-40-8, after losing power during a

power switching activity.

  • June 24, 2002, (CAP012001) a transient where both SW-1306A and B valves

opened due to an electrical transient. This caused the CCW temp to decrease,

which could have had a positive reactivity affect on the reactor had the operators

not taken actions. The CAP documented that operator workaround 01-22 and

abnormal procedure A-CC-31A, Abnormal Conditions in the Component Cooling

System, were implemented to bypass the letdown demin and an auxiliary

operator was dispatched to regain control of the system. Reactivity effects were

monitored, although no changes were seen due to early recognition of the

problem. The inspectors determined that loss of the common non-safety power

supply resulted in both valves opening unexpectedly, challenging the operators

by use of an operator workaround to expeditiously bypass letdown demin and

prevent a potential positive reactivity effect.

  • July 9, 2002, (CAP012174) a misalignment of substation capacitor bank opening

and closing resulted in a voltage dip that caused SW-1306B to fail open.

Operator workaround 01-22 and abnormal procedure A-CC-31A were

implemented to bypass the letdown demin and an auxiliary operator was

dispatched to regain control of the system.

The first three items above were determined by the licensee to be maintenance rule

functional failures in maintenance rule evaluation MRE000082, dated November 21,

2001. The fourth item above was classified as a maintenance preventible functional

failure in KAP 01-18695. Condition Evaluation CE002373, dated February 12, 2002,

and apparent cause evaluation ACE001828, dated June 21, 2002, concluded that as a

result of the numerous instances where valves SW-1306A and B have failed open,

System 38 Function 04 (supplies 120VAC QA2 power) has had a repetitive MPFF and

was considered (a)(2) degraded. ACE001828 documented three more instances where

SW-1306A or B valves failed open on June 23, July 21, and July 22, 2002, during

substation breaker manipulation and lightening strikes. Licensees investigation

(ACE001828) revealed the following three distinct concerns related to the SW-1306A

and B valve events: (1) The effects of random grid disturbances while at full power

should not result in these valves fully opening at times when plant power is not lost or

interrupted and a SI signal in not present, (2) train separation (should the power supply

for these valves be separated instead of tied to the same source), and (3) the controllers

are obsolete.

To identify the correct cause of the SW-1306A/B valves inadvertent openings and to

determine if Design Change 3205 (initiated to modify the power supplies to the

electronic controllers) will address the concern of the undesired opening of these valves

under certain conditions, the licensee issued temporary change TC 02-01 on July 2,

2002, to install monitoring equipment on the SW-1306B train. This has not yet been

implemented in the field. Therefore, the inspectors noted that actual cause of

SW-1306A/B failing open during normal plant operations has yet to be determined.

In a related matter, the licensee documented in OTH002449, dated August 30, 2001,

that CC water temperature could reach 390F during an event where a SI signal was

generated (SW-1306A and B open). The licensee stated in the OTH that this

9

temperature was not considered in the piping analysis and that the issue needed to be

examined by Westinghouse.

Analysis: Evaluation of this issue concluded that it was a design control issue resulting

in a finding of very low safety significance (Green). The design control issue was due to

a licensee performance deficiency in that the licensee failed to adequately control the

design modification process for modification DCR 3163 as required by established plant

and industry design standards.

In accordance with Manual Chapter 0612, the inspectors determined the issue was

more than minor because this finding was associated with design control attributes

which affected the Mitigating Systems Cornerstone objective to ensure the reliability and

capability of the CCW system to respond to initiating events to prevent undesirable

consequences. The use of a common BOP (non-safety) power supply to feed

redundant safeguard electrical circuits, the lack of adequate electrical separation, and

evaluation of seismic qualifications of some of these redundant circuits and components

have the potential to upset plant stability, challenge critical safety functions during

shutdown as well as power operations, and could potentially affect the reliability and

capability of the CCW system to respond to initiating events.

This design deficiency finding is assessed as Green because it did not result in an

actual loss of the CCW systems safety function. A review of the system design

identified a number of electrical separation issues, but did not result in any immediate

operability concerns. This provides reasonable assurance that there has not been an

actual loss of system function due to this condition. Therefore, this issue was screened

out of the significance determination process as Green.

Enforcement: 10 CFR Part 50, Appendix B, Criterion III, Design Control, states, in

part, that measures be established to assure that applicable regulatory requirements

and the design basis are correctly translated into specifications, drawings, procedures,

and instructions. It further states that design changes shall be subject to design control

measures commensurate with those applied to the original design. Section 4.1.2 of

ES-9010 states in part that cable separation shall provide sufficient isolation between

redundant systems and that the power and control cables for the safeguard system shall

be separated.

Contrary to the above, on June 30, 2000, the installed electrical configuration was not

in accordance with plant and industry established electrical separation design

requirements as specified in IEEE Standard 308-1971, and in ES-9010 for the control

circuits for temperature control valves SW-1306A/CV-31406 and SW-1306B/CV-31407.

The licensee used non-safety related 120VAC power supplies from a common fuse

cabinet to feed the redundant safeguard system control circuits for these valves in lieu

of separate safety related power supplies, which would provide sufficient isolation

between these safeguard redundant systems.

Because of the low safety significance of this issue and because it was entered in the

licensee's corrective action program (CAP013801), the issue is being treated as a

Non-Cited Violation, consistent with Section VI.A.1 of the NRC Enforcement Policy

(NCV 50-305/02-07-01).

10

1R21 Safety System Design and Performance Capability (71111.21)

Introduction

Inspection of safety system design and performance verifies the initial design and

subsequent modifications and provides monitoring of the capability of the selected

systems to perform design bases functions. As plants age, the design bases may be

lost and important design features may be altered or disabled. The plant risk

assessment model is based on the capability of the as-built safety system to perform the

intended safety functions successfully. This inspectable area verifies aspects of the

mitigating systems cornerstone for which there are no indicators to measure

performance.

The objective of the safety system design and performance capability inspection is to

assess the adequacy of calculations, analyses, other engineering documents, and

operational and testing practices that were used to support the performance of the

selected systems during normal, abnormal, and accident conditions. The inspection

was performed by a team of inspectors that consisted of a team leader, three Region III

inspectors, and three mechanical consultants.

The component cooling system was selected for review during this inspection based

upon:

  • having a high probabilistic risk analysis ranking;
  • having had recent significant issues; and
  • not having received recent NRC review.

The criteria used to determine the systems performance included:

  • applicable technical specifications;
  • applicable USAR sections; and
  • the systems design documents.

The following system and component attributes were reviewed in detail:

System Requirements

Process Medium - water, electricity

Energy Source - electrical power, air

Control Systems - initiation, control, and shutdown actions

System Condition and Capability

Installed Configuration - elevation and flow path operation

Operation - system alignments and operator actions

Design - calculations and procedures

Testing - flow rate, pressure, temperature, voltage, and levels

11

Components

The component cooling water pumps and heat exchanger were selected for detailed

review during the inspection. These components were specifically reviewed for

component degradation due to the impact that its failure would have on the plant.

.1 System Requirements

a. Inspection Scope

The inspectors reviewed the updated safety analysis report, technical specifications,

system descriptions, drawings and available design basis information to determine the

performance requirements of the component cooling water system. The reviewed

system attributes included process medium, energy sources, and control systems. The

rationale for reviewing each of the attributes was:

Process Medium: This attribute required review to ensure that the component cooling

water pumps would supply the required flow to the safety related components following

design basis events. To achieve this function, the inspectors verified that the

component cooling water system would be able to accept the design heat loads from the

applicable safety related components through the residual heat removal heat exchanger

and transfer sufficient heat to the service water system through the component cooling

water heat exchanger to maintain system operability.

Energy Sources: This attribute required review to ensure that the component cooling

water pumps would start when called upon, and that appropriate valves would have

sufficient power to change state when so required. To achieve this function, the

inspectors verified that the interactions between the component cooling water pumps

and their support systems were appropriate such that all components would start when

needed under normal or standby electrical power.

Controls: This attribute required review to ensure that the automatic controls for

starting the component cooling water pumps, and associated system components, were

properly established. Additionally, review of alarms and indicators was necessary to

ensure that operator actions would be accomplished in accordance with the design.

b. Findings

No findings of significance were identified.

.2 System Condition and Capability

a. Inspection Scope

The inspectors reviewed design basis documents and plant drawings, abnormal and

emergency operating procedures, requirements, and commitments identified in the

updated safety analysis report and technical specifications. The inspectors compared

the information in these documents to applicable electrical, instrumentation and control,

12

and mechanical calculations, setpoint changes, and plant modifications. The inspectors

also reviewed operational procedures to verify that instructions to operators were

consistent with design assumptions.

The inspectors reviewed information to verify that the actual system condition and tested

capability was consistent with the identified design bases. Specifically, the inspectors

reviewed the installed configuration, the system operation, the detailed design, and the

system testing, as described below.

Installed Configuration: The inspectors confirmed that the installed configuration of

the component cooling water system met the design basis by performing detailed

system walkdowns. The walkdowns focused on the installation and configuration of

piping, components, and instruments; the placement of protective barriers and systems;

the susceptibility to flooding, fire, or other environmental concerns; physical separation;

provisions for seismic and other pressure transient concerns; and the conformance of

the currently installed configuration of the systems with the design and licensing bases.

Design: The inspectors reviewed the mechanical, electrical, and instrumentation design

of the component cooling water system to verify that the system and subsystems would

function as required under accident conditions. This included a review of the design

basis, design changes, design assumptions, calculations, boundary conditions, and

models as well as a review of selected modification packages. Instrumentation was

reviewed to verify appropriateness of applications and set-points based on the required

equipment function. Additionally, the inspectors performed limited analyses in several

areas to verify the appropriateness of the design values.

Testing: The inspectors reviewed records of selected periodic testing and calibration

procedures and results to verify that the design requirements of calculations, drawings,

and procedures were incorporated in the system and were adequately demonstrated by

test results. Test results were also reviewed to ensure automatic initiations occurred

within required times and that testing was consistent with design basis information.

Pre-operational test data was also reviewed to confirm initial design parameters that

could not be tested under normal operations.

b. Findings

Design Basis Information

Based on the inability or difficulties in retrieving design information requested by the

inspectors, licensee personnel documented that, in many cases, design basis

information for the CCW system was difficult if not impossible to locate. Licensee

personnel initiated CAP013087 and CAP013119 to enter the problem in the corrective

action program. This issue was also identified during the previous NRC Safety System

Design and Performance Capability Inspection for the service water system and entered

into the corrective action program as KAP 00-002566. The licensee in response to this

issue has been developing Design Basis System Functional Matrixes for a number of

systems including the component cooling water system. These documents were still in

13

draft at the time of the inspection, although it appears that some progress has been

made in identifying and controlling design basis information.

Calculation Control and Quality Issues

Introduction: Green. The inspectors identified a Non-Cited Violation of 10 CFR Part 50,

Appendix B, Criterion III, Design Control, that related to the control and quality of

design basis engineering calculations. Specifically, the inspectors identified a number of

concerns related to the indexing and control of existing calculations (including the failure

to use appropriate and/or current calculation inputs and assumptions), the lack of

available calculations to support some aspects of the current design basis, and errors in

existing calculations. As a result of these issues, the inspectors determined that the

current design basis calculations, as well as the existing calculation control processes,

may not be adequate to ensure that the design basis will continue to be maintained.

Although none of the specific deficiencies identified during the inspection resulted in

immediate operability concerns, the inspectors concluded that the CCW system design

basis was not being adequately controlled by the existing calculations.

Discussion: During the inspection the inspectors noted a number of calculation

deficiencies. The licensee initiated individual CAPs, as appropriate, to ensure that each

of these conditions will be addressed by the corrective action system. In addition, the

licensee initiated two high level CAPs, CAP013531 and CAP013532, to address

calculation indexing and calculation errors, respectively. The following discussion

includes examples of calculation deficiencies identified during the inspection.

Indexing and Control of Existing Calculations - The inspectors identified concerns

related to the indexing and control of existing calculations. As shown in the following

examples, conditions were identified where design basis calculations were not based on

current input data, were based on assumed inputs in lieu of calculated values, were not

consistent with other design basis calculations, or were not revised when appropriate to

reflect a change in input data. Review of calculation indexes and discussions with

licensee personnel indicated that these issues were related to inadequate indexing and

control of design basis calculations. The inspectors also found that it was difficult to

identify the status of calculations, and to determine if a calculation was a current design

basis calculation. In response to these concerns, the licensee initiated CAP013531 that

concluded that Kewaunee was not up to industry standards with regard to calculation

controls, and addressed in the generation of system functional matrixes the need to use

the Currator database for the indexing of calculations.

  • Calculation C11353, Determination of CCW Pump delta-P Acceptance Criteria

for use in SP 31-168, concluded that an acceptable pump degradation for the

CCW pumps was 10 percent, which was consistent with the permissible

degradation established in ASME OM-6. Subsequent to the issuance of the

referenced calculation, a CCW system hydraulic flow model was developed and

depicted in calculation C11409. Interpolating the flow model results from the

calculation results indicated that the CCW pumps were limited to approximately a

5 percent degradation based on the required flows during post LOCA [loss-of-

coolant-accident] recirculation. Using the results of calculation C11353 would

permit degradation of the CCW pumps to less than design basis flow

14

requirements. At the time of the inspection no operability issues were associated

with this condition since new CCW pumps had been installed and were exhibiting

very little degradation. Additionally, subsequent to the development of the

hydraulic model, a sensitivity analysis was performed by the licensee to

demonstrate that a reduced CCW flow requirement would be adequate during

post LOCA recirculation.

Although there were no operability concerns, design basis documents existed

that were not consistent as to inputs and assumptions and were not properly

linked together. This particular example was identified by the licensee just prior

to the inspection and was documented in CAP013269, however this is an

example of the inspectorss concern found in other design basis calculations.

  • Calculation 611.1128.M3, Determine the Highest Relieving Pressure in the CC

System, determined the maximum pressure the CCW system could experience

as a result of a tube rupture in one of the major heat exchangers. The

calculation concluded that the low point in the system, the residual heat removal

(RHR) pump seal water heat exchangers, could exceed their design pressure by

approximately 15.7 percent. The calculation concluded that this condition was

acceptable, and the results of the calculation were reflected in USAR Section

9.3.3.

One of the inputs to this calculation was the maximum (shutoff) head of the

CCW pumps. A maximum pump head value of 265 feet was used based on the

original CCW pump curves. The inspectors noted that the new CCW pumps

(DCR 3128) were provided with a maximum head of greater than 270 feet.

Calculation 611.1128.M3 had not been revised to reflect this more limiting input.

In addition, the inspectors noted a slight difference between the calculation

results and the values presented in USAR Section 9.3.3. In response to these

concerns, the licensee initiated CAP013567. The licensee evaluated the

condition and concluded that there were no operability concerns based on the

margins associated with the ASME code, the operating history of this equipment,

and the fact that the system was originally pressure tested to 225 psig.

  • Calculation C11396, Effect of Sleeving and 50 Equivalent Plugged Tubes in the

Component Cooling Water Heat Exchangers, assumed a 2500 gpm CCW heat

exchanger flow value, which appeared to be non-conservative. The licensee

stated that the flow value was based on calculation C11376, Determine

Acceptable SW Flow to Component Cooling Water Heat Exchanger, and that

the flow value in C11376 was based on test data from surveillance procedure

SP31-168. The licensee also stated that a concern with this flow value had been

identified shortly before the inspection, and initiated CAP013220.

As discussed in CAP013220, the assumed CCW flow of 2500 gpm would not be

bounding for a single failure scenario resulting in one CCW pump providing flow

to two CCW heat exchangers. In response to this issue, Addendum A to

calculation C11376 was issued to verify that the actual flow rate would be

sufficient for the required heat removal. Addendum A to calculation C11376

included the assumption that 50 equivalent CCW heat exchanger tubes were

15

plugged to be consistent with calculation C11396. As a result of Addendum A to

calculation C11376, it was concluded that the results of calculation C11396 are

bounding.

  • Calculation C11053, Evaluate the Acceptability of the Throttled Positions of

Valves CC-402A and CC-402B, assumed CCW system alignment and CCW

flow rates to provide the necessary heat removal to support maintaining the

reactor coolant system temperature at 140F during refueling mode activities.

These unverified assumptions were included in the thermal performance

calculation concerning the alignment and flow through each CCW heat

exchanger, and the flow either through a single RHR heat exchanger or through

other available flow paths that would be in parallel to the flowpath through the

RHR heat exchanger.

The licensee modified existing CAP 008661 and CAP 013259/OTH 008995 to

include verification, using the system hydraulic model, of the assumed CCW flow

through the CCW heat exchangers and through the other downstream parallel

flow paths in subsequent revision of calculation C11053 and associated

operating procedures.

The inspectors also identified that calculation C11053 did not address instrument

accuracy in determining SW system temperature limitations to support

maintaining refueling mode temperatures at 140F. The licensee initiated

CAP013477 to revise calculation C11053 to account for instrument accuracy

(+/- 2F) in determining limitations on the main SW header local temperature

indicators, which would be used to monitor SW inlet temperature.

  • Calculations C10510, Voltage Ratings of Safeguard DC Operated Devices,

C-038-003, 125 VDC Safeguard Distribution Network Cable Voltage Drops, and

ESR 90-104, Evaluate DC Distribution to Diesel Generators, each addressed

an aspect of design adequacy for the safeguard 125VDC distribution system.

Calculation C10510, referenced calculation C-038-003, Revision 3, while

Revision 5 had already been issued. Licensee personnel previously determined

that calculation C10510 should have been revised. The inspectors also noted

that ESR 90-104 results were not reflected back into calculation C10510. The

licensee initiated CAP 013368 to address this issue. Due to the fact that the

125VDC safeguard batteries were sized for an 8-hour mission time, and the

licensee was licensed for a 4-hour mission time, there did not appear to be any

operability concerns associated with this issue.

Lack of Available Calculations to Support Aspects of the Current Design Basis - The

inspectors identified the following examples of design basis requirements that were not

supported by available calculations. These conditions also appear to be related to the

deficiencies in calculation control. Because an index of available design basis

calculations was not available, the inspectors found that it was difficult to identify those

design basis requirements that were not supported by calculations.

  • The inspectors requested the supporting calculations for the performance of the

CCW system during an 10 CFR 50, Appendix R safe shutdown. The licensee

16

responded that there was not an analysis to address the CCW systems

capability to reach cold shutdown conditions within 72 hours8.333333e-4 days <br />0.02 hours <br />1.190476e-4 weeks <br />2.7396e-5 months <br /> with a single train of

CCW available as required by Appendix R and initiated CAP013454. The

licensee stated that there was a high level of confidence that this safe shutdown

requirement could be met based on an existing analysis of the Point Beach CCW

system for an Appendix R safe shutdown. The Point Beach CCW system was

capable of achieving cold shutdown conditions for two units within the required

time with only one CCW pump available. The Kewaunee CCW system would be

required to achieve cold shutdown conditions for only one unit with one similar

CCW pump available. Therefore, the licensee concluded that the Point Beach

analysis would be bounding.

  • The inspectors requested the supporting documentation to verify the capability of

relief valves CC-611A and CC-611B to pass sufficient flow in the event of a

postulated reactor coolant pump thermal barrier rupture. The Westinghouse

specification sheet indicated that the valves were sized to pass 570 gpm of

water. However, in the event of a thermal barrier rupture these valves would be

required to pass a mixture of steam and water to prevent overpressurization of

the associated CCW piping. CAP 013574 was initiated to address this issue.

The licensee stated that the Point Beach relief valves, which were similar in

design but smaller in size, were sized to pass 380 gpm of steam/water mixture at

25 percent quality. The latest available information from Westinghouse indicated

that a Kewaunee thermal barrier rupture would result in a leakage equivalent to

260 gpm. The licensee stated that a Kewaunee thermal barrier rupture would

also result in a steam/water mixture of 25 percent quality. Therefore, the larger

Kewaunee relief valves appear to be adequate to prevent overpressurization of

the CCW piping system.

Errors in Calculations - The inspectors identified the following examples of a variety of

errors in the calculations reviewed during the inspection. In response to this concern,

the licensee initiated CAP013532 to address the overall issue of calculation errors and

discrepancies.

  • Calculation C11400, NEP 4.10 Evaluation of Piping Changes Associated with

DCR 3413, evaluated the effect of adding small vent lines to the CCW system.

A calculation assumption stated, a stress intensification factor for calculating

stress in the main pipe header does not need to be considered for the addition of

the vent line assemblies since the diameter of the vent line branch is less than

D/4 (item 6, Form NEP 4.16-3), where D is the nominal diameter of the header

pipe. NEP 4.16, Piping Configuration Reconciliation to Comply with IEB 79-14,

did not provide any justification to omit stress intensification factors for branch

lines with a diameter less than D/4, which was required by USA Standard Code

for Pressure Piping B31.1.0-1967, Power Piping. CAP013456 was initiated to

address this issue. The licensee, however, did review header pipe stress reports

at the vent line locations and documented that the stresses were very low such

that there were no immediate operability concerns for calculation C11400.

  • Calculation C10659, Maximum Working Pressure of RHR Pump Seal Heat

Exchanger, applied the rules of ASME Section VIII to conservatively calculate

17

maximum allowable internal pressure of the RHR pump seal heat exchanger,

even though it was not an ASME stamped vessel. The calculation did not

adequately address the requirements of ASME Section VIII Part UCI,

Requirements for Pressure Vessels Constructed of Cast Iron. Maximum

allowable vessel internal pressure was calculated using UG-22 formulas, but

UCI-3 imposed more conservative pressure-temperature limits that were not

considered. Also, this calculation did not evaluate all applicable loadings of

UG-22 as required by UCI-23 as only internal pressure was evaluated. The

licensee initiated CAP 013592 and demonstrated RHR pump seal cooler

operability for maximum temperature-internal pressure.

Analysis: Evaluation of this issue concluded that it is a design control deficiency

resulting in a finding of very low safety significance (Green). The design control

deficiency was due to a licensee performance deficiency in that design calculations

either did not exist or contained errors. The Mitigating Systems Cornerstone was

affected due to the potential for the CCW system providing long term heat removal

function being degraded by this condition. No other cornerstones were degraded as a

result of this issue.

The inspectors determined that this finding was associated with design control attributes

and affected the objective of the Mitigating Systems Cornerstone to ensure the

capability of the CCW system to respond to initiating events to prevent undesirable

consequences, and is therefore greater than minor. The lack of adequate control and

quality of design basis calculations had the potential to result in the ability of the CCW

system to perform its safety functions to be degraded. Design basis calculations were

routinely used in support of design changes, operating procedures, test acceptance

criteria, and operability determinations.

This finding was assessed as Green because it did not represent an actual loss of the

CCW systems safety function. A review of the system calculations identified a number

of deficiencies, but did not result in any immediate operability concerns. This provided

reasonable assurance that there was not an actual loss of system function due to this

condition. Therefore, this issue was screened out of the significance determination

process as Green.

Enforcement: 10 CFR Part 50, Appendix B, Criterion III, Design Control, states, in

part, that measures be established to assure that applicable regulatory requirements

and the design basis are correctly translated into specifications, drawings, procedures,

and instructions.

Contrary to the above, as of November 8, 2002, the design basis of the component

cooling water system were not correctly translated into plant documents, in that design

calculations contained errors or were not available to verify that the CCW system design

basis capability was maintained.

Because of the low safety significance of this issue and because it is in the licensee's

corrective action program, the issue is being treated as a Non-Cited Violation, consistent

with Section VI.A.1 of the NRC Enforcement Policy (NCV 50-305/02-07-02). The

18

licensee initiated CAP 013531 to address calculation indexing and CAP 013532 to

address calculation errors.

.3 Components

a. Inspection Scope

The inspectors examined the component cooling water pumps and component cooling

heat exchangers to ensure that component level attributes were satisfied. The attribute

selected for review was component degradation.

Component Degradation: This attribute was verified through review of component

repair histories and review of corrective action documents. The inspectors reviewed the

attribute to verify the licensee was appropriately maintaining components in the

component cooling water system

b. Findings

No findings of significance were identified.

4. OTHER ACTIVITIES (OA)

4OA2 Identification and Resolution of Problems

a. Inspection Scope

The inspectors reviewed a sample of component cooling water system, permanent plant

modifications, and 10 CFR 50.59 program problems that were identified by the licensee

and entered into the corrective action program. The inspectors reviewed these issues to

verify an appropriate threshold for identifying issues and to evaluate the effectiveness of

corrective actions related to design issues. In addition, condition reports initiated on

issues identified during the inspection were reviewed to verify adequate problem

identification and incorporation of the problem into the corrective action system. The

specific corrective action documents that were sampled and reviewed by the inspectors

are listed in the attachment to this report.

b. Findings

No findings of significance were identified.

4OA6 Meetings, Including Exits

Exit Meeting

The inspectors presented the inspection results to Mr. T. Coutu, and other members of

licensee management, on November 8, 2002. The licensee acknowledged the findings

presented. The inspectors asked the licensee whether any materials examined during

the inspection should be considered proprietary. Two documents were determined to be

19

proprietary information and both were returned to the licensee at the end of the

inspection. Two follow-up telephone exits were held with Mr. Coutu and other members

of licensee management, on December 19, 2002, and January 21, 2003. The licensee

indicated they did not agree with the NCV 50-305/02-07-01 documented in section 1R17

of this report and may submit an appeal based on different interpretation of which

requirements were applicable for this modification.

20

KEY POINTS OF CONTACT

Licensee Management

M. Aulik, Supervisor Engineering (Modifications)

L. Armstrong, Engineering Director

T. Coutu, Site Vice President, Kewaunee Site

G. Harrington, Compliance Supervisor

K. Hull, Supervisor Engineering (Mechanical)

J. McCarthy, Operations Manager

M. Reddemann, Vice President Engineering

P. Rescheske, Senior Engineer (50.59s)

K. Schommer, Supervisor Engineering (Electrical)

T. Webb, Regulatory Affairs Manager

E. Weinkam, Director Regulatory Services (Hudson)

NRC

A. Gill, Acting Section Chief, Electrical Engineering Branch, NRR

D. Hills, Chief, Mechanical Engineering Branch, Division of Reactor Safety, RIII

J. Lamb, Kewaunee Project Manager, NRR

J. Lara, Senior Resident Inspector

T. Narinder, Electrical Engineering Branch, NRR

LIST OF ITEMS OPENED, CLOSED, AND DISCUSSED

Opened and Closed

50-305/02-07-01 NCV Failure to maintain adequate separation of safety related circuits

50-305/02-07-02 NCV Design basis calculations contained errors or did not exist

Discussed

None

21

LIST OF ACRONYMS USED

ADAMS Agency-wide Document Access and Management System

ASME American Society of Mechanical Engineers

BOP Balance-of-Plant

CAP Corrective Action Process

CFR Code of Federal Regulations

CC/CCW Component Cooling Water

DCR Design Change Request

DRS Division of Reactor Safety

F Fahrenheit

gpm Gallons per Minute

IEB Inspection and Enforcement Bulletin

IEEE Institute of Electrical and Electronics Engineers

KAP Kewaunee Assessment Process

LOCA Loss-of-coolant-accident

NCV Non-Cited Violation

NEI Nuclear Energy Institute

NRC Nuclear Regulatory Commission

NRR Office of Nuclear Reactor Regulation

PARS Publicly Available Records System

RHR Residual Heat Removal

SDP Significance Determination Process

SI Safety Injection

SW Service Water

TB Terminal Board

USAR Updated Safety Analysis Report

VAC Volts Alternating Current

22

LIST OF DOCUMENTS REVIEWED

Number Title Revision/Date

Calculations

1179.M7 Effect of Increased Service Water Temperature on the Revision 0

Component Cooling Heat Exchanger Post-LOCA

Performance

1179.M8 Service Water Elevated Temperature Report Revision 0

8814-05-EPED1 CAPTOR Data Loading for Breaker Coordination Addendum A

611.1098.M2 Component Cooling System Heat Loss Calculations Revision 0

611.1128.M1 Investigation of Component Cooling System Revision 0

Overpressurization

611.1128.M2 Component Cooling Surge Tank Overflow Line Head Revision 1

Calculations

611.1128.M3 Determine the Highest Relieving Pressure in the CC Revision 0

System

611.1147.M1 Containment Integrity Technical Review - Component Revision 0

Cooling Water, Excess Letdown Heat Exchanger Collapse

Pressure

812.1179.P1 Component Cooling Surge Tank Shell and Nozzle Stress Revision 0

Analysis

812.1179.P4 Calculation of Minimum Thickness of Shell and Cover Revision 0

Plates on the Component Cooling Heat Exchangers

C10014 Fuse Tripping Time (Ref. RE-39-023) February 15, 1992

C10030 Electrical Overcurrent Coordination 12/208VAC Distribution March 20, 1992

Cabinets BRA-127 and BRB-127

C10510 Voltage Ratings of Safeguard DC Operated Devices Revision ORG

C10650 DCR 1236 Part 2-Boric Acid Heat Tracing (BAHT) BAHT May 8, 1984

Transformer (BAHT) Evaluation

C10659 Maximum Working Pressure of RHR Pump Seal Heat Revision 0

Exchanger

C10678 1992 Service Water Flow Test Analysis Revision 0

C10809 KNPP Containment Pressure and Temperature Transients Revision 0

Following a Design Basis LOCA or a 3 ft2 Pump Suction

Break

C10915 Safeguard Diesel Generator Loading Adjustments for September 10, 2002

Operation at Frequencies Other than 60 Hertz

C10920 Component Cooling Water System Margin in Post-LOCA Revision 0

Containment Sump Recirculation Mode

C10952 Performance Evaluation of Component Cooling Heat Revision 0

Exchanger under Off-Design Conditions

C10972 Evaluation of Component Cooling in Support of Revision 0

Component Cooling Pump A Replacement

C11053 Evaluate the Acceptability of the Throttled Positions of Revision 1

Valves CC-402A and CC-402B

C11247 480V Safety Related Circuit Breakers; Control Voltage March 21, 2002

Calculation

23

Number Title Revision/Date

C11344 Document the Results of SW System Testing Performed Revision 0

during the Fall 2001 Outage under SOP-SW-02-16 and

SOP-SW-02-17

C11352 Evaluation of As-Found Piston Settings for Snubbers Inside Revision 0

Containment

C11353 Determination of CCW Pump delta-P Acceptance Criteria Revision 0

for use in SP 31-168

C11355 Minimum Desired Component Cooling Flow to the Letdown Revision 0

Heat Exchanger

C11356 CC Pump Motor Operation at 280HP January 25, 2002

C11357 Evaluate the Ability of a Lower Lake Temperature to Revision 0

Compensate for Reduced CC Flow to an RHR Hx

C11359 Component Cooling Flow Evaluation of 02-1932 Revision 0

C11359 Determine Minimum RHR Hx CC Flow Rate and Refine Addendum A

SW Temperature Restriction Based on SOP-CC-31-18

C11376 Determine Acceptable SW Flow to Component Cooling Revision 0

Water Heat Exchanger

C11176 Determination of Available SW to the CCW Hx A with Revision 0

SW-1300A throttled Further Closed

C11195 Maximum Pressure Drop on Component Cooling Heat Revision 0

Exchangers

C11321 Instrument Allowable Value for Foxboro 63U Alarm Relays Revision A

C11357 Evaluate the Ability of a Lower Lake Temperature to Revision 0

Compensate for Reduced CC Flows to RHR Hx

C11357 Identify Approved Reference Documents for References Addendum A

5.1, 5.2, and 5.3

C11359 Component Cooling Flow Evaluation of 02-1932 Revision 0

C11359 Determine Minimum RHR Hx Flow Rate and Refine SW Addendum A

Temperature Restriction Based on SOP-CC-31-18

C11376 Determine Acceptable SW Flow to Component Cooling Revision 0

Water Heat Exchanger

C11376 Evaluate CCW Flow to CCW Hx during Cont. Sump Addendum A

Recirculation

C11380 Condensate and Feedwater Model Revision 0

C11396 Effect of Sleeving and 50 Equivalent Rugged Tubes in the Revision 0

Component Cooling Heat Exchangers

C11396 Address 120F Maximum Service Water Outlet Addendum A

Temperature during Post-LOCA also identified in C11376

and Add Revision Number to a Referenced Calculation

C11396 Document Acceptability of CCW Hx Plugging/ Sleeving Addendum B

Configuration

C11398 CC Hx Tube Sleeve DP Revision 1

C11399 Evaluation of Partial Tube and Sleeve Repair for the CC Revision 0

Hx

C11400 NEP4.10 Evaluation of Piping Changes Associated with Revision 0

DCR 3413

24

Number Title Revision/Date

C11401 CC Hx Tube Sleeve Leakage Revision 0

C11402 CC Hx Analysis and Evaluation by EFCO Revision 0

C11409 CC System Flow Model Development Revision 0

C11432 Emergency Makeup to CCS Revision 0

C11443 Containment Thermal Hydraulic Response to Design Basis Revision 0

Analysis (DBA) Loss of Coolant Analysis (LOCA) with

Reduced Component Cooling System (CCS) Flow

C-038-003 125 VDC Safeguard Distribution Network Cable Voltage Revision 5

Drops

C-042-001 Safeguard Diesel Generator Loading (Addendum A) April 22, 2002

ER 31-003 Throttle Valve Position Control December 18, 1991

ESR 90-104 Evaluate DC Distribution to Diesel Generators September 27, 1990

ESR 93-100 Component Cooling Surge Tank Level Revision 0

GMP-238 MOV Thrust and Torque Evaluations - FW-12A August 31, 2001

September 24, 2001

GMP-238 MOV Thrust and Torque Evaluations - CC-612A November 1, 2002

M-1052-1 Kewaunee Plant Outside Shield Building Safeguard and Revision 1

Important to Safety Equipment Area Temperatures

Following a LOCA Inside Containment

Minimum Flow Study for Pump Graham Seal Cooler July 10, 1992

Performance

Condition Report Documents Reviewed During the Inspection

KAP 97-622 IST Acceptance Criteria for ESF Pumps February 7, 1997

KAP 00-001414 Ground Pertabation on 5/10/00 Causes Short Lived Loss of May 10, 2000

Voltage

KAP 00-002566 Design Basis Information for SW and SW Components July 13, 2000

Difficult to Locate

KAP 00-003120 Various Alarms-SW-1306A and B Failed Open September 3, 2000

KAP 01-018695 SW-1306A/B Failures November 20, 2001

KAP 01-018732 SW-1306B Fails Open During SP-33-10 November 24, 2001

CE 009496 Calculation C10920- CCW Pump Analyses & Assumptions March 10, 2000

CAP002818 PS 26018, (CC Pmps 1A/1B Low Dish Press Backup Pump May 9, 2000

Start/Low Alarm) Drift

CAP002706 CC-4A Handwheel Broke Free When Valve Closed October 16, 2000

CAP002684 AC/DC Load Forms Misplaced November 17, 2000

CAP002008 Documentation on the Results of the Kewaunee Flooding June 21, 2001

Study is Incomplete

CAP008327 Pressure Setting of Some CCW Thermal Relief Valves do August 3, 2001

no Account for Sufficient Backpressure

OTH002449 CCW Temperature Could Reach 39F During an Event or August 30, 2001

an SI Signal

CAP007760 Relief Valves Disassembled Prior to As-found Tests October 31, 2001

CAP000844 CFC Tube Life Unknown Due to Material Change November 7, 2001

25

Number Title Revision/Date

CAP000761 SW-1306A Actuator Adjustment November 15, 2001

CAP000646 SW-1306A/B Failures November 21, 2001

ACE000100 SW-1306A/B Failed Open During performance of SOP- November 21, 2001

ELV-40-8

MRE000082 Maintenance Rule Evaluation for Valves SW-1306A/B November 21, 2001

Failures

CAP000656 SW-1306B Fails Open During SP-33-110 Testing November 24, 2001

ACE000103 Apparent Cause Evaluation for Valve SW-1306B Failure November 24, 2001

During Test SP-33-110

MRE000084 Maintenance Rule Evaluation for Valve SW-1306B Failure November 24, 2001

During Test SP-33-110

CAP000587 Complete 1993 Calculations C-038-009 & 010 November 29, 2001

CAP000588 Calculation C-038-011 125VDC Battery Duty Cycle for November 29, 2001

Battery C & D Has No Acceptance Criteria

CAP007663 FW-12B Fails Timing Test Following DCR 3325 December 3, 2001

CAP000503 Lack of Operations Administrative Guidance December 6, 2001

CAP000145 Design Change versus Systematic Approach to Training January 15, 2002

CAP000074 Possible CC Pump Runout on LOOP and Single Failure January 23,2002

CE 000061 Condition Evaluation per CAP000074 January 23, 2002

CA 000070 Install Valve travel Limiter on Valve CC-302 January 24, 2002

CA 000071 Install Ultrasonic Flow Meters on RHR HX A & B CC Piping January 24, 2002

CAP002927 Snubber FDW-H114 Appears to Be Bottomed Out and January 28, 2002

Carrying Load

CA 000073 CC-302 AOV Program Scoping and Categorization February 7, 2002

Process

CAP003114 Perform Maintenance Rule (a)(1) Evaluation for SW- February 12, 2002

1306A/B Valves

CAP003191 Inadequate Procedure February 20, 2002

CAP011530 CC System Leak Developed following Flush of CC Hx May 2, 2002

CAP011556 Evaluate B CCW Hx Condition After finding Tube Cracks in May 5, 2002

A CCW Hx

CAP011560 USAR Changes Involving Plant Design Load Change May 6, 2002

Capability Require 50.59 Review

CAP011582 CCW Hx A Tube Leaks May 7, 2002

CAP011828 System 31 Maintenance Rule (a)(1) Evaluation Required June 7, 2002

CAP011972 CCW Accident Flow Rate for CC-3A(B) not Specified in June 20, 2002

Test Procedure

CAP012001 SW-1306A and SW-1306B Opened due to Electrical June 24, 2002

Transient

CE010129 SW-1306A and SW-1306B Opened due to Electrical June 25, 2002

Transient

CAP012029 ECP Concern June 25, 2002

CAP012174 Shoto Substation Capacitor Bank Problem July 9, 2002

26

Number Title Revision/Date

MRE001523 Maintenance Rule Evaluation for Valves SW-1306A/B July 9, 2002

Failures

CE010241 Shoto Substation Capacitor Bank Problem July 10, 2002

MRE001526 Shoto Substation Capacitor Bank Problem July 10, 2002

CAP012211 Perform Maintenance Rule Evaluation on Failure - 6/23/02 July 12, 2002

CAP012212 NAO Discovered that Hose House #2 South of Main July 12, 2002

Transformers Was Not Sealed

CE10063 Perform a Condition Evaluation Per CAP011928" July 17, 2002

CAP012631 Evaluate CC Pump Check Valve Slam and Method to August 19, 2002

Avoid it

RCE-576 Root Cause Evaluation - Tube Leaks Identified in August 27, 2002

Component Cooling Water Heat Exchanger

CAP012749 Predicted CC Flow for Components Supplied is Less than August 28, 2002

Documented Requirements

CAP012800 Calculation Error September 3, 2002

CAP012942 Seal Water Heat Exchanger Component Cooling Outlet September 15, 2002

Flow Indicator Pegged High

CAP012993 Final Configuration of CCW Hxs Not Specifically September 18, 2002

Addressed in DCR Package

CA 00861 Ensure That Affected Operations Procedures Will Be September 20, 2002

Revised as Stated in CA 007724

CAP013087 QA Vault Missing 5 CCW Records September 25, 2002

CAP013094 Insufficient Description in Calculation C10266 September 25, 2002

CAP013104 CC Surge Tank Level XMTR 24041 Drift and Nonlinearity September 26, 2002

CAP013119 SSDI CCW Missing Documents September 27, 2002

CAP013137 Adequacy of Heat Exchanger Configuration Control September 30, 2002

CAP013177 Current Status of Numerous System 31 Calculation not October 3, 2002

Readily Apparent

CAP013209 Potential USAR Discrepancy Regarding Hi Flow Alarm on October 7, 2002

CC Return Flow From a RXCP

CAP013212 Set Point Discrepancy for SI Pump Low Flow Alarm October 8, 2002

CAP013220 Post Accident Analysis Flow Rate Assumption for CCW HX October 8, 2002

CAP013269 Component Cooling Water System IST Acceptance Criteria October 11, 2002

CAP013259 Revise calculation C11053 October 14, 2002

CAP013368 A Review of Calc. # C10510 Orig. Identified Several Issues October 18, 2002

CE 10920 Condition Evaluation per CAP13269 October 15, 2002

CA 009118 Corrective Action for CE10920 October 29, 2002

ACE 001828 SW1306A/B Opens During Disturbances on External

Electrical Grid

Condition Reports Written as a Result of the Inspection

CAP013427 Axial IST Vibration Reading Not Taken on CCW Pumps October 23, 2002

CAP013430 Apparent Lack of a UFSAR Discussion of the Maximum October 23, 2002

Allowable SW Temperature

27

Number Title Revision/Date

CAP013448 CC Heat Exchanger Performance Testing October 24, 2002

CAP013454 Lack of Cooldown Analysis for Appendix R October 24, 2002

CAP013456 Stress Intensification Factor October 24, 2002

CAP013457 AS-Built Drawing Discrepancy for DCR 3413 October 25, 2002

CAP013471 Determine Adequacy of Scope of NEP 14.17 Evaluation for October 28, 2002

CC-612A & B

CAP013475 MOV Drawing Irregularities October 28, 2002

CAP013477 Revise Calculation C11053 to Include Instrument Accuracy October 28, 2002

CAP013500 Discrepancies in CII356 (CC Motor at 280 HP) October 30, 2002

CAP013501 Design Description 3163 Discrepancy Found During SSDI October 30, 2002

CAP013504 RHR Hx Transfer Surface Area October 30, 2002

CAP013515 Revise Calculation No. 812.1179.P4 October 30, 2002

CAP013517 Component Cooling Surge Tank Level Loop 618 is not October 31, 2002

Calibrated Properly

CAP013523 50.59 (SE #02-06) Conclusion for TCR 02-02 October 31, 2002

CAP013530 Errors in NEP 4.9 Evaluations Discovered During SSDI October 31, 2002

CAP013531 Lack of Calculation Indexing October 31, 2002

CAP013532 Review Recent Calculation Errors and Discrepancies for October 31, 2002

Common Issues

CAP013561 No Guidance on the Effect of Low Temp CCW to the RXCP November 5, 2002

Thermal Barrier Post-SI

CAP013564 IPEOP Improvement November 5, 2002

CAP013566 Full Flow Test Requirements for CC-3A(B) November 5, 2002

CAP013567 Replacement Component Cooling Pump, Maximum Pump November 5, 2002

Head Determination

CAP013572 CCW SSDI - Update Calculation 611.1128.M1, as November 5, 2002

Reference for Relief Flow Rate

CAP013574 Relief Valve CC-611A(B) Required Capacity Discrepancy November 5, 2002

CAP013575 Evaluate Manual Valve Maintenance in the CCW System November 5, 2002

CAP013580 Problems Identified Under ICPs May not be CAPd November 6, 2002

CAP013581 Review to Determine If Any DG Loads May be Removed November 6, 2002

CAP013582 NEP 4.9 Recommendations Needs to Be Formalized November 6, 2002

CAP013584 CC System Flow Balancing November 6, 2002

CAP013588 Post Installation Vibration Data for CCW Pumps November 6, 2002

CAP013592 Inadequacy of RHR Pump Seal Cooler Max Operating November 6, 2002

Pressure Calculation

CAP013593 Discovered Drawing Discrepancy November 7, 2002

CAP013594 Z Dimensions for Snubbers November 7, 2002

CAP013607 Accuracy of UFM Measurements November 7, 2002

CAP013608 Areas of DGs SP testing for TS4.6.a that need revision November 7, 2002

CAP013805 Questions on SW-1306A/B Separation and Failure Impact November 25, 2002

on Reactivity

CAP014584 Inadequate 50.59 Evaluation February 4, 2003

28

Number Title Revision/Date

Design Change Requests

DCR 955 Modify the Logic to CC-610A and B Valve June 17, 1980

DCR 1560 Remove Relief Valve on Comp. Cooling Tnk. & Vent Tnk. February 15, 1988

Using Existing Vent Line

DCR 2283 Replace Instruments 26309, 26310. 25015 and 35016 January 2, 1988

DCR 2603-1 Evaluate Connection of Static Trip II Replacement Relays May 17, 1993

for Six Breakers

DCR 2728 Replacement of Westinghouse BFD Relays October 7, 1994

DCR 3055 Replace RCS Flow Transmitters May 28, 2002

DCR 3128 Replace Component Cooling Pumps March 30, 2001

DCR 3163 Modify Controls for Valves SW 1300 A(B) and SW October 3, 2000

1306A(B) on an SI Signal

DCR 3325 Upgrade FW12A & FW12B Actuators August 26, 2001

DCR 3331 Interposing Relays for Control Room Status Lights March 21, 2002

DCR 3355 Reactor Coolant Pump (RXCP) Overcurrent Relay Setting September 11, 2002

DCR 3412 CCW Heat Exchanger Tube Sleeving May 11, 2002

TCR 02-15 Install Data Acquisition Equipment to CC-302 August 29, 2002

Drawings

110E001, Sh. 3 Auxiliary Coolant System Engineering Flow Diagram Revision 12

206C927, Sh. 6 Line List Auxiliary Coolant System Revision 1

237127A-E2492 Schematic Diagram-Control Valves CV-31406,31407 Revision D

237127A-M326 Auxiliary Coolant Piping Sheet 1 of 3 Revision AC

237127A-M360 Reactor Bldg. Piping - Chem. & Vol. Control, Auxiliary Revision R

Coolant & Safety Injection

237127A-M361 Reactor Bldg. Piping - Chem. & Vol. Control, Auxiliary Revision X

Coolant & Safety Injection

834823-M-1423 2" SW Emergency Makeup to CC Isometric Revision 1

E-204 Integrated Logic Diagram Component Cooling System Revision AK

E-235 Circuit Diagram 480V SWGR.-Safeguard Buses Revision AJ

E-240 Circuit Diagram 4160V & 480V Power Sources Revision AQ

E-567 Motor Control Center 1-52B and 1-62B Revision T

E-604 W/D Motor Control Center 1-52B (Sh.2) Revision AS

E-614 W/D Motor Control Center 1-62E Revision AK

E-615 W/D Motor Control Center 1-62E (Sh.2) Revision BG

E-625 External Connection Motor Operated Valves Sh.4 Revision AC

E-627 External Connection-Motor Operated Valves Sh.6 Revision BJ

E-778 W/D Sequence Loading Panel DR116 Train B Revision AV

E-799 W/D Technical Cabinet TC 1956 Revision DY

E-1082 Control Schematic 480V Breakers 15108 & 15109 Revision T

E-1089 Control Schematic 480V Breakers 166108 & 16109 Revision S

E-1345 Schematic Diagram M.C.C. 1-52B Motors 1-102 Revision M

29

Number Title Revision/Date

E-1349 S/D MCC 1-52B Motors 1-399 Revision AC

E-1351 W/D External Connection Sol. Valves TBs 1357, 1358, Revision AJ

1360 and 1391

E-1404 S/D MCC 1-62B Motors 1-584 and 1-763 Revision U

E-1425 S/D MCC 1-62E Motor 1-364 MCC 1-62B Motor 1-364 Revision S

E-1427 Schematic Diagram MCC 1-62E Motors 1-446 Revision F

E-1531 W/D Ext. Conn. Sol. & Cont. Valves TBs 1357, 1358, Revision AJ

1360, & 1391

E-1540 S/D Solenoid Valves SV33077, 78, 80, 81, 82 and 83 Revision L

E-1621 Integrated Logic Diagram DG Mechanical System Revision AH

E-1632 Integrated Logic Diagram Service Water System Revision AH

E-1637 Integrated Logic Diagram Diesel Generator Electric Revision W

E-1638 Integrated Logic Diagram Diesel Generator Electric Revision V

E-1639 Integrated Logic Diagram Diesel Generator Electric Revision M

E-1815 W/D Mechanical Control Console C View B CR104 Revision AJ

E-1816 W/D Mechanical Control Console C View C CR104 Revision AQ

E-1828 W/D Mechanical Vertical Panel A View B CR106 Revision AJ

E-1830 W/D Mechanical Vertical Panel A View C Lower CR106 Revision BM

E-1832 W/D Mechanical Vertical Panel A View D Lower CR10 Revision BN

E-1876 Schematic Diagram Load Shedding Train A Revision P

E-1877 Schematic Diagram Load Shedding Train A Revision T

E-1881 Schematic Diagram Sequence Loading Bus 1-5 Revision P

E-1912 Schematic Diagram Solenoid Valves SV 33074 and 75 Revision G

E-2026 Integrated Logic Diagram Chemical and Volume Control Revision Q

System

E-2045 Integrated Logic Diagram Component Cooling System Revision AC

E-2055 Integrated Logic Diagram Component Cooling System Revision M

E-2105 External Connection Sol. and Cont Valves TB 1351 and Revision CK

1363

E-2116 W/D Sol. and Cont. Valves TB 1372 Revision S

E-2112 W/D Sol V/VS Cont. V/VS and Dampers TB-1371, 1377, Revision V

1378, 1458

E-2198 S/D Sol. Valves 3343301, 2, 4, 33769 and 33770 Revision F

E-2233 Relay Settings Sh.33 Revision F

E-2234 Relay Settings Sh.34 Revision G

E-2243 Relay Settings Revision L

E-2244 Relay Settings Revision L

E-2358 W/D Fuse Panel RR172 AC Normal 1 Dist. Revision AQ

E-2359 W/D Fuse Panel RR173 AC Normal 2 Dist. Revision BE

E-2492 Schematic Diagram - Control Valves CV-31406, 31407 Revision G

E-2545 Instrument W/D Component Cooling Flow Return & Revision E

Component Cooling Heat Exgrs 1A/1B Outlet Temp.

E-2551 Instrument W/D Reactor Coolant Sys Flow-Loop A Revision C

30

Number Title Revision/Date

E-2565 Instrument W/D Reactor Coolant Sys Flow-Loop B Revision C

E-2566 Instrumentation W/D Reactor Coolant Sys Flow- Loop B Revision C

E-2567 Instrumentation W/D Reactor Coolant Sys- Flow Loop B Revision D

E-2568 Instrumentation W/D Reactor Coolant Sys Flow - Loop A Revision C

E-2569 Instrumentation W/D Reactor Coolant Sys Flow - Loop B Revision E

E-3106 Integrated Logic Diagram Component Cooling System Revision G

M-328 Auxiliary Coolant Piping Revision AF

XK-100-18 Flow Diagram Auxiliary Coolant System Revision AL

XK-100-19 Flow Diagram Auxiliary Coolant System Revision AE

XK-100-20 Flow Diagram Auxiliary Coolant System Revision T

XK-100-61-1 KNPP Component Cooling Surge Tank Revision 4A

XK-100-622 Interconnection Wiring Diagram Rack R2 WPS Nuclear Revision 2L

Power Plant Reactor Protection System

X-K100-717 Relief Valve Revision A1

X-K100-731 Relief Valve Revision A1

Miscellaneous

031-014 SSFI Documentation Sheet - Normal Heat Load Calcs for September 26, 1990

CC Water Hx Review

D-31-047 SSFI Documentation Sheet - Review of Calculation October 4, 1990

Component Cooling Heat Exchanger

D-31-081 SSFI Documentation Sheet - CCW Low Pressure Alarm October 19, 1990

and CCW Pump Auto-Start Setpoint

D-31-099 SSFI Documentation Sheet - CC Hx Capacity October 12, 1990

D-31-099 SSFI Documentation Sheet - CCW System Relief Valve October 18, 1990

ER-031-012 Evaluation - Component Cooling Water Heat Exchanger March 13, 1993

ER-031-013 CCW Pump - Low Pressure Alarm Setpoint April 15, 1991

ER-031-023 SSFI Evaluation Sheet - CCW System Relief Valve Testing April 19, 1991

Form U-1 Manufacturers Data Report - Item AH-CC550 (CCW HX) N/A

FSD/SS-M-3357 Westinghouse Letter - Component Cooling Water System July 13, 1984

Safety Review Committee Finding

K100-2557 Westinghouse Instruction Manual - Auxiliary Heat N/A

Exchangers

KP-S-2213 Pioneer Letter - Auxiliary Coolant Valves March 1, 1972

KP-W-1455 Pioneer Letter - Component Cooling System - Component May 11, 1972

Pressure Drops

Pioneer Memorandum - Berzins to Hickey - Component March 28, 1973

Cooling System Set-point Change (FIA-26602)

NSC-KP-M-SLR Pipe Rupture Analysis - Component Cooling System April 17, 1972

-83

OEA 93-204 Recirculation Phase Design Issue January 31, 1996

OEA 97-056 NRC Information Notice 1996-031 July 10, 1997

R-31-012 Request for Information - CC Heat Exchanger October 25, 1990

31

Number Title Revision/Date

R-31-013 Request for Information - CCW Low Pressure Alarm and October 18, 1990

CCW Pump Auto-Start Setpoint

R-31-023 Request for Information - CCW System Relief Valve Test October 23, 1990

RESP-031-012 Request for Information Response April 22, 1993

RESP-031-013 Request for Information Response April 15, 1991

Section 4.6 PRA Component Cooling Water System Notebook August 29, 2002

SER Section 8.3 On-site Power System-AC Power System July 14, 1972

SER Section Component Cooling System July 24, 1972

9.3.2

SSEP-13-1 Operating Conditions Evaluation - OPS Valve No. Revision Original

CC-612A

SSEP-13-1 Operating Conditions Evaluation - OPS Valve No. Revision Original

CC-601B

SSEP-13-1 Operating Conditions Evaluation - OPS Valve No. Revision Original

CC-601A

SSEP-13-1 Operating Conditions Evaluation - OPS Valve No. Revision Original

CC-612B

System No. 31 KNPP System Description - Component Cooling Water Revision 2

System (CC)

UCR # R18-006 USAR Change Request (UCR) No. R18-006 / Pending October 1, 2002

USAR Change for DCR # 3412

SW-1306A and SW-1306B Control Circuit Evaluation January 6, 2003

EQ Temperature Profile for Containment N/A

Component Cooling Water System (CC) Design Basis Draft

System Functional Matrix

System Health Report - Component Cooling September 2002

Kewaunee Inservice Testing Program

AOV Ranking Worksheets CC610A/B Revision 0

CCW Pumps Inservice Testing Hydraulic and Vibration

Data -2000 through 2002

Preoperational Tests

CC-1 Component Cooling Water Initial Fill & Operation October 16, 1973

CC-2 Component Cooling Water Cold Functional Testing November 5, 1973

CC-3 Component Cooling Water Hot Functional Testing November 1, 1973

Procedures

A-CC-31 Abnormal Component Cooling System Operations Revision A

A-CC-31A Abnormal Conditions in the Component Cooling System Revision 0 (deleted)

A-CC-31B Leakage Into Component Cooling System Revision I (deleted)

A-SW-02 Abnormal Service Water System Operation Revision S

32

Number Title Revision/Date

DC/PM 3128-2 CC Pump A Installation - Retest 08-28-01

DC/PM 3128-4 CC Pump B Installation - Retest 08-28-01

E-CC-31 Loss of Component Cooling Revision L (deleted)

E-0 Reactor Trip or Safety Injection May 30, 2002

E-0-06 Fire in Alternate Fire Zone Revision O

E-1 Loss of Reactor or Secondary Coolant Revision N

ECA-0.0 Loss of All AC Power Revision Y

ECA-0.1 Loss of All AC Power Recovery Without SI Required Revision M

ECA-0.2 Loss of All AC Power Recovery With SI Required Revision L

ECA-1.2 LOCA Outside Containment Revision I

ES-1.2 Post LOCA Cooldown and Depressurization Revision M

ES-1.3 Transfer to Containment Sump Recirculation Revision S

GNP-04.03.01 Guide to Safety Review, Safety Evaluations and Second Revision A

Level Reviews

GNP-04.03.02 Plant Physical Change Screening Revision C

GNP-04.03.03 Plant Physical Change Control Revision D

GNP-04.03.04 Calculation - Preparation, Review, and Approval Revision D

GNP-04.04.01 50.59 Applicability Review and Pre-Screening Revision B

GNP-04.04.02 50.59 Screening and Evaluation Revision A

GNP-06.02.01 Procurement Technical Evaluation Administration Revision B

GNP-06.02.02 Procurement Technical Evaluation Procedure Revision C

ICP 31-02 CC - Flow Indicators Calibration Revision K

N-CC-31 Component Cooling System Operation Revision X

N-CC-31-CL Component Cooling System Prestartup Checklist Revision W

N-RC-36A Reactor Coolant Pump Operation Revision AA

N-SW-02 Service Water System Revision W

NAD-04.03 Plant Physical Changes Revision D

NAD-04.04 Changes Tests and Experiments (10CFR50.59) Revision B

NAD-06.02 Procurement Technical Evaluations Program Revision D

NEP-04.16 Piping Configuration Reconciliation to Comply with IEB 79- Revision B

14

SP-33-110 Diesel Generator Automate Test Revision AC

SP-42-04A Diesel Generator A Operated Test Revision S

SP-42-047B Diesel Generator B Operated Test Revision U

SP-42-312A Diesel Generator A Availability Test Revision R

SP-55-177 Inservice Testing of Pumps Vibration Measurements Revision Y

SP-168A Train A Component Cooling Pump and Valve Test - IST Revision Original

SP-168B Train B Component Cooling Pump and Valve Test - IST Revision Original

47024-H CC Surge Tank Level High/Low Revision C

Procurement Technical Evaluation

PTE 92-0154 Diode for Diesel Generator February 19, 2002

33

Number Title Revision/Date

PTE 92-0186 Service Water Pump Parts Revision 24

PTE 92-0196 Brass Whitey Valves Revision 7

PTE 93-0031 Oils, Greases and Lubricants Revision 29

PTE 94-0009 Crosby 3/4 Inch JMAK Spec Type B Relief Valves Revision 3

PTE 00-0023 Component Cooling Heat Exchanger Parts Revision 3

PTE 01-0058 Anchor Darling 3" 150 lb. Flex-Wedge Gate Valves Revision 1

PTE 02-0016 Upgraded Gaskets for the RCP Revision 0

PTE 02-0022 Lever Pin for Anchor-Darling 6" Swing Check Valve Revision 0

PTE 02-0025 ASCO Solenoid Valves - Model 8342 Revision 0

Specifications

S3397-1 Main Feedwater Flow Control Valves Trim Replacement June 5, 2002

NEP 4.9 Electrical Load Addition DCR-3190 November 4, 2002

No. 2003 Specification for Piping Design Revision 9

ES-9010 Cable Installation and Separation Criteria March 21, 1987

E-Spec 676257 Westinghouse- CC System Relief Valves, Sheet 19 Revision 3

E-Spec 676257 Westinghouse- CC System Relief Valves, Sheet 2 Revision 4

Surveillances (Date Shown Is Date Surveillance Was Completed)

CMP-31-02, (CC) Component Cooling Water Heat Exchanger Cleaning March 18, 1993

GMP 137 (QA-1) - Performed for CC Hx A March 17, 1994

April 12, 1994

April 14, 1995

October 31, 1995

November 14, 1995

September 30, 1996

April 30, 2000

September 13, 2001

CMP-31-02, (CC) Component Cooling Water Heat Exchanger Cleaning March 12, 1993

GMP 137 (QA-1) - Performed for CC Hx B April 17, 1994

April 10, 1995

September 25, 1995

October 2, 1995

October 2, 1996

May 4, 2000

September 13, 2001

DCR 2468 Service Water Flow Test Train A April 8, 1992

ICP 31-01 CC - Surge Tank Level Loop 618 Calibration October 29, 1999

February 1, 2001

September 25, 2002

ICP 31-04 CC - Heat Exchanger 1A/1B Flow Loop 619 Calibration March 5, 1999

September 6, 2000

February 26, 2002

ICP 31-05 CC - Pumps 1A/1B Discharge Header Pressure Indicator May 5, 2000

Controller 26018 Calibration March 19, 2001

June 25, 2002

34

Number Title Revision/Date

ICP 31-11 CC - Heat Exchanger 1A/1B Outlet Temperature Loop 621 August 14, 1998

Calibration January 19, 2000

July 16, 2001

SOP-CC-31-1 Component Cooling Flow Test January 5, 1993

SOP-CC-31-17 CC Flow Measurement - Post CC-302 Limiter Installation January 26, 2002

SOP-CC-31-18 CC Flow Measurement thru Both RHR Hxs with CC-302 March 21, 2002

Full Open

10 CFR 50.59 Evaluations

DCR 3128 Replace Component Cooling Pumps March 30, 2001

DCR 3163 Modify Controls for Valves SW 1300 A(B) and SW Revision 1

1306A(B) on an SI Signal

SE 01-56 Upgrade the ICCMS train A and B Modems to Eliminate November 15, 2001

Self Coupling

SE 01-64 DCR 3260 November 28, 2001

SE 02-01 CC Pump Operation with Two Pumps Running January 11, 2002

SE 02-02 SOP-CC-31-16 & TCR 0201 January 25, 2002

SE 02-03 SOP-CC-31-16, Rev ORIG January 24, 2002

SE 02-04 SOP-CC-31-17, Rev ORIG January 26, 2002

SE 02-06 TCR 02-02, Bypass Forebay Low-Low Level CW Pump March 1, 2002

Trip

SE 02-07 SOP-CC-31-18, Rev ORIG January 25, 2002

10 CFR 50.59 Screenings

DCR-3128 Replace Component Cooling Pumps March 30, 2001

SCRN 02-003 DG Loading Calculation Revisions April 22, 2002

SCRN 02-012 ES-1.3 / Revision S April 30,2002

SCRN 02-033 DCR 3413 May 9, 2002

SCRN 02-034 DCR 3412, CCW Heat Exchanger Tube Sleeving May 8, 2002

SCRN 02-040 Revision to C10915 Rev 3 September 9, 2002

SCRN 02-061 Replace Trim in Main Feedwater Regulating Valves July 17, 2002

SCRN 02-069 DCR 3350 Replace AFW Check Valves July 22, 2002

SCRN 02-075 PTE 02-0016, Revision 0 June 20, 2002

SCRN 02-115 DCR/PM 3394 September 13,2002

SCRN 02-120 Revision to C10032 Rev 1 September 16, 2002

SCRN 02-121 Revision to C-038-003 Rev 5 September 16, 2002

Technical Specifications Section 3.6 Containment Systems Amendment # 155

Section 3.3.d Component Cooling System Amendment # 116

Section 4.6 Periodic Tests of Emergency Power System Amendment # 119

Updated Safety Analysis Report

Section 5.3 Reactor Containment Vessel Isolation Systems Revision 16

35

Number Title Revision/Date

Section 8.2 Electrical Systems Revision 17

Section 9.3 Auxiliary Coolant System Revision 17

Section 9.6 Facility Services Revision 17

Table 5.2-2 Reactor Containment Vessel Penetrations Revision 16

Table 6.2-7 Residual Heat Exchangers Design Parameters Revision 16

Table 6.2-9 Shared Functions Evaluation Revision 16

Table 8.2-1 Diesel Generator Load (Max.) for DBA Revision 17

Table 9.3-1 Component Cooling System Component Data Revision 17

Table 9.3-2 Residual Heat Removal System Component Data Revision 16

Table 9.3-3 Spent Fuel Pool Cooling System Component Data Revision 17

Table 9.3-4 Auxiliary Coolant System Code Requirements Revision 16

Table 9.3-5 Auxiliary Coolant System Failure Analyses Revision 17

Table 11.2-7 Radiation Monitoring System Channel Data Revision 17

Table 14.3.4-19 LOCA Containment Response Analysis Parameters Revision 17

Vendor Manuals

Ingersoll-Dresser Component Cooling Water Pumps March 2001

91456 Controlotron Field Manual System 1010P Uniflow Universal

Portable Flowmeter

36