ML18102A347

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Insp Repts 50-272/96-08 & 50-311/96-08 on 960630-0810. Violations Noted.Major Areas Inspected:Operations, Engineering,Maint & Plant Support
ML18102A347
Person / Time
Site: Salem  PSEG icon.png
Issue date: 08/26/1996
From:
NRC OFFICE OF INSPECTION & ENFORCEMENT (IE REGION I)
To:
Shared Package
ML18102A345 List:
References
50-272-96-08, 50-272-96-8, 50-311-96-08, 50-311-96-8, NUDOCS 9609030374
Download: ML18102A347 (39)


See also: IR 05000272/1996008

Text

Docket Nos:

License Nos:

Report No.

Licensee:

Facility:

Location:

Dates:

Inspectors:

Approved by:

U. S. NUCLEAR REGULATORY COMMISSION

50-272, 50-311

DPR-70, DPR-75

REGION I

50-272/96-08, 50-311 /96-08

Public Service Electric and Ga::, Company

Salem Nuclear Generating Station, Units 1 & 2

P.O. Box 236

Hancocks Bridge, New Jersey 08038

June 30, 1996 - August 10, 1996

C. S. Marschall, Senior Resident Inspector

J. G. Schoppy, Resident Inspector

T. H. Fish, Resident Inspector

R. A. Rasmussen, Resident Inspector

S. T. Barr, Operations Engineer

E. H. Gray, Technical. Assistant, Division of Reactor Safety

Larry E. Nicholson, Chief, Projects Branch 3

Division of Reactor Projects

9609030374 960826

PDR

ADOCK 05000272

G

PDR

...

EXECUTIVE SUMMARY

Salem Nuclear Generating Station

NRC Inspection Report 50-272/96-08, 50-311 /96-08

diis integrated inspection included aspects of licensee operations, engineering,

maintenance, and plant support. The report covers a 6-week period of resident inspection.

Operations

Operators continued to demonstrate increased ownership for the plant. For example, the

Senior Nuclear Shift Supervisors (SNSS) continued to provide focus on safety at the

General Manager's morning meeting. In addition, senior operations staff klentif_ied less

than adequate material conditions and pursued resolution of the conditions. Control room

opera~ors demonstrated significantly improved plant knowledge. In one case, however, the_

control room operators did not understand the design function of a service water common

header pressure control valve. The operations staff readily accepted observations

concerning areas for improvement, and took a leading role in holding the entire Salem staff

to high standards. Senior Salem managers also demonstrated the ability to perform and .

act on candid self-assessment. For example, they concluded that the maintenance staff

continued to produce poor quality results. As a result, the managers extended the Salem

Unit 2 outage schedule to the end of 1996, shifted the focus of outage activities to

restoring equipment (rather than meeting deadlines), and initiated a major effort to obtain

significant improvem~nt in the performance of all Salem maintenance personnel. In

addition, the Salem General Manager reduced the number of weekly meetings to allow

increased manager time for field observations, reorganized the work control and

maintenance organizations to provide improved leadership, and increased the focus on .

safety and quality during morning meetings. Through their actions, the Salem managers

demonstrated determination to address and resolve work control and maintenance related

equipment and staff performance deficiencies. (Sections 01.1 and 04.1 l

The Operations staff continued, however, to evidence weak performance in some areas.

For example, operators failed to update the Salem Tagging Request Inquiry System, a

database used to control and monitor valve and breaker positions. As a result, inspectors

and plant staff found service water valves out of their expected positions. In one case, the

mis-positioned valves could have resulted in damage to a safety-related pump.

Significantly improved vigilance by an operator, technician, and system engineer prevented

damage to the pump. Operators did not demonstrate consistently appropriate response to

the potential that mis-positioned valves resulted from tampering. In one case, operators

did not act on the possibility of tampering until the inspectors questioned their actions. In

a second case, the Nuclear Shift Supervisor and the Senior Nuclear Shift Supervisor SNSS

immediately recognized the potential for tampering and took prompt and appropriate action.

(Section 01.2)

ii

.*

..

Salem significantly improved the operability determination process through recent

revisions. Inspectors found m_inor *weaknesses, and determined that operations and system

engineering had not completed training on their respective processes (Section 02.1 ).

On

two *Jccasions, operators did not consider the possjbility that identified equipment failures

could apply to similar plant equipment. In one of these cases, operators did not question

the generic applicability for a failure of a safety-related auxiliary oil pump supplying a

chargin~ pump. As a result, they did not prevent a second failure when subsequently

another charging pump (Section 02.2).

Inspectors continued to identify weaknesses in operating procedures. The procedures did

not contain information needed to protect plant equipment and personnel. F\\ ;;.cedure

weaknesses allowed a service water pressure perturbation, and could have permitted

residual heat removal pump vortexing, potential injury to maintenance personnel, and a

potential reactor vessel overpressurization. Operations management initiated actions to

strengthen these procedures (Section 03.1 ).

The Emergency Operating Procedure (EOP) Group recognized the problems that existed in

the former set of EOPs, implemented an effective process to resolve those problems, and

produced a set of significantly improved EOPs and bases. PSE&G had not completed

operator training on the new EOPs or implemented EOP maintenance tools in order to

maintain the EOPs at this high level of quality (Section 03.2). _The.Salem training staff

significantly improved the training programs through implementation of the Salem Training

Restart Action Plan. The PSE&G staff made significant improvements in training program

self-assessments and line management involvement in the training programs (Section

05.1 ).

.

.

.

The Management Review Committee (MRC) did not consistently inS?ure closure packages

for identified technical and programmatic concerns demonstrated that plant staff had

completed essential corrective actions. (Section 07.2). For example~ plant staff had not

completed the corrective actions for the Salem Unit 2 trip of June 7, 1995, and the MRC

did not identify the lack of evidence of corrective action (Section 07.1 ).

Maintenance

Ineffective maintenance frequently resulted in rework. * As a result, Nuclear Business Unit

and Salem senior management planned to test the maintenance staff to determine the

areas of training weakness and conduct retraining. The intervention, schedule to occur

offsite beginning in September, will require that qualified contractors perform maintenance

during the PSE&G maintenance staff requalification process (Section M1 .2).

In addition to ineffective maintenance, inspectors and plant staff found other problems

with the performance of maintenance. For example, although PSE&G has improved the

Foreign Material Exclusion (FME) program, significant problems continue to exist with

implementation of .the program. (Section M2.1) Inspectors identified one technician failure

to perform a required post-maintenance test (PMT) on safety-related valves, and a second

example revealed itself. (Section M4.1) In addition, the Operations staff identified

iii

numerous deficiencies with the planning, scheduling and performance of PMTs. The senior

Nuclear Business Unit managers and the inspectors independently identified that plant staff

and contractors have not kept Salem clean. The inspectors identified that workers did not

comply with requirements for storage of safety-related materials. The managers promptly

took measures to clean the plant, dispose of the poorly controlled materials, and emphasize

their expectations for housekeeping and material controls (Section M7 .1).

Engineering

An independent assessment conducted by the Salem Integrated Readiness Assessment

team concluded that, in general, Engineering appeared on the right track to support restart

in a safe manner. Inspectors noted that, in one case, the Engineering staff appeared

reluctant to document performance problems using the Corrective Action Program.

Although the team identified four examples of inadequate engineering performance, the

engineering staff did not initiate a Condition Resolution, as required, until questioned by an

inspector. (Section E7. 1 ) . Engineering staff did not demonstrate strong ownership for

plant systems in some cases. Although they provided a detailed list of recommendations

for laying up various systems and components they did not actively identify and resolve

deviations from their recommendations (Section E8.4).

Engineering took adequate corrective action to address a number of NRC restart inspection

items, including the 21RH10 valve (Section E2.1), and the information provided in the

PSE&G response regarding potential for Control Rod Drive Mechanism penetration cracking

(Section E8.1 ). In some cases, such as safety injection pumps and closure of the main

steam isolation valves, effectiveness of the corrective actions remains open until plant staff

can test the corrective measures (Sections E2.2 and E2.3).

iv

TABLE OF CONTENTS

EXECUTIVE SUMMARY

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TABLE OF CONTENTS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

v

I. Operations . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

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II. Maintenance

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Ill. Engineering

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23

V. Management Meetings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

32

v

Report Details

Summary of Plant Status

Unit 1 and Unit 2 remained defueled for the duration of the inspection period.

I. Operations

01

Conduct of Operations

01.1

General Comments (71707)

Using Inspection Procedure 71707, the inspectors conducted frequent reviews of

ongoing plant operations. Operators continued to demonstrate increased ownership

for the plant. For example, the Senior Nuclear Shift Supervisors (SNSS) continued .

to provide focus on safety at the General Manager's morning meeting. In addition,

senior operations staff identified less than adequate material conditions and pursued

resolution of the conditions. Control room operators demonstrated significantly

improved plant knowledge. The operations staff generally seemed to accept

observations concerning areas for improvement more readily, and took a leading role

in holding the entire Salem staff to high standards. Senior Salem managers also

demonstrated the ability to perform and act on candid self-assessment. For

example, they concluded that the maintenance staff continued to produce poor

quality results. As a result, the managers extended the Salem Unit 2 outage

schedule to the end of 1996, shifted the focus of outage activities to restoring

equipme.nt (rather than meeting deadlines), and initiated a major effort to obtain

significant improvement in the performance of all Salem maintenance personnel. In

addition, the Salem General Manager reduced the number of weekly meetings to

allow increased manager time for field observations, reorganized the work control

and maintenance organizations to provide improved leadership, and increased the

focus on safety and quality during morning meetings. Through their actions, the

Salem managers demonstrated determination to address and resolve equipment and

staff performance deficiencies.

01.2 Operator Control of Safety-related Equipment

a.

  • Inspection Scope (71707)

The inspectors toured accessible plant areas to assess plant and equipment

conditions. Inspectors discussed plant configuration control with Operations

management, operating shifts, and Security personnel.

b.

Observations and Findings

On July 18, 1996, the inspector discovered 21SW161, a normally closed and

locked valve, open and unlocked; The 21SW161 valve provides an emergency

service water (SW) supply to the auxiliary feedwater (AFW) system. The Tagging

Request Inquiry System (TRIS) listed the 21SW161 as closed and locked. The

2

operating shift promptly closed and locked the valve, however, they did not

. immediately react to the possibility of tampering until the inspector contacted the

Operations Manager. The operating shift subsequently determined that an operator,

on an approved work order, repositioned the valve on July 15. The operator failed

to update TRIS in accordance with management expectations. Poor communication

between Operations and Maintenance contributed to <?Perators maintaining the

21SW161 in the abnormal position after maintenance technicians completed work

on July 15. There was no safety consequence to this lack of configuration control

due to plant condition (no other applicable SW or AFW work).

On July 19, an equipment operator discovered a normally chained and locked 18-

foot step ladder removed from its designated position. Operators needed the ladder

to align temporary air compressors to provide a backup air supply. The operating

shift did not respond to evaluate potential tampering until the inspector contacted

the Operations Manager. The Operations Mariager initiated a condition report and

night order book entry identifying Operations' insensitivity to potential malicious

tampering. The Operations staff drafted a "Response to Potential Tampering"

procedure to provide guidance in* this area.

In addition, while running no. 22 safety injection pump maintenance* retest on

August 8, workers found 2SW162 and 2SW181 closed. Operators expected to find

the valves, used to isolate service water to the lube oil cooler, in their normally

locked open position. The equipment operator began to reopen the valves,

however, when the shift supervisor learned of the mis-positioned valves he

terminated the pump test, directed operators to quarantine the area, and requested

security to help determine the cause of the mis-positioned valves. The Senior

Nuclear Shift Supervisor (SNSS) also notified plant managers, the Hope Creek_

SNSS, and the inspectors. Later that day, Operations staff determined that on July

31, an operator releasing a safety tags had opened the valves, as directed by the .

release order. He identified a service water leak and appropriately shut the valves.

The inspector verified that the operator also marked the release documents, as

required, to indicate that he left the .valves in an abnormal condition due to the

service water leak. The inspector verified that the independent verification also

. documented that the operator left the valves in an abnormal condition (closed). The

  • operations staff concluded that plant staff had not accurately updated the TRIS to

reflect the actual valve positions after the manipulations on July 31 . Procedure

SC.OP-DD.ZZ-0008(0), TRIS Tagging Operations, Rev. 6, step 2.1.7.C. requires

that operators sign and date that T.RIS has been updated on the Tagging Request

Worksheet. Failure to update TRIS is a violation (VIO 50-272&311 /96-08-01 ).

The inspectors observed that vigilance by plant staff during the pump run prevented

damage to the safety injection (SI) pump. Failure to update TRIS, however, resulted

in unnecessarily risking damage to the pump.

The inspectors noted that the Salem unit 2 nuclear shift supervisor and the SNSS

promptly identified that mis-positioned valves represented a potential indication of

tampering. They took prompt, aggressive, action to determine the cause, while

simultaneously verifying that other systems did not have indications of tampering.

3

They also appropriately notified Hope Creek. The Hope Creek staff, however, did

not demonstrate appropriate sensitivity to the potential for tampering, and took no

action other than to mention the Salem problem to Hope Creek staff during morning

meetings.

c.

Conclusions

Operations staff failed to update the Salem TRIS. As a result, an inspector found

one service water valve out of its expected position and operators foung two

'

_,

additional valves out of position during a safety injection pump test. In the latter

case, the mis-pt1~;tioned valves risked damage to ~he no. 22 safety injection pump ..

In the first instance, operators did not respond to the potential for tampering until

questioned by the inspectors. In the last instance, the Salem Unit 2 Nuclear Shift

Supervisor and the Senior Nuclear Shift Supervisor placed the pump in a safe

condition and took immediate action in response to the potential for tampering.

02

Operational Status of Facilities and Equipment

02.1

Review of Operability Determinations, NRC Restart Item 111.6 (Open)

a.

Inspection Scope (71707)

The inspectors performed a review of PSE&G's methodology for assessing the

operability of degraded or nonconforming structures, systems and components and

how these issues were tracked through resolution. This effort included an

evaluation of current programmatic guidance and a sampling of "active" operability

determinations (OD), as well as an assessment of a recently completed safety

review group audit of the OD process.

b.

Observations and Findings

Based on a review of NRC inspection reports issued for Salem in the last two years,

the inspectors noted several prevalent themes regarding the performance of OD's.

Specifically, there has been:

  • *

a lack of clear guidance for performing operability evaluations

weak documentation of the technical bases of operability

a weak review and approval process

  • inadequate training for operators and supervisors

weak engineering department support

The inspectors noted that PS.E&G management has acknowledged each of these

deficiencies, and has taken several steps to address and resolve them.

Of primary *significance was the .development of clear procedural guidance that

systematically guides the implementation of the OD process. The inspectors

reviewed the applicable procedures (SC.OP-AP.ZZ-0006 (0) revision 2, "Operability

Determination" and SC.SE.AP.ZZ-0001 (Q) revision 0, "Follow-up Operability

4

Assessment") in detail and judged that they adequately addressed the above noted

prior performance concerns. Specifically, these documents strictly define what an

OD is, how orie is made, where it is documented, and what compensatory

measures are necessary. Further, the procedures mandate added levels of

concurrence, including *a Station Operations Review Committee (SORC) review

within 24 hours2.777778e-4 days <br />0.00667 hours <br />3.968254e-5 weeks <br />9.132e-6 months <br /> of making an OD. Finally, clear standards are provided for when an

OD can be considered resolved.

Despite these programmatic improven;ients, the inspectors determined that the new

guidance did not require an evaluation of the generic applicability of identified

degraded or nonconforming conditions* to similar plant or opposite unit components,

a feature that had appeared in earlier versions of the OD procedure. The inspectors

also noted that, though the new OD process requires a monthly audit to ensure (in

part) that the aggregate effect of open OD's has not caused a system to become

inoperable, no documentation of previous audits was available for review and no

standard for aggregate impact assessment is provided.

In addition, the inspectors learned that the operations department was employing an

informal software database tracking system for managing "inactive" OD's (i.e.

degraded or nonconforming equipment not required in ttie current plant operating

mode), a process which was not governed by either of the controlled OD

procedures. This process was developed to reduce the number of OD's shift

personnel were forced to manage, as well as to code each of them with their

technical specification operational mode applicability to ensure that they would be

"re-activated" prior to plant entry into a mode in which the associated equipment

was required. While the stated basis appeared to be sound, the inspectors judged

that the operations department's use of an uncontrolled OD management process *

increased the potential for error. in monitoring the existing backlog and tracking

  • individual items to closure.

The inspectors reviewed a sample of six of the seventeen "active" OD's listec:l in the

operating shift's log book. Of those reviewed, the documented technical bases

appeared to adequately support a conclusion of "operable but degraded." Further,

the inspectors verified that OD-required compensatory measures were being

properly implemented. However, of these six OD's, two qualified for immediate

closure under the SC.OP-AP.ZZ-0006 procedure (95-080,95-140), and three*

qualified for transfer to "inactive" status under the informal program described

above .(95-043,95-128, 95-140). Additionally, one OD (96-001) included

inconsistent guidance for required compensatory actions and another (95-080) had

incomplete documentation to support the OD. Finally, PSE&G's most recent OD

performance indicator listed nineteen outstanding issues, two greater than tracked

in the operations department active log. Collectively these discrepancies indicated .a

lack of rigor in implementing programmatic controls.

On May 23, 1996, the Salem safety review group (SRG) completed an assessment

of the OD process. In their report, the SRG concluded that while OD programmatic

controls were capable of supporting station restart, further management attention

was necessary to ensure that implementation of program requirements would be.

c.

5

effective. The inspectors generally concurred with the SRG report findings,

especially with regard to a noted weakness in OD and follow-up review. training for

plant operators and system engineers. The inspectors learned that most operators

have received training on the newly revised OD process, but have not had recent

"performance-based" training on how to evaluate degraded conditions in order to

establish system operability. Additionally, no training had yet been conducted for

system engineering personnel regarding the expectations of the newly issued

SC.SE-AP.ZZ-0001 procedure for OD follow-up assessments.

Conclusions

PSE&G's recently revised operability determination process provides clear guidance

for documenting and tracking the operability of degraded or nonconforming

systems, structures and components, and adds additional levels of station review to

ensure that associated technical bases and compensatory measures adequately

support a conclusion of "operable but degraded." However, management of

"inactive" operability determinations, while technically adequate, lacked formal

procedural controls and increased the potential for tracking* errors. The

documentation associated with several "active" operability determinations did not

consistently implement established guidance.

Additionally, plant operators and

system engineers had not received recent training on how to appropriately evaluate

degraded and non-conforming conditions.

02.2

Equipment Status Awareness

a.

Inspection Scope (71707), NRC Restart Item Ill. 7 (Open)

The inspector performed control room walkdowns and operator log reviews to

assess availability and operability of plant equipment.

b.

Observations and Findings

On August 1, 1996, Unit 2 operators noted that the auxiliary oil pump for no. 21

centrifugal charging (CVC) pump did not start iri auto as required (CR 960801362)~

Operators placed the auxiliary oil pump in manual run. On August 2, Unit 2

operators noted that the auxiliary oil pump .for no. 22 CVC pump did not start in

auto as required (96082073). The operating shift did not consider the potential for

common mode failure until the inspector noted the auxiliary oil pump failures.

Operation of the no. 22 CVC auxiliary oil pump in auto without an understanding of

the failure of no. 21 eve auxiliary oil pump represented a lack of questioning

attitude on part of the operating shift. The system manager stated that operation

without the auxiliary oil pump increased bearing wear, but did not threaten pump

operability.

  • In the early morning hours of August 2, 21 SW21, a diesel generator service water
  • header supply valve, failed to stroke from the control room during a planned post

maintenance test (PMT). (See section 4.1) At 5:47 a.m., Unit 2 operators

discovered that 2SJ68, safety injection minimum flow valve, could not be opened

c.

6

from the control console. (See section 4. 1) The operating shift did not consider the

potential for common cause failure of the motor operated valves until the inspector

noted the degraded condition during a morning control room walkdown. Both

valves have common 230 VAC, 28 VDC, and 125 VDC power supplies. Failure to

question potential common mode failures of safety-related valves represents a lack

of questioning attitude on part of the operating shift. Instrumentation and Controls

(l&C) technicians determined that the valves failed for different mechanical reasons.

The inspector determined that maintenance's failure to perform timely PMTs applied

to both valves. (See section 4.1)

Conclusions

The operating shift failed to evaluate charging pump auxiliary oil pump and safety~

related motor *operated valve failures for potential common mode failures.

03

Operations Procedures and Documentation

03.1 * Procedure Quality, NRG Restart Item 111.3 (Open)

a.

Inspection Scope (71707)

The inspector observed plant activities and reviewed the controlling procedures to

assess procedure adequacy.

b.

Observations and Findings

.

.

.

Control* room operators* maintained Unit 2 defueled and at the mid loop position

using S2.0P-SO-CVC-0007, revision 4, Fill and Vent of CVCS. The CVC-0007

procedure did not provide water level limitations to preclude residual heat removal

. (RHR) pump vortexing. In addition, S2.0P-SO.RHR-0001, revision 4, Initiating RHR,

did not provide similar limitations. Despite the procedure weakness, all operators

interviewed knew and und_erstood RHR pump operating restrictions. The Unit's*

defueled status made this a RHR pump reliability concern and not an immediate*.

safety concerri. Operations management initiated a procedure revision for the CVC-

0007 and RHR-0001 procedures (R15102).

Unit 2 operators used S2.0P-SO.CC-0002, revision 7, 21 and 22 Component

Cooling Heat Exchanger Operation, to remove no. 21 component cooling heat

exchanger (CCHX) from service. The CC-0002 procedure did not provide specific

guidance to control this evolution resulting in a SW pressure perturbation. (See

section 04.1) Step 5.2.3 instructed the equipment operator to slowly close the

CCHX SW inlet (SW122) and SW regulating (SW127) valves. The procedure

provided no guidance on coordinating the above SW flow reduction with use of the

pressure control valves (SW308/SW311 l and the SW bypass valves (SW50s) to

preclude excessive SW pressure swings. Operations management initiated actions

to improve operator CC system training and to revise the CC-0002 procedure .

7

Unit 2 operators used S2.0P-SO.CA-0001, revision 2, Control Air System

Operation, to control realignment of SW spool pieces needed to support an

emergency control ciir compressor (ECAC) chill water outage. The CA-0001

procedure did not provide controls to protect maintenance personnel. In particular,

the procedure tagging ensured use of an ECAC breaker danger tag to protect the

ECAC, however, it did not re'iluire SW valve danger tags to protect personnel from

pressurized SW piping. Mis-operation of the closed SW valves could also result in a

SW pressure transient. Operations management initiated a procedure revision for

CA-0001 (R15078) and initiated a search for additional operation procedures with

similar safety tagging controls. On August 10, the operating shift made an on-the-

spot change to S1 .OP-SO.CA-0001 to require use of SW safety tags dl.riihg the

alignment of no. 1 ECAC SW spool pieces.

Maintenance personnel used SC.MD.FR.FH-0006, revision 9, Reactor Vessel Head

Reassembly, to reset the head under various plant conditions. The FH-0006

procedure did not provide precautions to ensure brittle fracture prevention for the

reactor vessel. Technical Specification (TS) 3.5.3 requires that a maximum of one

safety. injection pump or one centrifugal charging pump shall be operable whenever

the temperature of one or more of the reactor coolant system cold legs is less than

or equal to 31 2 degrees F and the head is on the reactor vessel. As a scheduled

reactor head lift approached, Unit 2 operators maintained one charging pump in

service and two safety injection pumps available. Although TS 3.5.3 did not apply

to Salem's undefined mode, the potential for reactor vessel over pressurization is a

vessel integrity concern. In addition, operators could use the FH-0006 procedure

under similar circumstances with fuel in the vessel. Vessel overpressurization with

fuel in the vessel presents a nuclear safety concern. Operations management

initiated actions to provide an additional barrier to vessel overpressurization.

In addition to the NRC identified examples, the operations staff identified numerous

improvements to procedures. Operations staff consistently implemented the "On-

The.:Spot Change" (OTSC) process when applicable. The shift's intolerance for poor

quality procedures improved significantly and resulted in many procedure revisions.

Operator awareness to problems with guidance "within" procedures increased,

however,, identification of needed guidance "left out" of procedures, as noted

above, remained a weakness. The absence of adequate guidance in the above

procedures is a violation (VIO 50-272 & 311/96-08-05). NRC Restart Item 111.3,

Procedure Quality, remains open pending implementation of corrective actions to

ensure adequate guidance is contained in the operating procedures.

c.

Conclusions

Several Salem procedures did not contain essential information needed to protect

plant equipment and personnel. Procedure weaknesses permitted potential RHR

pump vortexing, a SW pressure perturbation, potential injury to maintenance

personnel, and a potential reactor vessel overpressurization. Operations

management initiated actions to strengthen these procedures.

8

03.2 Adequacy of Emergency Operating Procedures, NRC Restart Item 111.15 (Closed)

a.

Inspection Scope 192903)

Emergency operating procedures (EOPs) provide operating instructions for plant

conditions requiring a reactor trip and/or safety injection actuation. EOPs

incorporate stabilization and recovery strategies for various postulated events, both

within and outside the plant .design basis, and include critical safety function

recovery strategies designed to protect the physical barriers that prevent fission

product release.

PSE&G had various Salem EOP improvement efforts underway since 1 994. New

company management reorganized these efforts into a comprehensive EOP Group in

January .1996, and that group completed the revision of all Salem EOPs, along with

the respective EOP bases, by June 1996. The inspector reviewed the EOP Group

process used to revise the Salem EOPs, several of the completed EOPs, the

performance of EOPs in the Salem simulator, and PSE&G management oversight of

the EOP program. In addition, the inspector compared the EOP program to the

requirements of the Salem UFSAR.

. b. *

Observations and Findings

The EOP Group process for improving the Salem EOPs included a detailed

comparison of each. EOP against its associated Emergency Response Guideline

(ERG). This comparison also involved a review of the ERG bases to validate the

assumptions of the ERG to ensure applicability to the Salem facility. The EOP

Group performed this review for all 41 Salem EOPs. The depth of the PSE&G effort

was indicated by their submittal of approximately two dozen direct work requests to

the vendor, Westinghouse, which proposed revisions and corrections of the generic

ERGs and their bases. In addition to the technical review of the EOPs, the EOP

program included the streamlining of individual EOP steps and the flowchart for

each EOP. Where EOP steps are common between EOPs, the program standardized

the format and language of the step to provide consistency between the EOPs .. The

EOP G; oup coordinated with PSE&G Engineering to identify all setpoints and

numerical values used in the EOPs. All values were calculated by Westinghouse

using data provided by PSE&G, appropriately placed in the EOPS, and then

consolidated into an "EOP Setpoint Document." In addition to the EOPs

themselves, the EOP Group redesigned and reformatted the Salem EOP bases

documents to ensure consistent treatment of the Salem-specific procedures when

compared. to the generic documents.

The inspector performed an in-depth review of five of the new Salem EOPs:

EOP-TRIP-1, "Reactor Trip or Safety Injection",

EOP-SGTR-1, "Steam Generator Tube Rupture",

EOP-LOCA-1, "Loss of Reactor Coolant",

EOP-LOPA-1, "Loss of All AC Power", and

EOP-FRHS-1, "Response to Loss of Secondary Heat Sink".

  • ,

9

The inspector compared the new Salem procedures to the corresponding

Westinghouse ERG and the previous PSE&G revision, and analyzed the

effectiveness of the procedure to properly mitigate the intended abnormal or

accident condition. As an.additional means to determine procedure adequacy, the

inspector observed several simulator scenarios conducted with both initial operator

training candidates and previously licensed operators in requalification training.

During the observation of the use of the EOPS, the inspector identified a problem in

EOP-LOCA-1 in which the procedure had a continuous action step which instructed

the operator to not stop any ECCS pumps, yet within the next few steps the

procedure had the operator stop a residual heat removal pump. The licensee

acknowledged the inconsistency, revised the Salem EOP to remove the first

instruction as a continuous action step, and submitted an additional direct work

request to Westinghouse to* identify the inconsistency as a potential generic

concern. Other than this one inconsistency in EOP-LOCA-1, the inspector

determined that the Salem staff noticeably improved the EOPs' consistency,

accuracy and usability, and that the procedures provided the necessary steps arid

strategies for operators to respond to plant transients and accidents ..

In order to assess management oversight of the EOP program, the inspector

attended the SORC meeting for the approval of the "EOP Setpoint Document" and

the Management Review Committee (MRC) meeting for the closeout of the EOP

NRC R~start Item. The SORC acknowledged the setpoint document effort as a

good initiative and had a number of questions regarding the effect of any new

setpoints on Salem Technical Specifications and other Salem procedures. The

SORC concluded that the 1 OCFR50.59 review associated with the EOP Setpoint

Document had not adequately addressed the safety impact of the setpoint analyses

and sent the review back for revision before it would accept the new setpoint

  • document. The MRC asked the EOP Group head several questions concerning the

process used to develop the new EOPs, how the new EOPs were to be maintained

accurate and consistent, and the schedule for training licensed operators on the

new EOPs. The EOP Group leader explained that all operators would receive

training on the new EOPs prior to standing watch following plant startup and that

the EOP usage guidance and maintenance documents would be completed and

approved before plant startup.* -With these assurances given, the MRC accepted the

EOP restart issue as closed. The inspector concluded that both the SORC and the

MRC showed a good questioning attitude and maintained the proper oversight role

and safety perspective while deliberating the EOP restart issue.

The Salem UFSAR has minimal requirements relating to EOPs. UFSAR Paragraph

13.5.3 requires the Salem plant manual to "include those emergency instructions,

with the exception of fire and medical emergency response procedures, necessary

to ensure that proper action is taken to handle any malfunction that may occur at

either of the Salem units." The inspector verified that the revised set of Salem

EOPs met this requirement. In addition, the inspector reviewed the 1 OCFR50.59

applicability review for EOP-FRHS-1, specifically the review and explanation of why

the procedure revision did not change a procedure as described in the UFSAR. The

inspector reviewed the description of the procedure steps used to attempt

restoration of feed flow to the steam generators. The inspector concluded that the

10

systems and setpoints described in EOP-FHRS-1 complied with the assumptions and

limits described in the Salem UFSAR ..

c.

Conclusions

Overall, the inspector concluded that the Salem EOPs were now more than

adequate; the EOP Group had recognized the problems which had existed in the

former set of EOPs, implemented a good process to resolve those problems, and

produced a very good set of EOPs and bases as a final product. The inspector

noted that PSE&G had not completed operator training on the new EOPs or

implemented the EOP maintenance tools in order to maintain the EOPs at this high

level of quality. The inspector concluded that the new Salem EOPs fully support

Salem restart; this item is closed.

04

Operator Knowledge and Performance

04.1

Awareness of Plant Conditions, NRC Restart Item Ill. 7 !Open)

a.

Inspection Scope 171707)

b.

~he inspector discussed plant configuration and plant activities with control room

operators to assess operator awareness and knowledge .

Observations and Findings

For a short period, _one SW bay supplied both nuclear headers and the cross

connected header supplied the sole source of emergency diesel generator (EDG) SW

cooling. The Unit 2 control room operator fully understood the potential to lose all

EDG SW cooling and properly evaluated. leak isolation response to preclude such a

loss.

With Unit 2 defueled, operators filled the reactor coolant system (RCS) to the

mid loop position. The control room operator maintained a good awareness *of RCS

level and the status and accuracy of available level indications. Improper RCS level

could result in reactor coolant pump (RCP) seal fouling or RHR pump cavitation. In

addition, control room operators demonstrated a good knowledge and practical

application of RCS level requirements necessary to preclude RHR pump vortexing.

A Unit 2 control room operator did not know the function nor the setpoint of a SW

bay common header pressure control valve. This confributed to a drop in SW

pressure to 70 psig ( 105-1 25 psig normal operating range) when operators removed

a component cooling heat exchanger from service. The operator responded

promptly to restore SW pressure. Through informal interviews, the inspector

determined that most operators knew the setpoint, but did not fully understand the

function of the pressure control valve. The inspector discussed. this training

weakness with the Operation's staff. Operation's staff initiated actions to include

the pressure control feature in operator requalification training and discussed the

knowledge deficiency in a night order book entry.

11

c.

Conclusion

Operator knowledge concerning plant configuration and operation was generally

good, however, the inspector identified a training deficiency involving the function

of a service water common header pressure control valve.

05

Operator Training and Qualification

05. 1 Adequacy of Training, NRC Restart Item 111.16 (Closed)

a.*

Inspection Scope (92903)

In March 1995, reviewers identified numerous weaknesses in the Salem Operations

Training program affecting every aspect of training. They subsequently conducted

two root cause evaluations, one performed by PSE&G personnel, and the other by

an independent team of industry peers, consultants and PSE&G personnel. The

findings, causal factors and recommendations of the two teams formed the basis.

for the PSE&G Accredited Training Restart Action Plan.

The inspector reviewed the actions taken by PSE&G in accordance with the Training

Restart Action Plan to assess its adequacy and completeness. The inspector also

assessed the actions taken by PSE&G in response to Problem Statement 4 of the

Engineering Restart Action Plan. Problem Statement 4 documented inadequate

training of engineering staff to assure high quality of work and lack of clearly

estab.lished or maintained staff qualifications.

In addition to the review of the Training Restart Plan itself, the inspector also

assessed PSE&G management oversight of the restart issue and their performance

in accepting the plan for closure. As part of an ongoing NRC initiative, the

inspector compared the training programs with the description of and requirements

for the programs contained in the Salem UFSAR.

b.

Observations and Findings.

The Salem Training Restart Action Plan identified nine problem statements which

each had several associated corrective actions intended to resolve the deficiencies

in that area. The topics covered by the nine problem statements were:

1 .

PSE&G management had not established expectations for line and training

ownership of training programs;

2.

Line and training management had not identified all root causes for training

program deficiencies;

3.

Open positions in the training staff had adversely impacted the quality of

training;

4.

Quality of training materials had adversely impacted classroom instruction;

5.

Instructor performance weaknesses, including poor student evaluations,

reduced the effectiveness of training; *

6.

7.

8.

9.

12

Personnel had been performing tasks before their qualification for those tasks

had been completed;

Training program self-evaluations had not provided critical assessment of the

training programs;

Internal training oversight and industry peer evaluations had not been

properly utilized to identify training weaknesses; and

PSE&G had to concur with readiness for accreditation renewal.

The inspector reviewed the PSE&G evaluations which had led to the development of

the problem statements and the proposed corrective actions for them.

The

~nspector performed this assessment for all problem statement areas except for the

ninth problem statement, which was beyond the regulatory scope of the inspection.

Using a sampling method, the inspector selected at least three corrective actions

from each of the first eight problem statements and assessed those actions for

adequacy and completeness.

The inspector found that PSE&G Training Restart Action Plan had done a thorough

job in evaluating the deficiencies of the training program and had provided effective

corrective actions as well. PSE&G performed a number of self-evaluations and had

made a number of management changes in the Nuclear Training Department,

including the Director of Nuclear Training, the Operations Training Manager, the

Maintenance Training Manager, and the Technical Training Manager. Over the past

year the new management team had brought in over a half dozen industry peer

review teams to assist in assessing the progress in improving the training programs.

PSE&G also issued new expectations for line management involvement in the

training process and participation in each training department's Training Review

Groups (TRGs). The inspector reviewed minutes from the last half year's TRG

meetings for operations and technical training and interviewed several members of

training, operations and engineering management, and concluded that line

management's involvement in the training process had greatly improved and

resulted in better self-assessments of the training programs.

In the interviews with Training Department management, the inspector determined

that PSE&G took positive steps to resolve the weaknesses ii"' training staff manning

and performance. PSE&G had brought in a number of over-hires to supplement the

previous training staff and instill a new perspective in the training staff. The

inspector observed a number of licensed operator training sessions, both in the

classroom and in the simulator, and concluded that the training staff performed well

and that line management was very involved throughout the entire process. As one

of the checks on training. restart plan completion, the inspector verified the

completeness of several qualification cards. The inspector compared the job

  • assignments of several non-licensed operators, maintenance technicians and

engineers with the qualifications .and training completed by each person. The

inspector determined that none of the personnel sampled were assigned* to positions

or responsibilities for which they were not qualified by documented training.

13

PSE&G addressed Problem Statement 4 of the Salem Engineering Restart Action

Plan with corrective actions very similar to the actions of the training restart plan.

In fact, responsibility for completing a majority of the engineering corrective actions

had been assigned to the Nuclear Training Department. In order to improve

_

engineer training and qualification, PSE&G planned on bench marking all engineering

personnel qualifications, completing an engineering personnel job analysis, and

developing a resultant engineering training and qualification matrix. PSE&G also

intended to improve the engineering training programs to maintain the qualific.ations

of the engineering staff at a high level. The inspector noted that the Nuclear

Engineering Department had developed a training coordinator within the department,

and that the Nuclear Ti'aining Department had moved the engineering training staff

- from the training center to the building which housed nuclear engineering staff in

order to promote closer coordination between the training and line staffs. The

inspector reviewed the new qualification and training matrix and the training

programs PSE&G had developed to maintain the engineers' qualification and

performance. The inspector determined that engineering personnel had been

assigned to positions for which they were trained and qualified and that engineering

and training management were coordinating and tracking engineer, training in a

manner to improve engineering performance.

The inspector attended the MRC meeting when the training staff presented the -

Training Restart Action Plan to the MRC-for acceptance and closure. The Training

Restart Action Plan was the first of the nine Salem restart plans to be brought

before the MRC for closure. The training department intended the same

presentation to be adequate to close the "Adequacy of Training" NRC Restart Issue.

The inspector noted that the training department presentation was exceptionally

brief (approximately 10 minutes) and only addressed the shortcomings of the

licensed operator training program. The MRC did not ask any probing questions and

  • yet accepted the training restart plan and the NRC restart issue as closed. The

inspector concluded that the MRC performance had been relatively weak and did

not justify the closure of the training plan. Subsequent to the MRC meeting, the

inspector met with the Salem Projects Manager, who coordinates MRC act.ivities,

and discussed the inspector's concerns. The Projects Manager acknowledged the

apparent shortcomings of the MRC performance but explained to the inspector the

existence of extenuating circumstances. The Salem MRC had yielded responsibility

for this restart plan to the Nuclear Training Oversight Committee (NTOC), a separate

management team with a higher level of management on it than the MRC and

whose sole responsibility was the oversight of the training programs. Through a

review of MRC documentation, the inspector determined that the NTOC had

maintained oversight of the training restart plan progress and had kept the MRC

informed of their assessment of that progress. The inspector concluded that

PSE&G management had in fact displayed the proper oversight of the

implementation of the Training Restart Action Pla*n. Notwithstanding the inspector's

conclusion, the Salem Projects Manager acknowledged the appearance of the MRC

performance relative to restart action plan review and closure, and the Projects

Manager issued new criteria for the MRC to use in assessing the closure of restart

plans in the future.

-

14

The Salem UFSAR Section 13.2, "Training Program," states that the Nuclear

Department training program is detailed in the training procedures manual. One of

the procedures specifically referenced in Section 13.2 is Training Procedure 304,

which describes the senior reactor operator training program. The inspector

determined this reference was referring to training procedure TQ-TP.ZZ-0304(0),

"Senior Reactor Operator (SRO) Training Program." The inspector reviewed this

procedure and determined that all assumptions and requirements of this procedure

were being met by the Training Department's current programs. The inspector

therefore concluded that this part of the training program complied with the UFSAR.

c.

Conclusions

The inspector concluded that the Salem training programs had been greatly

improved via the implementati~n of the Salem Training Restart Action Plan. Most

notable were the improvements in the area of training program self-assessments

and in the area of line management involv~ment in the training programs. PSE&G

had evaluated the* deficiencies in the training programs well and developed the

training restart plan accordingly. The inspector's review determined that PSE&G

had implemented that plan effectively and completely. In implementing the Training

Restart Action Plan PSE&G had also satisfied the requirements of the Engineering

Restart Action Plan Problem Statement 4. Despite the marginal performance of the

MRC, the inspector concluded that the PSE&G completion and implementation of

their Training Restart Action Plan was acceptable, and therefore, NRC Restart Issue

Ill. i 6, "Adequacy of Training," is closed.

07

Quality Assurance in Operations

07.1

Corrective Actions for Salem Unit 2 Trip, NRC Restart Item 11.43 (Open)

a.

Inspection Scope (92901)

Inspectors reviewed the corrective actions to decide if they adequately addressed

the causes of the Salem Unit 2 trip on June 7, 1995. The licensee review focused

on the equipment-related causes specific to the Salem Unit 2 trip. The Salem

Restart Plans address the broader issues leading to poor plant and staff

performance.

b.

Observations and Findings

Plant staff concluded that an actuation of Salem Unif 2 protective switchgear

caused a turbine trip resulting in the reactor trip. The staff further concluded that

an ineffective Operating Experience Feedback (OEF) program and ineffective

response to vendor technical information resulted in failure to replace Struthers-

Dunn SBF-1 relays prior June 1995. Salem addressed OEF corrective actions

  • *separately since a separate NRC inspection item addresses it and because different

organizations have responsibility for OEF and vendor technical document reviews.

15

As a result, the package focused primarily on the vendor technical document

reviews. The Significant Event Response Team (SERT) 95-02 report, the addendum

to the report and the associated Licensee Event Report (LER) 95-04-01 identified a

significant number of recommended actions, including the following with respect to

vendor technical document review:

Evaluate the history of all Struthers-Dunn relays and create a PM program;

Perform an engineering review of the process for receipt, evaluation and

routing of vendor and industry notifications;

Replace all SBF-1 breaker failure relays on 13KV BS A-8, B-C, C-D, D-E with

. upgraded relays prior to restart; replace* ai!-.SBF-1 breaker failure protection

relays on 500KV breakers with upgraded relays with higher surge capability

by 3-31-96;

Perform a root cause evaluation for lack of prompt implementation of vendor

recommendation to install upgraded relays (due 1-31-96);

The inspector found that the Management Review Committee considered the

package closed without evidence that the plant staff completed the recommended

actions. For example, the scheduled completion (7-15-96) for engineering review of

the process for receipt, evaluation and routing of vendor and industry notifications

occurred two weeks after MRC accepted closure of the package. The results of the

review remained unavailable at the end of the inspection period. The inspector also

noted that the closure package documented an audit of completion of the actions

recommended in the SERT report and addendum, and in the LER. The inspector

noted that the reviewers performed a thorough audit, and documented a number of

discrepancies and incomplete recommendations. The MRC did. not note or question

the discrepancies.

c.

Conclusions

Inspectors concluded that plant staff had not completed the actions. to insure

  • corrective action for the Salem Unit 2 trip of June 7, 1995. In addition, the

Management Review Cornmittee did not effectively insure a basis for closure of this

issue.*

07 .2 Quality of MRC Reviews

a.

Inspection Scope (71707)

Inspectors assessed the MRC review effectiveness for closure of Salem technical

and programmatic issues.

b.

  • Findings and Observations

The MRC* reviewed the closure package for NRC Restart Inspection Item 11.18, Poor

Reliability of Positive Displacement Charging Pumps in meeting 96-045 and

approved it June 6, 1996. A subsequent review by the NRC lead to the following

observations: Seven of fifteen corrective actions identified in the closure summary

16

as complete had no closure documents such as work orders, design changes,

procedure changes, etc., to allow the MRC to confirm completion. The closure

summary identified an additional seven of fifteen corrective action items as

incomplete but provided no technical basis to justify closure of the issue or restart

of the plant without their completion. In addition, the root cause analysis

documents contained six recommended corrective actions with no discussion

included in the package to explain whether these actions would be implemented.

As discussed in section 07. 1 , the MRC accepted the closure package for the Salem

Unit 2 trip with no evidence (such as Work Orders) that plant staff completed

corrective actions for SBF-1 relay problems. In adc:Hfam, the closure package

-contained evidence that engineering had not completed an essential corrective

action, assessment of the vendor technical document review program, yet MRC

accepted the package.

c.

Conclusions

The MRC did not consistently insure closure packages for identified technical and

. programmatic concerns demonstrated that plant staff had completed essential

corrective actions. -

07 .3

Operating Shifts

a. .

Inspection Scope (71707)

Inspectors reviewed a report made to comply with operating license requirements.

b.

Observations and Findings

On August 8, Salem reported to the NRC that they had not submitted a license

amendment when their operating shifts switched from eight hour shifts to twelve

hour shifts. During a review of the license requirements (DPR-75 for Salem Unit 2)

the license*e discovered that license condition 2.C. (24). a. required that, by June 3,

1981, PSE&G establish an eight hour operating shift to comply with NU REG 0737,

item 1.A.1.3.

Salem Unit 2 complied with the requirement, however, in 1993

Salem Unit 2 transitioned to a twelve hour operating shift without requesting that

the NRC change the license condition. The operating license for Salem Unit 1 did

not conta_in the same condition. This item is unresolved pending further NRC review

of the Salem licensee conditiqns (URI 50-272&311 /96-08-06).

07.4 Corrective Action Plan - Rules and Responsibilities, NRC Restart Item 111.10.2

(Closed)

a.

Inspection Scope (92903)

The inspector reviewed the licensee's actions to address problem statement No. 2

of their Corrective Action Restart Plan regarding: Roles and Responsibilities. This is

17

one of six subsections implemented to address weaknesses in the Corrective Action

Program.

b.

Observations and Findings

The inspector observed the Corrective Actions Group (CAG) presentation of this

issue to the Management Review Committee (MRC) on May 30, 1996. Problem

statement no. 2 identified that the Corrective Action Program (CAP) had no single .

point of accountability with *respect to management ownership and oversight. It

also noted that managers had not clearly defined roles, authorities, and

responsibilities for administration of the program

In the spring of 1995, the NBU formed the CAG under a single manager, the

Manager - Corrective Action and Quality Services (CA/OS) with a staff strictly to

provide corrective action program oversight. Revision 9 of NAP-006, Corrective

Action Program, initially defined their roles. The CAG discussed additional changes

at the MRC and planned to further refine the CAG staff's roles and responsibilities.

c.

Conclusion

Regarding problem statement No. 2, the inspector concluded that Manager, CA/OS

satisfies the requirement for a single point of contact. The roles and responsibilities

defined in NAP-006 are sufficient to address the second part of the problem

statement . Since both of these items have been adequately addressed, this restart

item (111.10.2 only) is closed.

II. Maintenance

M 1

Conduct of Maintenance

M 1 . 1 General Comments

Inspection Scope (62703)

The inspectors observed all or portions of the following work activities:

  • *

960729212:

960314180:

960701200:

960701177:

125 voe battery charger inspection/repair of terminal

lugs

No. 21 spent fuel pit cooling pump motor bearing

replacement

Rotation of no. 11 SI pump

Rotation of no. 21 SI pump

The inspectors observed that the plant staff performed the maintenance effectively

within the requirements of the station maintenance program.

18

M1 .2 Conduct of Maintenance

a.

Inspection Scope (62703)

Salem maintenance staff continued to perform repairs that required a large amount

of rework.

b.

Observations and Findings

During the report period, Salem staff identified numerous examples of inadequate

maintenance activities. Condition Resolutions (CRs) documented the following

examples:

Repeat work on the redundant air panel associated with 21 MS 1 71, CR

960806101;

Repeat work on the Lunkenheimer valve associated with 22MS169, CR

960806125;

Repeat work on the 2CVC excess letdown heat exchanger inlet valve

(2CV131 ), CR 9960806081;

Repeat corrective maintenance for the no. 2 polar crane pendant controls, CR

960806090; and

Repeat work to replace the diaphragm for the 21 SW63 valve, CR

960807210.

These CRs represent a small portion of the ineffective maintenance requiring repeat

work. *Salem management recognized the lack of maintenance effectiveness, in

part, as a result of the Salem Integrated Readiness Assessment (SIRA), and

documented the lack of effectiveness in CR 960801205. In addition, on July 22,

1996, PSE&G announced that the Salem unit 2 outage would continue well into the

fourth quarter of 1 996 to insure that the staff completes necessary work to insure

safe, reliable plant operation. During the week of August 5, Salem managers

initiated a plan to retrain all maintenance personnel during the remainder of 1 996.

In the interim,_ qualified contractors and Salem employees that pass performance

examinatic?.s will perform Salem maintenance.

c.

Conclusions

Salem and senior managers acknowledged continued poor maintenance staff

performance. In response, the managers demonstrated their commitment to

insuring safe reliable plant performance. The managers extended the Salem outage

well into the fourth quarter of 1996, and initiated a program to retrain and re-qualify

. the entire Salem maintenance organization.

19

M2

Maintenance and Material Condition of Facilities and Equipment

M2.1 Adequacy of the Foreign Material Exclusion (FMEl Program, NRC Restart Inspection

Item 111.5 (Open)

a. Inspection Scope

Inspectors reviewed procedure changes, training records, completed work

packages, and made field observations to assess the effectiveness of the licensee

corrective actions regarding the FME program.

b. Observations and Findings

The licensee described previous FME related performance with the following

problem statement: "Weaknesses in our Foreign Material Exclusion (FME) practices

had the potential to introduce foreign material into fluid systems or electrical

components. Insufficient understanding of good FME practices by station

supervisors and workers and inadequate FME procedures contributed to the

problem."

PSE&G initiated several corrective actions to resolve the FME program

shortcomings. Among the corrective actions:

Revision of procedures which describe the FME process;

Development and implementation of specialized FME training for new

employees;

FME training for the existing maintenance work force;

Reinforcement of expectations on FME to the work force;

Periodic reviews of FME practices; and

Performance indicators to measure program effectiveness.

The FME closure package included a request to revise SC.MD-GP.ZZ-0006(0),

"Foreign Material Exclusion (FME) and Closure Control", to ensure an Action

Request (AR) is written whenever FME integrity has been violated or is suspect.

Procedure SC.MD-GP.ZZ-0006(0), revision 7, dated July 1, 1996, however,

requires an AR only "If the non-conformance CANNOT either be restored to an

acceptable condition or replaced in kind". PSE&G responded to the inspectors'

observation by initiating a procedure change request to require an AR for all FME

non-conformances. (Reference Change Request R-1 5036)

The inspector reviewed FME trending information included in the closure package.

This trend indicated a reduction in the number of FME occurrences per month since

September, 1995. However, discussions with PSE&G personnel revealed that input

data for the trending came from information contained in Action Requests which

had been initiated since September. During that time period, there had been no

requirement to initiate ARs for FME occurrences, therefore, the inspector considered

the trend information inconclusive.

.*

20

The inspector reviewed training records to verify that all maintenance department

personnel had received the self-study material as indicated in the FME closure

package. The records were difficult to retrieve, and in several cases, it was not

possible to locate the records. PSE&G initiated AR 960801169 to identify and

track resolution of this problem. PSE&G produced other training records that

provided documentation that those personnel in question had received FME training

other than the self-study material.

The inspector reviewed several field completed maintenance work packages. For

each package, the documentation indicated FME controls and practices had been

adequately implemented.

The inspector made observations of ongoing work activities within the plant. The

inspector noted two examples where FME protective devices were used which were

not authorized by procedure SC.MD-GP.ZZ-0006(0), "Foreign Material Exclusion

(FME) and Closure Control". Although the equipment involved was not safety

related, the inspector concluded that since the procedure applied uniformly

throughout the plant, there was potential for impact on safety related components.

PSE&G responded to this observation by initiating AR 960801140 to identify and

track this problem to resolution.

The inspector also found that entry control at the reactor vessel cavity FME

boundary was not in strict compliance with procedures. The FME monitor at the

boundary was allowing an individual with binoculars to enter and exit without being

logged in or out, except for the initial entry at the beginning of the shift and final

exit at the end of the shift. PSE&G corrected the immediate problem and initiated

AR 960806222 to identify and track the procedure noncompliance issue.

The inspector noted two FME occurrences identified by PSE&G during the

inspection period. One involved a hand tool which was dropped into the spent fuel

pool as a result the tool not being secured properly. The second involved the

discovery of pieces of carbon and stainless steel wire found in the reactor cavity

following drain down. Both incidents are being tracked for resolution/corrective

action by ARs.

The procedure violations noted above are considered additional examples of the

failure. to comply with procedure requirements which was identified in Notice of

Violation 50-27 2,311/96-07-01 transmitted to PSE&G in a previous inspection

report.

c.

Conclusions

Although PSE&G has improved the FME program, significant problems continue to

exist with implementation of the program.

As a result, this inspection item remains

open .

21

M4

Maintenance Staff Knowledge and Performance

M4.1 Post Maintenance Testing (PMT)

a.

Inspection Scope (62703)

The inspector reviewed Maintenance's restoration of plant equipment following

maintenance.

b.

Observations and Findings

On June 3, 1996, maintenance technicians completed relay work on 21 SW21, a

diesel generator service water header supply valve. Maintenance returned the valve

to Operations on June 5. On August 2, maintenance technicians performed a PMT

and discovered the valve did not stroke from the control room. On August 2, the

inspector identified that maintenance technicians did not perform the PMT prior to

returning the 21 SW21 valve to Operations. Failure to perform the required PMT is a

violation of NC.NA-AP.ZZ-0009, Work Control Process, step 5.9.1.a. (VIO 50-

272&311/96-08-02) Instrumentation and Controls (l&C) technicians determined

that a*single phase condition caused tripping of the motor operated valve thermal

overloads.

Maintenance technicians completed a PM inspection on 2SJ68, safety injection

minimum flow valve, on May 15, 1996. On August 2, Unit 2 control room

operators discovered that they could not stroke the valve from the control room.

An l&C supervisor identified that technicians did not conduct the PMT in May 1996.

Technicians marked the PM procedure step not applicable (NA) that required valve

stroke because the valve was tagged. Failure to perform the required PMT is

another example of a violation of NC.NA-AP.ZZ-0009 as noted above.

Instrumentation and Controls technicians identified a loose limit switch spring

contact and attributed that condition to a weakness in the maintenance procedure.

In addition, the operations staff identified deficiencies with the planning, scheduling

and performance of PMTs.

For example, the staff initiated AR 96061 2155 (28 *

EOG PMT activities missing) and AR 960703142 (Inadequate PMTs for RVLIS and

EHC system). The Operations Manager assigned a senior reactor operator to lead a

20-man task team to identify and correct PMT program deficiencies.

c.

Conclusions

Maintenance technicians failed to perform required PMTs on safety-related valves.

The Operations staff identified numerous deficiencies with the planning, scheduling

and performance of PMTs.

22

M7

Quality Assurance in Maintenance Activities

M7. 1 Housekeeping and Storage of Safety Related Materials

a.

Inspection Scope (71707)

Inspectors toured the site to assess the adequacy of housekeeping and to determine

compliance with the UFSAR section 17.2.2 commitment to Regulatory Guide 1.38,

Quality Assurance Requirements for Packaging, Shipping, Receiving, Storage, and

Handling of Items for Water Cooled Nuclear Power Plants.

b.

Observations and Findings

c.

During the inspection period the inspectors found numerous examples of poor

housekeeping at Salem. Examples included trash, rain water, tools, litter, and

miscellaneous equipment throughout the plant. The turbine deck contained make-

shift storage areas that contained main generator parts completely immersed in

water. The inspectors observed electrical extension cords too numerous to count.

The inspectors found numerous chemical storage containers (spray cans, etc.),

many of ttiem empty, throughout the plant. On August 1, inspectors discovered

numerous safety-related spare parts stored in a building near the service water

intake structure. The parts included valve stems, bearings, gaskets, valve bodies,

pipe, and other parts associate with the Service Water system. Many of the parts

had labels requiring storage level C conditions, and a few parts required storage

level B conditions. For example, the inspectors found a safety related shaft bearing,

part J50207-000-220, associated with WO 90082011. The Regulatory Guide

requirements for storage of level B and C materials include a fire resistant, tear

resistant, weather tight, and well-ventilated building or equivalent enclosure. The

building (and the storage racks outside of the building) was not fire resistant,

weather-tight, or well-ventilated and did not protect the parts from the possibility of

damage or lowering of quality due to corrosion, contamination, deterioration, or

physical damage. Failure to meet the requirements for storage of level B and C

safety-related materials is a violation. (VIO 50-272&311/96-08-03).

Salem and Nuclear Business Unit (NBU) managers independently identified poor

housekeeping and gave considerable attention to it. In response, they initiated

action to clean up the plant, dispose of the parts, and to emphasize supervisor. and

worker responsibility for plant cleanliness and safety. They also initiated CR

. 960731134, as required, to document a condition adverse to quality, and insure

that they correct it.

Conclusions

The senior NBU managers and the inspectors independently identified that plant

staff and contractors have not kept Salem clean. The inspectors identified that

workers did not comply with requirements for storage of safety-related materials.

The managers promptly took measures to clean the plant, dispose of the poorly

23

controlled materials, and emphasize their expectations for housekeeping and

material controls.

Ill. Engineering

E2

Engineering Support of Facilities and Equipment

E2.1

NRC Restart Issue 11.31 - Residual Heat Removal Discharge Valve (21 RH10) Banging

Noise (Closed)

a.

Scope

The inspectors reviewed Salem engineering staff's determination for 21RH10

banging noises with no. 21 residual heat removal loop in service.

b.

Observations and Findings

Salem engineers determined the cause was an out of tolerance valve stem arm

combined with coolant flow through the valve. The flow rattled the valve disc

against the valve seat. Engineers also noted, based on their review of work history

documents, that disc noise was not unique to 21RH10.

All RH10's exhibited

rattling noises, with 21RH10 being the loudest.

The RH10 is a normally-open, eight inch, double disc (split wedge) gate valve.

When the valve is open, the discs sit in the upper part of the valve body and have

room for movement due to the loose tolerances due to the body casting. With flow

through the valve, the bottom of the discs touch the flow stream and consequently

the discs rattle against the downstream valve seat.

Plant staff took vibration data on all RH 1 O's; 11 & 12RH10 on Unit 1 , and

21&22RH10 on Unit 2. Based on the data, they opened and inspected 11, 21, and

22RH10. Valve 11RH10 dimensions checked out satisfactorily. The 21RH10 body

was satisfactory, however, the disc stem arm dimensions were out of tolerance.

Also, technicians could not weld repair wear indications on the downstream valve

seat. They subsequently replaced valve 21RH10 with valve 11RH10. Technicians

performed minor repairs to 22RH10, including replacement of a worn stem arm.

The staff did not open 12RH 10 because the vibration data did not indicate

dimensions had deteriorated.

Engineers established a monitoring program for the valves. Technicians will open

and inspect one valve, starting with 12RH 10, each refueling outage. The

inspections will continue unless the results indicate the inspections are

unnecessary .

b.

24

Conclusions

The inspectors concluded Salem engineers identified the cause of the banging noise

for 21RH10 and took appropriate corrective action. Also, plant staff adequately

addressed the generic issue and inspected the discharge valves for the remaining

RHR loops, where warranted. This technical issue is closed.

E2.2

NRC Restart Issue 11.34 - Safety Injection !Sil Pump Deficiencies (Open)

a.

Scope

The inspectors reviewed Salem engineers' resolution of SI pump deficiencies.

b.

Observations and Findings

Salem engineers reviewed the maintenance history, in service test data, and

outstanding work items to determine whether the Salem staff had corrected SI

pump deficiencies. The engineers noted the staff had corrected the deficiencies,

and concluded the SI pumps would perform reliably.

Motor and pump vibration data were satisfactory for both Units' pumps, however,

during this review engineers identified that no preventive task existed to periodically

refurbish the motors. Engineers requested a recurring task for refurbishment every

10 years. As an immediate action, the staff refurbished two of the four motors. Of

the remaining two motors, the staff will refurbish one prior to Unit 1 restart; the

other does not warrant refurbishment (done in 1992).

Engineers also responded to industry experience with improperly fastened impeller

locknuts. The staff disassembled all SI pumps and verified technicians had correctly

fastened all locknuts. During reassembly, mechanics noted excessive shaft run out

on both Unit 2 pumps. They successfully replaced both pumps and subsequently

initiated a recurring task to rotate the SI pumps. monthly until operators restart the

respective Units.

The inspectors confirmed satisfactory SI pump and motor vibration data and that

plant staff implemented monthly shaft rotations for idle SI pumps (Work Order 960701200 for no. 11 SI pump and Work Order 960701177 for no. 21 SI pump).

c.

Conclusions

The inspectors concluded plant staff identified SI pump deficiencies. This item is

still open, however, pending the results of operators conducting pump performance

tests .

  • .

25

E2.3

NRC Restart Issue 11.17 - Main Condenser Steam Dumps Malfunction (Open)

a.

Scope

b.

During a requalification training program inspection, NRC examiners observed

operators on the simulator shut all main steam isolation valves (MSIVs) at a point

where the EOPs did not direct them to do so. The operators acted, in part, because

operation of the Salem units using the main condenser steam dumps causes an

uncontrolled plant cooldown~ The inspectors reviewed Salem staff's resolution of

the operator performance and plant design issues.

Observations and Findings

\\

Historically, balance of plant .steam leaks were significant enough to cause the

reactor cooldown rate to approach the Technical Specification limit of 100 degrees

per hour.

To compensate for this condition, operators adopted the unwritten

practice .of closing the MSIVs after a reactor trip to maintain the cooldown rate

within regulations. The inspectors also noted that secondary plant steam leaks

forced operators to perform plant startups with the MSIVs closed (instead of open,

with the turbine stop valves closed).

The Salem staff addressed the procedure compliance and staff performance aspects

of this restart issue through operator training. To correct EOP. inadequacies, the

staff revised steps that gave operators direction on whether to close the MSIVs.

The staff validated the revision and trained the operating crews. The inspector

reviewed the new steps of the EOPs and concluded th_ey were adequate, however,

Salem staff has not yet issued the revision. The staff expected to issue the revision

by September 1st.

c.

Conclusions

Although the revised EOPs direct operators when. to shut the MSIVs, the operators

do not yet have the revision.

Also, the Salem staff did not address why the

operators could not operate the plant as designed following a reactor trip.

Therefore, this item remains open.

E7

Quality Assurance in Engineering Activities

E7 .1

Independent Assessment

a.

Inspection Scope (71707)

Inspectors reviewed the results of the* SIRA team to determine whether the team

identified any safety or compliance concerns. *

b.

26

Observations and Findings

During the period June 3 to 23, an independent team assessed Salem performance

in the areas of Operations, Maintenance and Surveillance, Engineering and Technical

Support, and Management Programs and Independent Oversight.

The team concluded that five of the sixteen assessed En_gineering areas were ready

for restart. The team expected that another nin*e areas would be ready for restart.

The two remaining areas, revalidation of the design bases and engineering staff

knowledge of the design basis required significant improvement. In the details of

_ the engineering assessment, the team identified several *a.-~amples of engineering

failure to meet code and regulatory requirements. The examples included:

No evaluation for thermal expansion of chrome-moly replacement feed water

piping as required by UFSAR commitment to ANSl-831.1.

Equivalent replacement of spiral wound asbestos filled gaskets with flexi-carb

gaskets without a safety evaluation required by 1 OCFR50.59.

Use of ASTM A-563 nuts in place of ASTM A-307 nuts without design

reconciliation, as required by ASME XI.

  • *

A temporary modification (removal of the moior operated valve 2SW26)

without supporting calculations, and without consideration of the seismic

effects on piping for the duration of the modification.

From June 21, when the SIRA team presented their findings until the inspector

questioned the lack of a Condition Report on July 1 ~,the Engineering staff failed to

document *the deficiencies as required by procedure NC.NA-AP.ZZ-OOOO(Q), Action

Request Process, Rev. 0, step 5.2.6. This is a violation (VIO 50-272&311/96-08-

04).

c.

Conclusions

ES

EB.1

An independent assessment conducted by*the Salem Integrated Readiness

Assessment team concluded that, in general, Engineering appeared on the right

track to support restart in a safe manner. Although the team identified four

examples of inadequate engineering performance, the engineering staff did not

initiate a Condition Resolution, as required, until questioned by an inspector.

Miscellaneous Engineering Issues

Potential for Vessel Head Cracking Due to Sulphur Intrusions in the Reactor Coolant

System

Early in 1994, an inspection to identify any Primary Water Stress Corrosion

Cracking (PWSCC) at the Jose Cabrera plant in Spain identified reactor vessel head

penetration cracks which were apparently initiated by high sulfate levels in the

reactor coolant system. In a letter to LR. Eliason, dated May 9, 1996, NRC Region

1 requested that PSE&G conduct inspections or investigations as necessary to

alleviate concerns on this topic regarding Salem Units 1 & 2.

27

a.

Sco"pe

PSE&G responded to the May 9, 1996 letter in a letter to the NRC dated June 10,

1996. ln_,order to evaluate PSE&G's resolution of this concern, the inspector

reviewed the response, documentation supporting the response, and plans for future

actions.

b.

Findings and Observations

The following items are from the itemized responses in the PSE&G letter and are

organized to correspond to that letter. The descriptions are abbreviated for th.:

purpose of this inspection report.

Item I.A.

"No high sulfur concentration as described in NSAL-94-028 or NRC

Information Notice 96-11 have existed at Salem 1." (Note: NSAL-94-028 is a

Westinghouse Report which addresses the same issue)

Item l.B

"Two sulfur intrusions did occur at Salem 2." .... "These sulfur intrusions

were from the equivalent of 7 liters of cation resin compared to the 200-300

liters reported at the Jose Cabrera plant."

The inspector reviewed PSE&G letter NE-95-0724 from R. Dolan, Principle Engineer

- Ch~mistry Support which documented the history of the sulfur intrusions at Salem.

The inspector found that the letter supported the information in Items I.A and l.B.

Item l.C

"Salem 1 does have the Alloy 600 (lnconel) material described in NSAL 94-

028, which experienced cracking at the Jose Cabrera plant, in the control

rod qrive mechanisms (CROM) penetration." " ... the Alloy 600 used in Salem

1 is more susceptible to sensitization than the alloy used in Salem 2."

"PSE&G Engineering is monitoring experience from other plants with alloy

600, especially detailed inspection results, to determine if any additional

actions are appropriate for Salem 1 and 2."

The inspector reviewed Westinghouse Report NSAL-94-028 and PSE&G letters

MEC-95-528 and NE-95-0724 on the subject of PWSCC. In addition, the inspector

met with engineering personnel regarding the monitoring of experience from other

plants regarding this subject. The inspector found that information contained in the

letters was consistent with the response letter and that the plan for monitoring

  • experience at other plants on this issue is adequate .

28

Item l.D

" ... the Salem In service Inspection (ISi) Department performs visual

inspections and ultrasonic testing of the reactor vessel head during refueling

outages to provide assurance that any cracks or leaks are identified."

"VisuaLinspections of the reactor vessel for leakage are also performed in

Mode 3 during plant startups ... "

The inspector reviewed procedure SC.RA-IS.ZZ-0006(Q), VT-2 System Leakage

Visual Exams for Nuclear Class I. II, & Ill Systems and procedure OP-PT.CAN-0001,

Containment Walkdown. The inspector noted that although these procedures

provided adequate guidance for leakage detection, neither procedure provides for

crack detection by ultrasonic testing, dye penetrant testing or eddy current testing

for the CROM penetrations. Further research determined that the NRC has accepted

the position that visual inspection is acceptable for crack detection regarding the

CROM penetrations. This position was stated in an NRC letter dated November 19,

1993 from William T. Russell to NU MARC.

The inspector discussed the results of past inspections for vessel head

  • 1eaks/cracking with a member of the ISi Group in Specialty Engineering and learned

that, to date, no cracking has been found.

Item l.E

"CROM penetration cracking has been analyzed by Westinghouse and it has

been determined that even if such cracking is present it is not a substantial

safety hazard (NSAL-94-028)."

The inspector confirmed that the NRC has previously agreed with the position that

there are no unreviewed safety questions associated with CROM penetration

cracking. That position is documented in the NRC November 19, 1993 letter

referred to in the discussion of Item l.D above. The inspector agrees that the CROM

penetration cracking issue is* not a substantial safety hazard.

c.

Conclusions

The inspector found that the documentation reviewed at the Salem site validates

the information provided in the PSE&G response regarding potential for CROM

penetration cracking. In addition, the inspector concluded that the planned visual

inspections of the vessel head are adequate for detecting any cracks. This issue is

closed.

E8.2

Steam Generator Replacement

a.

Inspection Scope (37551)

Inspectors reviewed the Steam Generator Replacement Project (SGRP) and parts of

the Salem FSAR project on 7/23-7/26 and 8/8-8/9/96.

..

29

b.

Observations and Findings

On June 27, 1996, PSE&G met with NRC staff in Rockville, Maryland to present

their plan to replace the four steam generators of Salem Unit 1 with unused steam

generators from the canceled Seabrook Unit 2 plant. During the week of July 22,

. 1996 inspection was conducted at the Salem plant of the project staffing,

preliminary steam generator replacement (SGRP) planning, organization of the

project, engineering involvement and related project Quality Assurance. As of that

time, work had initiated at the Seabrook Unit 2 in preparation to remove the

replacement steam generators (RSG). The work scope at Seabrook includes tube

quality verification by eddy current testing, pipe cutting, machining, welding, rigging

and lifting, _and hydrostatic pressure testing. Onsite inspection by NRC of a portion

of the work on RSGs at Seabrook is planned during August and September. An

objective of the inspection at the Salem plant was to determine the project overview

and schedule for planning inspection coverage of the steam generator replacement

process.

At the Salem site, the project team had been established and preliminary planning

and scheduling of the SGRP work was in progress. The engineering/licensing

analyses work planned to establish the significance of chqnges induced by the

SGRP project includes a review of the FSAR Chapter 15 accident analyses; steam

generator performance calculations, qualification of the NSSS and support loads, an

evaluation of operational transients, operational evaluations, and operator training

support. At this preliminary stage of the SGRP, no firm conclusions were reached

by the inspector, however no items of concern were identified.

E8.3

Extended Layup of Unit 1 Systems

a.

Inspection Scope (92901)

The NRC reviewed licensee actions to preserve the Salem Unit 1 facility pending

replacement of the steam generators. Proper layup of plant systems during the

shutdown could reduce challenge*s to operators during the subsequent startup. The

licensee shut Unit 1 down in May, 1995 and expected it to remain shutdown

through the remainder of 1996. The inspector reviewed associated procedures and

documentation, performed system walkdowns and interviewed key personnel.

b.

Observations and Findings

In June, 1995, Salem assigned a chemistry supervisor the responsibility to

coordinate and implement the layup program. Chemistry staff developed a Salem

Department Directive SC.CH-DD.ZZ-0003(0), Plant Layup for Salem Chemistry, to

provide guidance for layup of the steam generators, the feed and condensate

system, and the demineralizer plant. System engineers developed recommendations

for layup of other portions of the facility and provided them to the layup coordinator

in a series of memos from the System Engineering Manager .

30

At the time of the inspection, plant staff had almost completely implemented the

secondary system drying with 20 desiccant dehumidifiers installed to control

system humidity. A staff of two full time technicians tended to the desiccant

dehumidifiers, perform walkdowns and)og performance data weekly. The

technicians trended flow rates and humidity readings from various system vent

points to assure dehumidification. One challenge to the secondary layup program

was maintaining the* correct system valve lineup.

Chemistry technicians established the secondary system lineups using a work

request and requesting operations to position specific valves. Operations positioned

the valves and updated the positions in the TRIS. However, no mechanism existed

to assure secondary system valves will remain in position for the remainder of the

outage. Problems resulted from small bore piping replacement where workers

removed and replaced valves, then returned to the normal system lineup vice the

layup position. Chemistry staff implemented technician walkdowns and system

performance trending to maintain the required system configuration.

NRC walkdown identified that plant staff had laid up the sections of piping from the

condensate pump suction to the hot well with. flow through a vent point as desired.

This configuration resulted in a significant section of piping in the low point of the

system with no flow through it to promote drying and without monitoring to assure

the piping remained dry and un-isolated. As a result of the inspector's observations

Chemistry staff requested that operators establish the vent point and added the

valves to their list for sampling and trending.

The inspector reviewed the system engineering recommendations and considered

them comprehensive. The layup recommendations acknowledged planned

maintenance activities prior to restart and summarized the systems required to

remain available during the layup period. However, the system engineering memos

made numerous recommendations that plant staff did not fully implement.

Examples included monthly rotation of various pumps such as auxiliary feed,

residual heat removal and containment spray; removal and dry storage of the

traveling water screens and circulating water pumps; heating and desiccant

  • application in electrical cabinets; w_eekly operation of the turbine oil system and

rotation of the turbine. The layup coordinator continued to pursue implementing

procedures and work requests to establish the desired layup activities.' However,

. the inspector noted that the system engineering staff did not aggressively chase

completion of the recommendations or establishment of alternate conditions.

Operators had defueled the reactor and drained the primary system as much as

possible. Although system engineers recommended sampling of the stagnant water

remaining in the reactor vessel, plant staff had not yet developed a procedure to

obtain the samples. Engineers also re.commended that the reactor vessel level

indicating system (RVLIS) should have water on the process side to prevent damage

to the seals. The inspector noted that the current plant conditions did not provide

for wetting of the RVLIS seals. At the end of the inspection period, the licensee

had not determined the proper course of action regarding RVLIS layup ..

31

c.

Conclusions

The inspector concluded that engineering provided a detailed list of

recommendations for laying up various systems and components. However, plant

-

  1. .*

staff had not developed a comprehensive plan for plant layup that integrated the

various recommendations. The system engineers did not actively identify and

resolve deviations from their recommendations. Plant staff had nearly completed

layup and drying of secondary systems with a trending program in place to monitor

performance. However, the inspector identified a significant portion of piping in the

low point of the system that they had not included in the trending program.

  • Although control of the valve lineup for system drying was weak, the trending

program should provide an adequate indication of system configuration.

E8.4

Spent Fuel Pool Cooling and Refueling Activities

a.

Findings and Conclusions

Inspectors performed a survey of spent fuel practices and spent fuel pool (SFP)

cooling system design and current licensing basis was performed on March 28 and

29, 1996. The NRC published the results of this survey in NRC Inspection Report

No. 50-272 and 50-311196-05. The survey identified four discrepancies .that the

licensee committed to resolve. A letter dated June 27, 1996, was sent to the

licensee requesting that the licensee confirm these commitments and indicate the

projected completion date for each of the actions.

Specifically, the licensee committed to:

( 1) Update the current licensing basis to state that a full core off-load is the routine

practice during refueling outages (IFI 50-272&311 /96-08-07).

(2) Perform an analysis of the SFP structures and associated systems to consider

SFP water temperatures above 180 F (IFI 50-272&311 /96-08-08).

(3) Develop a procedure for using the cross connect between th9 heat exchangers

to support the one unit with the SFP excess heat load (IFI 50-272&311 /96-08-09).

(4) Put in place procedural controls that will assure that the SFP heat load is

maintained below the analyzed value (IFI 50-272&311/96-08-10).

Inspectors will inspect licensee implementation of the commitments during routine

inspection activities .

-- J

,,

32

V. Management Meetings

X 1

Exit Meeting Summary

The inspectors presented the inspection results to members of licensee management at the

conclusion of the inspection on August 14, 1996. The license.a acknowledged the findings

presented.

The inspectors asked the licensee whether any materials examined during the inspection

should be considered proprietary. No proprietary information was identified.

INSPECTION PROCEDURES USED

IP 61726:

IP 62703:

IP 71707:

Surveillance Observations

Maintenance Observations

Plant Operations

IP 92901:

IP 92903:

Followup - Plant Operations

Followup - Engineering

ITEMS OPENED, CLOSED, AND DISCUSSED

Opened

50-272&311/96-08-01

50-272&311 /96-08-02

50-272&311 /96-08-03

50-272&311/96-08-04

50-272&311 /96-08-05

50-272&311 /96-08-06

50-272&311 /96-08-07

. 50-272&311 /96-08-08

50-27 2&311 /96-08-09

50-272&311/96-08-10

VIO

Ineffective Tagging Request Inquiry System

updates

VIO

Failure to perform post maintenance testing

VIO

Inadequate safety-related material storage

VIO

Failure to initiate Condition Resolution reports

(App B, Criterion XVI)

VIO

Failure to Provide Adequate Operating

Procedures .

URI

Review Salem License Conditions

IFls

Refuel Practices Commitments

IFls

Refuel Practices Commitments

IFls

Refuel Practices Commitments

IFls

Refuel Practices Commitments.

AFW

AR

CAG

CAP

CA/OS

CCHX

CROM

CRs

eve

ECAC

EDG

EOPs

ERG

FME

HDI

l&C

INPO

ISi

LER

MRC

MSIVs

N/A

NBU

NRC

NTOC

OD

OEF

OTSC

PDR

PMT

PSE&G

PWSCC

RCP

RCS

RHR

RVLIS

SERT

SI

SIRA

SNSS

-SORC

SRG

SRO

SW

TDR

TR Gs

TRIS

TS

UFSAR

LIST OF ACRONYMS. USED

Auxiliary Feedwater

Action Request

Corrective- Action Group

Corrective Action Program

Corrective Action and Quality Services

Component Cooling Heat Exchanger

Control Rod Drive Mechanisms

Condition Reports

Centrifugal Charging

Emergency Control_ Air Compressor

Emergency Diesel Generator

Emergency Operating Procedures

Emergency Response Gui~el_ine

. Foreign Material Exclusion

Hilti Drop-In

Instrumentation and Controls

Institute of Nuclear Power Operations

lnservice Inspection

Licensee Event Report

Management Review Committee

Not Applicable

  • Nuclear Business Unit

Nuclear Regulatory' Commission

Nuclear Training Oversight Committee

Operability Determinations

Operating Experience Feedback

On-The-Spot Change

Public Document Room

Post-Maintenance Testing

Public Service Electric and Gas

Primary Water Stress Corrosion Cracking

Reactor Coolant Pump

Reactor Coolant System

Residual Heat Removal

Reactor Vessel Level Indicating System

Significant Event Response Team

Safety Injection

Salem Integrated Readiness Assessment

Senior Nuclear Shift Supervisor

Station Operations Review Committee

Safety Review Group

Senior Reactor Operator

Service Water

Technical Document Room

Training Revie_w Group

Tagging Request Inquiry System

Technical Specification

Updated Final Safety Analyses Report