ML20044E025

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Rev 5 to Performance Evaluation Procedure 47.306.02, Votes Sys Operating Procedure
ML20044E025
Person / Time
Site: Fermi DTE Energy icon.png
Issue date: 05/07/1993
From: Trouten C
DETROIT EDISON CO.
To:
Shared Package
ML20044E022 List:
References
47.306.02, NUDOCS 9305210197
Download: ML20044E025 (47)


Text

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Nucl2cr Production - Fatml 2 47.306.02

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P rfcrmcnca Evatustian Procedur3 Ravisian 5 1

Page 1 VOTES' SYSTEM OPERATING PROCEDURE Revision Summary

1) Added Enclosure D to list exceptions to seating current acceptance cnteria.
2) Made minor changes to clarify acceptance criteria in Attachment 2.

Implementation Plan

[X} Revision effective immediately - ongoing work impacted

[ ] Ongoing work may proceed using previous revision Attachments 1

042393 Test Data Sheet 2

042393 Degradation Data Sheet 3

012993 Stem Diameter Reduction Due to Axial Slot 4

022593 MOV Post-Testing Static or Dynamic Test Review Enclosures CONTROLLEDVASD A

090192 VOTES Cable Connection Guide

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B 012993 Stem Transition Region M 111993 C

100891_

Test Site Trace Marking D

042393 Seating Current Capacity Exceptions CI'E E

042393 Planning and Preparation ARMS - INFORMATION SERVICES

% MXm'w Date approved: 050793 Reiease autnorized by:

Change numbers incorporated: 93-0744 DateMOlk3 DSN 47.306 02 Rev 5

DTC TPNPP File 1703 02 Recapient M1 9305210197 939534 gDR ADDCK 05000341 PDR

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1 47.306.02 Ravision 5 l

Page 2

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1.0 PURPOSE l

This procedure provides instructions for the Static or Dynamic testing of motor-operated l

valves (MOVs) using Liberty Technology's Valve Operation Test and Evaluation System (VOTES). This procedure is to be followed in order to comply with the requirements of NRC Geneeric Letter 89-10 to verify, trend and track MOV performance and/or ability to perform i

its intended safety function.

l NOTE:

As a matter of practice, the first "as left" test on a valve is considered the baselirte test. Each subsequent test is compared to the baseline test for i

trending and evaluation. A new baseline test should be performed as soon as possible after any major work which may be done on the valve or operator which may change the valve's baseline characteristics. This may t

include but is not limited to: valve disassembly, reseating, repacking, stem replacement, MOV gear, bearing, bearing housing gaskets, torque switch or stem nut replacements.

i 2.0 PRECAUTIONS AND LIMITATIONS 2.1 Review applicable Radiation Work Permit (RWP) for regt.irements in the work area.

l 2.2 Do not allow the entry of foreign materials into working parts of the valve operator.

2.3 Only individuals that have completed VOTES Training / Certification or individuals under the direct supervision of qualified personnel may operate the VOTES equipment.

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i 2.4 Only individuals that have completed VOTES Signature Analysis or MOVATS Signature

.l Analysis training may perfc.m Signature Analysis for purposes of completing the Degradation Data Sheet, Attachment 2.

L 2.5 Ensure all power connections to VOTES System are 120Vac,60 Hz.

2.6 Ensure the VOTES System is deenergized while installing test equipment, associated sensors and wiring connectors to prevent voltage / current spikes from damaging the

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computer / test equipment.

2.7 Do not operate computer in area where ambient temperature is less than 50 F or I

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0 greater than 104 F.

f 2.8 When a problem or nonconformance is noted, work shall stop if the testing is l

detrimental to the valve or system. Notify the NSS to ensure that required

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deficiencies are resolved before a valve is returned to service All deficiencies noted shall be listed on the Work Request as appropriate.

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i 2.9 If there must be jumpers installed or wires lifted to stroke valve, the use of an Interim Alteration Checklist is required.

2.10 As-Found signatures should be acquired before altering setting of torque switch or i

limit switches.

2.11 Electrical circuits associated with MOVs cannot be isolated during certain plant conditions. These must be identified prior to work.

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i 47.306.02 Revision 5 Page 3 2.12 The following improper actions may damage MOV actuators:

l 2.12.1 Lifting the actuator by the handwheel.

2.12.2 Use of excessive force on the declutch lever when engaging into manual l

drive mode.

i 2.12.3 Use of excessive force on the declutch lever in attempt to return the actuator to the electrical operation position. Internal damage is possible.

j 2.12.4 Use of,nauthorized mechanical lever on the handwheel to seat or unseat the valve could cause damage to actuator and valve.

l 2.13 The sequence and method of testing may be repeated or a.'tered at the discretion of the Test Leader to ensure complete data acquisition for subsequent signature

.l analysis. Re-tests may be performed under this procedure provided the tests are sequentially numbered and each is documented on a separate consecutively numbered Test Data Sheet, Attachment 1.

2.14 If during performance of this procedure, it is discovered that actuator rework is l

required, it should be done in accordance with Procedure 35.306.006, Enclosure C.

2.15 If during performance of this procedure, it is discovered that the' VOTES Force Sensor is not properly attached to the valve yoke (e.g. not preloaded), it shall be removed i

and a new sensor installed per 35. LIM.009.

2.16 Any discrepancies noted during the conduct of this procedure must be reported to the appropriate Supervisor for disposition.

2.17 Verify duty cycle for each valve is followed.

2.18 As steps are performed / completed, the boxes at the end of the step may be checked i

off (optional).

j 2.19 Ensure calibration device will fit the valve stem (e.g. mini C Clamp - 1 1/8 inches

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max, C Clamp - 17/8 inches max [or 21/4 inches for newer style], D Clamp - 31/2 inches max, U Clamp 51/2 inches max, maxi U Clamp - 8 inches max).

t 2.20 Use of the computer / printer in an " Airborne Radioactivity

  • or " Loose Surface Contamination" area may result in internal contamination of the computer / printer due -

i to the requited cooling air flow through the computer / printer, 2.21 A short adapter cable is provided to conr.ect cable from the Breakout Box to Signal l

Conditioning Box. Every attempt should be made to locate the short cable at the Signal Conditioner Box to avoid its contamination. Up to 500 ft. of signal cable can -

be used between Breakout Box and Signal Conditioning Box.

2.22 A Torque Switch Transducer (TST) or a Thrust Measuring Device (TMD) may be f

utstized if needed to determine spring pack displacement. This will normally be utilized in a spare channel in the breakout box.

2.23 The VOTES Technical Manual can be utilized as a reference for guidelines on this l

testing.

i 47.306.02

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Revision 5 Page 4 i

2.24 If the maximum values as contained in the test data sheet are exceeded, the valve shall be declared inoperable either until the valve is adjusted within the limits or Nuclear Engineering analyzes and accepts the out of specification condition'.

2.25 An *as found" LLRT should be performed prior to any adjustments, repair, or enhancements to the valve, packing gland, stem or operator. This includes but is not timited to stem lubrication or nut tightening.

2.26 in some cases, to perform a sensor calibration, it may be necessary to loosen and remove the packing gland nuts or follower to prevent calibrator clamp interference.

The performance of this on an LLRT valve will inop the valve and invalidate the valve's LLRT results. Ensure the Test Supervisor is notified PRIOR TO loosening the gland nuts to assure that the *as found" LLRT results are not jeopardized and that a i

  • post" LLRT can be performed immediately after the thrust test.

t 2.27 Peak motor seating current should not exceed 60% of locked rotor amps (LRA) on safety related MOVs. This value is the " Rule of Thumb

  • and if exceeded, must be evaluated in the Degradation Data Sheet, Attachment 2. Exceptions to this
  • Rule of i

Thumb" are listed in Seating Current Capacity Exceptions, Enclosure D.

I 3.0 REQUIRED EQUIPMENT f;

3.1 Portable Computer i

3.2 Printer (optional) 3.3 Breakout Box 3.4 Signal Conditioning Box 3.5 Calibration Device (C-clamp U-clamp as appropriate, etc.)

3.6 VOTES System Cables per Enclosure A 3.7 Ruler or Micrometer l

3.8 Flashlight

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3.9 Screwdrivers 3.10 Approved Degreasing Solution 2

3.11 Adjustable Wrenches a

3.12 Gaskets / spare parts as appropriate i

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6 47.306.02 Revision 5

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Page 5 3.13 For DC valves 3.13.1 DC Switch Probes / Fluke Current Probe 3.13.2 DC Switch Probe Interface Box f

3.13.3 P-3500 Portable Strain Meter 3.13.4 DC Voltmeter j

3.14 For AC valves 3.14.1 AC Current and Switch Probes 3.15

'ITl/MOVATS' Torque Switch Transducer (TST) (OPTIONAL) 3.16

'ITl/MOVATS' Thrust Measuring device (TMD) (OPTIONAL) 3.17 Torque Wrench 4.0 PREREQUISITES l

4.1 Obtain working copy of ALL applicable drawings and associated changes.

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NOTE:

More conservative torque switch settings and stem thrust values may be provided on the Test Data Sheet after the review of valve history by the Maintenance Planner.

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4.2 Obtain recommended torque switch settings and stem thrust requirements for opening and closing strokes from CECO MVL Screens and fill out the Test Data Sheet.

as appropriate.

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i 4.3 VOTES Forces Sensor mounted on valve yoke with preload in normal range (-1500 to

+1000 uVN).

I1 4.4 Verify test equipment calibration is current.

I1 4.5 Obtain permission from Shift Supervisor to perform test and to operate the valve either locally or from the Control Room.

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INITIAL /DATE 1

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'47.306.02 Revision 5 Page 6 l

5.0 PROCEDURE 5.1 Setup NOTE:

The necessary valve / actuator information should be obtained from Engineering and FAaintenance history. Poisson's Ratio and the FAodulus of Elasticity (Young's Modulus) can be obtained for a given stem material from l

material property tables. It is suggested that as much data entry into the computer take place prior to entry into a high radiation or high temperature areas.

5.1.1 if possible, locate Signal Conditioning box and Portable Computer outside of contaminated areas.

[1 5.1.2 1.ocate Breakout Box at the valve. Ensure it cannot f all and be damaged.

I1 CAUTION Exercise care when removing limit switch cover from actuator, some circuits i

may be energized from a separate power source.

5.1.3 Record the open and closed *As Found" torque switch settings on the Test Data Sheet.

I1 CAUTION Verity that the System 120 VAC power is disconnected prior to connecting or disconnecting the computer A/D signal cable (CB4-100).

i 5.1.4 Attach VOTES cables per Enclosure A,

  • VOTES Cable Connection Guide," for cable and equipment connections.

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4 47.306.02 Revision 5 Page 7 i

5.2 Motor Current Probes NOTE:

The Simpson FAotor Current Probe is for AC valves only. The Belf or Fluke PActor Current Probes are for AC and DC valves.

IF the Bell or Fluke FAotor Current Probe is to be used THEN GO TO Step 5.2.1 5.2.3.

l1 5.2.2 Simpson PAotor Current Probe Setup 1.

Place probe around motor lead T2.

I1 2.

Ensure AC PActor Current Probe cable is connected to J6 on the f

Breakout Box.

I1 NOTE:

When using the Simpson FAotor Current Probe, the current range selected (orange scale) should be approximately 6 tsmes the motor running current to encompass the expected inrush.

3.

Set correct current range on probe. Communicate the probe setup

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information to the computer operator.

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4.

GO TO Section 5 3.

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47.306 02 Revision 5 i

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Page 8 NOTE:

To maintain consistency from test to test for probe connections, maintain -

the same probe orientation on motor lead.

5 2.3 Bell or Fluke Motor Current Probe Setup 1.

Depress and hold the push-to-read switch to verity that battery is in satisfactory condition.

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2.

Place probe around motor lead Al or A2 for DC valve or around motor lead T2 for AC valve.

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NOTE:

There can be a few millivolts of thermal drift during the first 60 to 120 seconds of warmup of the current probe. For maximum DC accuracy, a warmup of 2 minutes before zeroing will eliminate 95% of the drift.

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3.

Zero fAotor Current Probe Using a multimeter set on DC volts, connect to probe and adjust a.

zeroing potentiometer on the motor current probe to obtain a zero voltage output on the multimeter. After zeroing, leave the current probe on.

I1 OR b.

Using a P-3500 Portable Strain meter zero Motor Current Probe as follows:

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1) Connect BNC male connector end of supplied zeroing cable to BNC female connector on the probe. Connect the banana

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plug end of the zeroing cable to S- (white) and S+ (green) inputs on P-3500.

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2) Setup P-3500 as follows:

a) Gage Factor range of 4.3 - 9 9

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b) Balance selector set to 0

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c) Balance potentiometer adjusted to 5

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d) Multiple set to X10

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e) Full Bridge selected

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Depress Amp Zero button then zero the amplification adjustment

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i 47.306.02 Revision 5 Page 9 NOTE:

When using the Motor Current Probe, the current range selected should be

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at least six times (6X) the motor running current. For DC valves, the current I

selected should be approximately 100 times the motor current, up to the maximum range r failable on the probe. The probe must be re-zerced each time the scale is changed.

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3) Select range on current probe using Range Switch.

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4) Depress Run button on P-3500.

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5) Turn current probe on with push-to-read switch, lock on with slide lock and wait approximately 2 minutes.

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6) Zero output of Motor Current Probe using zero adjustas ent thumbwheel on probe.

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7) Leave current probe turned on.

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8) Disconnect zeroing cable and secure P-3500-

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4.

Connect Motor Current Probe cable to J6 on the Breakout Box.

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5.

Communicate the probe setup information to the computer operator.

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Revision 5 Page 10 i

5.3 Switch Current Prubes Setup 1

HOTE:

The VOTES System can handle up to four switch leads simultaneously. The

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close torque switch shall be one lead that is monitored. It shall be at the discretion of the Test Leader which other leads are to be monitored.

i 5.3.1 IF DC Switch Current Probes are to be used. THEN GO TO Step 5 3.3.

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i 5.3.2 AC Switch Current Probes Setup.

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1.

Place current probes A through D around the appropriate leads.

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Indicate on the Test Data Sheet / Computer Data File which lead each switch probe is monitoring.

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3.

Turn Signal Conditioning Box ON.

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GO TO Section 5.4.

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'47.306.02 Revision 5 Page 11 5.3.3 DC Switch Current Probes Setup 1.

Connect DC Switch Probe interface Box Signal Out cable to either Connector J4 or JS on the Breakout Box.

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Connect DC Switch Probe Interface Box Power cable to either J2 or J3

'5 connection on Breakout Box.

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3.

Connect DC Switch Probes to four connectors on DC Switch Probe Interface Box.

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4.

Turn Signal Conditioning Box ON.

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l NOTE:

The zero offset for each switch probe channe! should be confirmed each i

time the probes are connected to the DC Switch Probe interface box.

I 5.

Place switch probes around the appropriate leads on the outgoing side of switch. Place current probe around switch were with current flow in i

direction as shown on the diagram affixed to the probe.

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NOTE:

Due to initial thermal drift of the probes, allow at least ten minutes for their f

output to stabilize before zeroing.

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6.

Adjust zero offset knobs on top of DC Switch Probe interface Box for each probe channel until LED indicators extinguish. Probes are now zeroed. Lock zero offset knobs.

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Indicate on the Test Data Sheet / Computer Data file which lead each

'f switch probe is monitoring.

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.i 47.306.02 j

Revision 5 l

Page 12 i

5.4 Calibrating the VOTES Force Sensor NOTE (1):

The calibration procedure must be performed at least twice for every sensor mounted on a valve yoke. The calibration procedure should be j

repeated if the close torque switch setting has been changed by greater than one (e g. from 2-1/2 to 1-1/2), if ;he actuator body or valve has been physically altered, a new VOTES sensor installed, or a l

new stem has been installed.

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NOTE (2):

In some cases, to perform a sensor calibration it may be necessary to l

loor,en and remove the packing gland nuts or follower to prevent calibrator clamp interference. The performance of this on an LLRT I

valve will inop the valve and invalidate the valve's LLRT results.

l Ensure the Test Supervisor is notified PRIOR TO loosening the gland nuts to assure that the "as found" LLRT results are not jeopardized and that a " post" LLRT can be performed immediately after the thrust test.

5.4.1 From the main menu press key to select

  • VOTES Sensor Calibration" menu.

I1 5.4.2 Follow the menu on the VOTES system software prompts.

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i1 5.4.3 Select appropriate calibration device per Table 1:

TABLE 1 l

Calibration Device Stem Diameter (in) i Mini C-clamp D

through 1 1/8 C-clamp 0

through 1 7/8

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C-clamp (new style) 0 through 2 1/4 s

D-clamp 1 1/8 through 3 1/2

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U-clamp 1

through 5 1/2 Maxi U-clamp 1

through 8

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5.4.4 Select appropriate calibration device gains and follow the instruction on the screens. Enter calibrator and voltmeter numbers in preceeding spaces provided.

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1.

When using C-clamp or mini C-clamp, the gain should be set at 20.

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2.

When using the D-clamp. U-clamp, or Maxi U-clamp, the gain should be set at 2 or higher.

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3.

VOTES Force Sensor gain should normally be set at 5.

I1 INITIALS i

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47.306.02 Revision 5 Page 13 5.4.5 Record calibration device number and calibration due da'e.

M&TE No.

Cal Due Date Initial /Date

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5.4.6 if the stem has an axial slot (for anti-rotation), then Attachment 3 needs to i

be completed to calculate the reduce effective stem diameter. When the corrected Dett has oeen calculated enter a "U" at the computer prompt, j

then change the displayed stem diameter to the calculated D rt.

e OTHERWISE check N/A.

E Effective Diameter N/A r

INITIALS NOTE:

It during calibration, saturation of a channel occurs, Abort Cal, Lower Gain Setting and reperform calibration.

i 5.4.7 IF the D-clamp, U-clamp or maxi U-clamp is to be used, THEN GO TO Step r;

5.4,9.

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i NOTE:

Ensure valve has been closed electrically prior to calibration, I

5.4.8 CaCbration of VOTES Force Sensor using mini C-clamp or C-clamp.

CAUTION Do not mount C-clamp on the unthreaded portion of stem within 1 stem diameter of the transition point from threaded to unthreaded, or 1/2 stem diameter into the thread. See Enclosure B for illustration.

i 1.

Clean that portion of the valve stem where the C-clamp is to be attached using an approved degreasing solution.

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47.306 02 Revision 5 Page 14 t

CAUTION l

Loosening and removing packing gland nuts will invalidate the valves LLRT.

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CAUTION C-clamp must not strike any portion of valve during calibration or it will be damaged. It should be attached to valve stem in a position free of interference with other valve components so that there is sufficient clearance during seating, taking into account slight stem rotation during operation.

NOTE:

Whenever possible position the clamp bridging the anti-rotation slots.

2.

For gate valves, place the valve in an open-stressed condition. The perfect condition is just before disc pullout. This will mean that the valve never gets fully unseated.

j I1 3.

For globe valves, fully unseat the valve, ensure cal stroke is done after handwheeling in open direction.

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4.

Carefully seat C-clamp anvil against valve stem and support with one hand while running in C-clamp assernbly with other hand. (Use the thumb of the hand supporting the C clamp to prevent rotation of the V-bloc k).

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5.

Press key to select " Tighten C-clamp".

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NOTE:

IF when tightening the C-clamp the reading exceeds -3000, the C-clamp shall be completely loosened and then re-tightened to achieve the required l

reading.

6.

Prior to mounting clamp on stem, verify displayed value on computer screen is at approximately -2000 to -3000 Slowly tighten C-clamp and as C-clamp is tightened, value will approach zero, then begin to go negative again. Tighten C-clamp to achieve reading of -2700 to

-3000. Follow instructions on screen.

I1 7.

Press key to select Calibrate VOTES Force Sensor". At this point the VOTES software will display messages concerning the Zeroing of the Current Probe, VOTES Force Sensor and the Calittation Device. Follow

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instructions on screen.

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47.306.02 Reuision 5 Page 15 B.

Close actuator electrically. The computer will now gather data from the C-clamp and VOTES sensor and produce two curves for operator to select calibration points.

I1 9.

GO TO Step 5.4.10.

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NOTE:

Ensure valve has been closed electrically prior to cahbration.

5.4.9 Calibration of VOTES Force Sensor using D-clamp. U-clamp, or maxi U-clamp.

1.

Connect DC Voltmeter to test points on Proximetor Box and verify initial gap voltage is -5.5 volts DC 4/- 0.25 volts for U or maxi U-clamp or -12.0 +/ 20 volts for the D-clamp. If the gap voltage -

does not fall into this range, reset the Proximity Probe.

II NOTE:

As used in this section, U-clamp refers to either the D-clamp. U-clamp or maxi U-clamp.

CAUTION Do not mount U-clamp on the unthreaded portion of stem within 1 stem diameter of the transition point from threaded to unthreaded, or 1/2 stem diameter into the thread. See Enclosure 8 for illustration.

2.

Clean that portion of the valve stem where the U-clamp is to be attached using an approved degreasmg solution.

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I CAUTION 1

Loosening and removing packing gland nuts will invalidate the va!ves LLRT.

CAUTION U-clamp must not strike any portion of valve during calibration or it will be i

damaged. U-clamp should be attached to valve stem in position free of interference with other valve components so that there is sufficient axial clearance during seating, taking into account slight stem rotation during operation.

3.

For gate valves, place the valve in an open-stressed condition. The perfect condition is just before disc pullout. This will mean that the valve never gets fully unseated.

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47.306 02 Revision 5 Page 16 4.

For globe valves, fully unseat the valve, ensure cat stroke is done after i

handwheeling in the open direction.

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5.

Carefully set U-clamp anvil against valve stem and support with one hand while running-in the U-clamp stem assembly with other hand i

(use the thumb of the hand supporting the U-clamp to prevent l

rotation of the V-block).

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l 6.

Slowly tighten U-clamp until DC Voltmeter reads between -10 6 I

and -10.9 VDC.

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Disconnect DC Voltmeter.

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f NOTE:

It may be necessary to immediately, electrically or manually open the motor i

operator off of its seat after closing during calibration. This will be l

necessary to determine a

  • factor.

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1 8.

Press key to select

  • Calibration VOTES Force Sensor" Follow instructions on screen.

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9.

Close actuator electrically. The computer will now gather data from l

the U-clamp and VOTES Force Sensor and produce two curves for operator to select cahbration pomts.

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INITIALS t

5.4.10 Trace point selection for sensor calibration.

1.

Ensure the two traces follow each other. If one plot levels off before

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the other plot, the device whose plot leveled should have its gain reduced and the test re performed.

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2.

Votes uses automatic spike suppression / removal for the cahbration t

traces, but it is still a necessity to redo test which display a significant amount of noise.

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3.

The two traces should show an initial sharp change from a stem f

tension condition to a transition area then another sharp change as l

the valve seats. The first priority is to find and mark the "zero* force spot (this is essentially the same point as the C3 mark placed on full stroke traces).

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4 Next, with the cursor on the initial flat line area to the left (before the first sharp change) press F3-Mark to place the left boundary mark for calculation. Move the cursor to the far right flat area (just after the j

sharp seating slope) and press F3-Mark to establish the right side boundary. Now, press F10-Continue to allow the computer to calculate the correlation slope.

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l 47.306 02 Revision 5 Page 17 1

F 5.

The computer will display the correlation slope trace as well as values

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for:

RSO - (root mean square) correlation factor a.

b.

BFSL sens - best fit straight line sensitivity, or the slope of the f

new curve.

c.

fAeter gf - gage factor I

d.

100% - fAaximum thrust rating for that operator i

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CFA - Curve Fit accuracy

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6.

For the calibration to be acceptable the CFA must be between.970 and 1.00. If CFA is within that acceptance criteria then the value of f

RSO is meaningless. If true zero value had not been identstsed (or marked) then an N/A will appear after CFA, which makes an RSO value the determining factor for meeting the.970 - 1.00 acceptance criteria.

In that case it is also highly desirable to make every effort to obtain an RSO of at least >.997, so that system accuracy is not degraded.

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i 7.

If the values are acceptable save the calibration to the hard disk then repeat the calibration to verify that the two slope values (BFSL sens) i are within 5% of each other. Record the applicable values on the test data sheet. If the second calibration had a better CFA (or RSO) then save it to the hard disk, which overwrites the first cal. If the first cal had better values then simply do not save the second test.-

11 8.

Press key (s) to return to the " Acquire Test Data' menu.

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47.306.02 Retrision 5 Page 18 i

5.5 Data Acquisition NOTE (1):

Stem should be in an "AS FOUND* condition for the 1st strole, (do not add lubrication after cleaning stem for calibration) Only add stem lubrication for the final *AS LEFT* trace.

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NOTE (2):

Computer will ask if operator wishes to zero sensors. Sensors should j

not be zerced at this point unless valve is in an unstressed state, or a previous calibration is being utilized. Should the Votes sensor trace i

flatten at a high thrust, this would require a rezero and retest.

i NOTE (3):

If acquisition time is available, it is desired to Get open and closed on the same trace.

i 5.5.1 Press key to initiate "Aquire Test Data

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5.5.2 Press key to select " Input Test Info

  • Enter valve tag number and follow I

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screen instructions.

(1 5.5.3 Press key to select

  • Select Sensors" (Normally VOTES sensor, current and switches).

I1 5.5.4 Enter sensors utilized for test including the TST or TMD as requested by Engineering or supervisor. Reference Attachment 1.

I1 5.5.5 Press key to select " Comment Upcorning Test" and input information into computer. Follow the menu through the necessary menu fields to select gains (Reference Section 5.4), through to data collection sequence.

I1 5.5.6 Stroke actuator in d;rection desired computer wili collect data and store it onto memory.

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5.5.7 After aquiring the test data, press *Y* for a quick look at the data.

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5 5.5.8 Press Key (F4) to save data to hard disk if the data is acceptable.

l I1 5.5.9 Go to " View Test Data" field to evaluate trace (s).

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47.306.02 Revision 5 Page 19

!i 5.5.10 Review the stroke traces as necessary to allow identification and marking of l

the key points listed in Table 2 below.

I1 TABLE 2-Suggested Minimum marks performed in field 00 Motor start 04 Stem Compression fully relieved

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09 Maxir.ium force at disc pullout t

012 -

Open torque bypass switch opens 017 Motor current cutoff CD Motor stan C3 Tension to compression transition C14 -

Close torque switch opens (CST) l C15 -

Motor current cutoff C16 -

Maximum thrust value t

i Prior to marking traces, determine the appropriate location on the trace for f

NOTE:

l establishing the zero point on the VOTES FORCE SENSOR TRACE (F8).

Normally this will be near the beginning of the closed stroke at the tension y

to compression transition (C3); in some cases it will be clearer at the begmning of the stroke at the point where stem compression is fully Point C3 is preferable.

j relieved (04).

5.5.11 Completion of Test Data Sheet:

1.

Determine numerical values for the stroke trace marked points and fill E

in the Test Data Sheet.

t f

I1 2.

Ensure proper configuration of Limit Switch settings.

I1 5 5.12 If it is determined at this time that adjustments need to be made to 1

valve / actuator outside the ranges specified in the Test Data Sheet, obtain approval from Engineering or supervisor prior to performing adjustments. If adjustments are required that are within the ranges specified in the Test Data Sheet, they are performed in accordance with Procedure 35.306 006 guidelines. After adjustments are made the valve / actuator shall be retested under this procedure.

I]

5 5.13 If after adjustments and/or lubrication re perform applicable steps in 5.5 for "As Left" data, as directed by Nuclear Engineering or Test Supervision.

j 5.5.14 Record Test Equipment used and the equipment calibration information on t

the Test Data Sheet.

I]

i INITIALS ~

r

4 47.306.02 Reuision 5 Page 20 I

5.6 Restoration I

t CAUTION i

Verify that the System 120 VAC power is disconnected prior to connecting or disconnecting the computer A/D signal cable.

5.6.1 Remove motor current probe and switch current probes; and disconnect VOTES sensor cable from sensor and replace cap on sensor connector body.

I1 5.6.2 Reinstallation of lifteJ leads and/or removal of jumpers.

1.

Inform NASS/NSO of intent to return equipment control circuit to normal condition.

[]

l 2.

Reinstall all lifted leads and/or remove all jumpers as appropriate.

I1 5.6.3 Record the "As left" torque switch settings on the Test Data Sheet.

I1 5 6.4 Verify limit housing cover gasket is reuseable or replace with new; and

[

reinstall actuator limit switch cover.

I1-5.S.5 Remove test equipment from test area following applicable RWP requirements and return to storage location as directed by the Test leader.

!1 5

E INITIALS 5 6.6 Record test personnel; Printed Name initials Signature 1

i l

1

1 47.306 02 Revision 5 Page 21 i

j 5.7 Data Analysis NOTE (1):

Section 5.7 of this procedure is not required to be periormed while valve testing is underway in the field. It shall depend on the requirements of the individual Work Package and shall be at the l

discretion of the Foreman / Analyst when this step is to be performed.

For a complete report it is advisable to have traces marked and comments made on the test.

I NOTE (2):

The remainder of this procedure requires only the computer and printer and may be completed in an ottice environment.

f 5.7.1 From the Main Menu, press key to select " Analysis;" and follow instructions I

on screen and pick traces to view, mark and plot on screen as required.

j i) i C

4 5.7.2 Once all applicable points have been marked, return to Repons' menu and follow instructions on screen to print applicable repuns.

I1 5.7.3 Perform Evaluation of " Test Results Summary

  • sheet from Page 1 of the L

Long Report.

I1 l

5.7.4 Complete Attachment 2,

  • Degradation Data Sheet.'

!1 5.7.5 Complete Attachment 4, ~ VOTES Post Testing Static or Dynamic Test f

Review" as required.

j[

l}

s INITIALS

{

I i

).

i I

I t

1 1

l i

L d

e

l t

47.306.02 Revision 5 Page 22 6.0 INDEPENDENT VERIFICATION - None 7.0 ACCEPTANCE CRITERIA 7.1 in Attachment 1, verify *As left Conditions

  • Required Values" limits.

Maintenance Evaluator Signature Date OR Test signatures have been analyzed and found acceptable by Nuclear Engineering.

i Maintenance Evaluator Signature Date

[

7.2 Static Test - in Attachment 4, verify As Found static test evaluation has been I

performed and the results of the evaluation are satisfactory.

5 Engineering Evaluator Signature Date OR Initiate a DER documenting the unsatisfactory static test results.

Engineering Evaluator i

Signature Date 7.3 Static Test - In Attachment 4, verify As Left static test evaluation has been performed i

and the results of the evaluation are satisfactory.

Engineering Evaluator Signature Date OR initiate a DER documenting the unsatisfactory static test results.

Engineering Evaluator i

Signature Date i

I l

i

?

i k

47.306 02 Flevision 5 i

Page 23 7,4 Dynamic Test - In Attachment 4, verify As left Dynamic test evaluation has been performed and the results of the evaluation are satisfactory.

Engineering Evaluator Signature Date OR initiate a DER documenting the unsatisfactory static test results.

Engineering Evaluator Signature Date END OF TEXT i

i

(

t I

i 3

TEST DATA SHEET VALVE Pts No.

LLRT VALVE - Y / N REQUIRED VALUES:

r MIN TSO SETTING-REQ'O CST THRUST-lbs.

MIN TSC SETTING-MAX All. OWED THRUST-Ib s.*

LIMITER PLATE-

  • LIMITING COMPONENT-PACKING GLAND TORQUE-ftIbs MOTOR LRA -

(X60% =

)

I SENSOR CAUBRATION: (Data for last 2 Cal Tests only)

Packing Gland Nut Adjustments I } N/A Interference? Y/N Nuts Removed? Y/N Retorqued? Y/N

[

TEST # -

TEST # -

Accepted and stored RSO -

/CFA-RSO -

/CFA-Test No.

Sens.-

Sens.-

l Stem Anti Rotation Slot Measurements Width (in.)

Depth (in )

V-Block Location [ ] 900 from slot

[ ] over slot

! } on threads I

[ ] in transition (in. from threads)

[ ] on solid Calibrator used:

/

Voltmeter used:

/

Serial No.

/ CalDue M&TE No.

/ CalDue AS FOUND THRUST TESTING RESULTS:

t TSO SETTING-l THRUST AT TSC TRIP (C14)-

Ib s.

TSC SETTING-MAXIMUM THRUST (C16)-

Ibs.

LIMITER PLATE-TEST CONDITIONS: beatic

/

Dynamic Packing Gland Torque Checked? Y/N Torque Wrench Used CalDue Stem relubed [ ]

AS LEFT THRUST TESTING RESULTS:

TSO SETTING-THRUST AT TSC TRIP (C14)-

Ibs.

TSC SETTING-MAXIMUM THRUST (C16)-

Ib s.

LIMITER PLATE-TEST CONDITIONS: Static

/

Dynamic TRACE ANALYSIS RESULTS:

Stroke Times:

OPEN-sec CLOSE-sec LS Actuations:

Rotor No.-

1 2

3 4

% Full open-Peak Seating Current amps Peak Unseating Current amps PERSONNEL PERFORMING TESTS TEST DATE TEST COMMENTS i

h 7

Use test comments section to describe any unique or abnormal conditions discovered during test performance. Also discuss any special tools or devices that were necessary, and any rework or adjustmerits that were made in support of this test.

i

, '}

I Form 47.306 02 Att 1 P1/1042393 I

t

DEGRADATION DATA SHEET i

r Valve PlS i

Test Date

[

NOTE: The following information should be obtained from "as-left" VOTES signatures.

(

1.

TS Bypass Out of Spec.?

[ ] YES

[]NO 2.

Any backseating? (if *YES", quantify)

Lb s.

[ ] YES

[]NO 3.

Loose stem nut?

[ ] YES

[]NO 4.

Evidence of localized or Lbs.

[ ] YES

[]NO cyclic loading?

t 5.

High motor average current?

[ ] YES

[]NO (greater than 120% FLA) 6.

Motor current peak during stroke.

[ ] YES

[]NO 7.

Torque switch problem?

I ] YES

[]NO 8.

Limit switch problem?

! ] YES

[]NO 9.

Gear or stem / stem nut wear evident?

[ ] YES

[]NO 10.

Excessive inertia.

[ ] YES

[]NO

(% inertia > 50% thrust a TSC) s 11.

Acceptance Criteria thrust at CST or

[ ] YES

[]NO total thrust outside of desired range.

12.

Motor current increases as valve strokes

[ ] YES

[]NO with no unusual loading?

13.. Contact Drop Out Time Problems

[ ] YES

[]NO

(> 20 miliseconds) i 14.

Peak Seating or Unseating Cr m

[ ] YES

[]NO greater than 60% of Motor nameplate locked rotor current" 15.

Is Kalsi upgrade report applicable?

[ ] YES

[]NO i

i Initial Signature Analysis Final Acceptance i

Complete and Acceptable Evaluation

/-

/

Maintenance Nuc Eng or Tech Eng

  • Check Enclosure D for exceptions DTS 47.306.02 Att 2 P1/2 042393 l

[

i e

i f

r DEGRADATION DATA SHEET I

15.

Documentation of Degradation Observed.

t I

l l

1 i

F P

b 4

?

P es P

W b

e I

r 6

L 5

b e

r E

' I i

1 DTS 47.306.02 Att 2 P2/2 042393 i

P k

,y 47.306.02

[h h

(, Page 1 of 2 012993 STEM DIAMETER REDUCTION DUE TO AXIAt. SLOT

1. For THREADED stem calibrations O.

Calcutated D.,due to threads: (Results will be D,,,)

D,,, =

x D,,, = D.,,,,, - [ 0.68/ T'*1 )

D,,, =

D.=

-(O.68/

)

c.

Calculate new D., for threaded calibrations hilfd the D,=

transition area.

b.

Calculate D., due to slot: (Result will be D,. )

1.

Distance, = 0.167 x D,,,,,, = 0.167 x

1. Oatculate effective depth of slot:

Distance, =

Depth., = Depth - [ ( D,. - D, ) / 2 Distance,= 0.500 x D,,,,,, = 0.500 x Depth, =

-[(

)/2 Distance,=

Depth, =

2.

Measure approximate distance between centerline

2. Cateu! ate Area,,of Keyway of V-block to the stems transition point = >

Area Key., = Slot width x Depth.,

inches.

Area Key,, =

x Determine multiplier as fo!!ows:

I Area Key,, =

[ ]-if measured distance (step 1.c.2)is < =

Distance 1 then Multiplier = 1.10

3. Calculate Area,, of Stem Area Stem, = ( 3.142 x D,,,8 ) / 4

[ } -if measured distance (step 1.c.2)is >

Distance 1 but < Distance 2 then Multiplier -

Area Sterg, = [ 3.142 x

  • I/4 1.03 Area Stem, =
3. Calculate new D., as follows:

s

4. Caiculate 2e Area Ratio,

(a) For stem with no axial slot (D, )

Area Ratio,, = Area Key,, / Area Stem,

D

D, x applicable multip!;er (1.03 or Area Ratio,

I 1.10)

Area Ratio,, =

D=

x

5. Calculate D D,

=

D.,3 = D, x ( 1-Area Ratio,,)

(b) For stem with axial slot (D )

D,,, =

x ( 1-

)

D

- D,,, x applicable multiplier (1.03 or D.,, =

1.10)

6. D,,,is the value to enter for calibration if the D.,,, =

x calibrator v-block can be mounted 90 degrees from the slot D.,,,

=

P

7. If the calibrator v-block must be placed Ryg the slot, a D,,, must be calculated. Determine the mutt 1 plier to use as follows:

Performed by (Name/Date)

Muttiplier 1 is 1.03 = = > for Area Ratio,, < =.05 Muttiplier 2 is 1.07 = = > for Area Ratio,, >.05 Verified by (Name/Date) s-D,

= D x applicable multiplier i

47.306.02 Attachm:nt 3, PCDe 2 cf 2 012993 l

STEM DIAMETER REDUCTION DUE TO AXtAL SLOT

2. For SOLID stem calibrations
c. With NO axial slot = >

c.

Calculate new D., for solid stem calibrations hsid.a the D,.,

=

D,,,,,, (no corrections) transition area.

b. For stems with an axial slot = >
1. Distance,w 0.20 x D,,,,,, = 0.20 x
1. Calculate Area, of Keyway Area Key,, = Slot width x Slot depth Distar e,=

Area Key, =

x

2. Measure approximate distance between centerline of V-block to the stems transition point = >

Area Key,, =

inches.

2.

Calculate Area,,, of Stem Determine multiplier as follows:

Atsa Stem.,, = ( 3.142 x D,,,,,.8 ) / 4 Area Stem.,, = ( 3.142 x 8)/4 1 ]-if measured distance (step 2.c.2)is < =

Distance 1 then Multiplier = 0.88 Area Stern,, =

l

[ ]-if measured distance (step 2.c.2) is >

3. Calculate the Area Ratio,,

Distance 1 then Multiplier = 0.98 Area Ratio,, = Area Key, / Area Stem,

Area Ratio,, =

I

3. Calcutste new D., as follows:

(a) F9r stem with no axial slot (D,,4)

Area Ratio,,, =

D

= D,,,, x applicable multiplier 10.88 of 0.9 81

5. Calcutate Effective Diameter D,,,

D,,,

=

D,,,,,, x ( 1-Area Ratio,,,1 D=

x Dm = _

x ( 1-

)

D=

l D.,, =

(b) For stem with axial slot (D,,,,)

6. D.,,is the value to enter for calibration if the D

= D,,, x applicable multiplier (0.88 or l

cal;brator v-block can be mounted 90 degrees from 0.981 the slot

. D,,,, =

x

7. If the calibrator v-block must be placed Ryfd the slot, a D.,,, must be calculated. Determine the D,,, =

muftiplier to use as foticws:

Mutt 1 plier 1 is 1.03 for Area Ratio,,, < =.05 Multiplier 2 is 1.07 for Area Ratio,,, >.05 D.,,, = D,,,, x applicable multiplier Performed by (Name/Date)-

D=

x D.,,, =

Verified by (Name/Date)

IESTIJAIISIMM i

)

5;-

I

47.306.02 vy'em t}'{dar1]JJ h nD TJ ffIPJ, Page 1 of 7

!j fg DJ1 di; 022593 i

VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS REVIEW VALVE NO:

i DESCRIPTION DESJGW

$7ATIC TEST DYNAMIC TEST 3

^

TEST DATE TEST NO.

WRNO.

i THRJST CALC MEDP CALC ij l

STEM MATERLAL Ely (X 10*)

l AJeamr DATAl l

STEM EFFECTIVE DIA.

  • JBERTY DATAl STEM NOM DIA.

T.P.I.

l T.P.R.

l CST THRUST MAXIMUM THRUST AVE. RUNNING FORCE FLOW CUTOFF THRUST

[

1 CAUB8 TAT 10N

{

EXTRAPOLATION d

ORIFICE AREA MEDP (CLOSING) l i

PRESSURE AT CLCS!NG L

MEDP i

T.S.O.

MIN:

MAX:

  • (F OR p =__._)

T.S.C.

M:N:

MAX:

i'

  • (F OR p = _._)

PACK:NG LOAD M4N REQ *D THRUST AT W"

f

+

em w=eeraaca MAX ALLCWABLE THRUST l

suo see esm acca UMmNG COMPONENT VALVE ELEV.

i CST TORQUE ACTUATOR TORQUE RATING 6

- Data which should be documented during package preparation l

I 47.306.02 l

., Page 2 of 7 022593 VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS REVIEW i

A.

STATIC TEST REVIEW D N/A VALVE NO:

1.

IF CAllBRATED ON THREADS WHICH ARE IN A TOROUED CONDITION, THEN TOROUE CORRECTION FACTOR (TCF)

WILL APPLY. OTHERWISE, TCF = 1.0.

TCF =

BASIS:

2. MATERIAL CORRECTION FACTOR (MCF):

MCF= LIBERTY E4 =

=

TEST EN 3.

STEM EFFECTIVE DIA (SED) CORRECTION FACTOR (SEDCF):

SEDCf = LIBERTYSEO =

=

TEST SED 4.

RATE OF LOADING FACTOR FROM PREVIOUS TEST (S), ROL=

UF ROL FACTOR HAS NOT BEEN PREVIOUSLY DETERMINED FOR THIS VALVE, USE ROL ASSUMPTION AS STATED IN MOV GUIDEUNE OF DSD A3100).

BASIS:

5. TORQUE SWITCH REPEATABIUTY(TSR)=0._ UN DECIMAL FORM)

FOR TSS = 1 AND SPRINGPACK < 50 FT48.. TSR= so.20 FOR TSS=1 AND SPRINGPACK > 50 FT18., TSR= s o.1C FOR TSSD 1 AND SPRINGPACK < $0 FT18.. TSR= n 0.10 FOR TSS> 1 AND STRNGPACK > 50 FT48.. TSR= s o.05 6.

STEM LUBE DEGRADATION (SLD)=0.

ON DECIMAL FORM) i BASIS:

7.

VOTES ACCURACY (ACC)=0.

UN DECIMAL FORM) -INCLUDE EXTRAPOLATION ERROR IF APPUCABLE (USING f

CURVE FIT). INCLUDE ADDITIONAL ERROR DUE TO SLOT IF APPUCABLE. REFERENCE VOTES MANUAL BASIS:

8. STATIC TEST CALCULATION OF ACCEPTBLE VALUES:

8.1 STATIC TEST CST THRUST *TCF'MCF'SEDCF'(1-ROL)*(1.SLD)*(1-(ACC8 +TSR')) a MIN REQUIRED THRUST-DESIGN PACKING LOAD + AVE RUNNING FORCE:

  • (1-

)*(1-1* (1- (

8+

8)) =

+

=

i 8.2 STATIC TEST MAX THRUST *TCF'MCF'SEDCF'(1 +(ACC'+TSR')'9 s MAX ALLOWABLE THRUST:

.i

  • tt+i 8+

8)'9 s 5

8.3 CST TOROUE'(1 +TSR) s TORQUE RATING D N!A

  • (1 +

1s 8.4 IF CRITERIA IN 8.1,8.2 OR 8.3 IS NOT MET, JUSTIFICATION AND ACTIONS REQUIRED OR TAKEN :

l t

I i

47.306.02, Page 3 of 7 022593 VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS P.EVIEW Q.

DYNAMIC TEST REVIEW D N/A VALVE NO:

1.

IF CAUBRATED ON THREADS WHICH ARE IN A TOROUED CONDITION. THEN TOROUE CORRECTION FACTOR (TCF)

WILL APPLY. OTHERWISE. TCF = 1.0.

TCF =

BASIS:

2.

MATERIAL CORRECTION FACTOR (MCF):

MCF= LIBERTY EA' =

=

TEST EN 3.

STEM EFFECTIVE DIA (SED) CORRECTION FACTOR (SEDCF):

SEDCF = USERTY SEO =

=

TEST SED 4.

TOROUE SWITCH REPEATABluTY(TSR)=0._ DN DECIMAL FORM) f FOR TSS = 1 AND SPRINGPACK < 50 FT-LB., TSR = 20.20 FOR TSS = 1 AND SPRINGPACK > 50 FT-LB.. TSR.

  • 0.10 FOR TSS> 1 AND SPRINGPACK <50 FT-LB.. TL.R= a0.10 FOR TSS>1 AND SPRINGPACK > 50 FT-LB.. TSR= 20.05 5.

STEM LUBE DEGRADATION (SLD}=0.

UN DECIMAL FORM)

BASIS:

6. VOTES ACCURACY (ACC)=0.

CN DECIMAL FORM) -INCLUDE EXTRAPOLATION ERROR IF APPUCABLE(USING CURVE FIT). INCLUDE ADDITIONAL ERROR DUE TO SLOT IF APPUCABLE. REFERENCE VOTES MANUAL.

BASIS:

7.

CORRECT PRESSURES FOR TAP ELEVATION:

DESCfDFT10ef W(ASUREM DrT EMrat #

TAP #

TAP EL.

PRES 2URE AT vuve urrmtm

+

mamm

  • - Data which should be documented during package preparation dp= (UPSTREAM PRESSURE - DOWNSTREAM PRESSURE) accacwon armos =

8.

CALCULATE VALVE FACTOR, F, F, = (( F, - F,1/(A

  • dp)]
  • MCF
  • SEDCF F, = [(

1/(

  • j F, =

{ WHERE: F,= FLOW CUTOFF THRUST Fa= AVERAGE RUNNING FORCE Ae= ORIFICE AREA dp= TEST DIFFERENTIAL PRESSURE 4' j I -o

47.308.02 D} Attachment A, Page 4 of 7 g ggJE o22ses VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS REVIEW

9. CALCULATE RATE OF LOADING, ROL: (NOTE: TSS & SPRINGPACK MUST NOT HAVE CHANGED BETWEEN STATIC &

DYNAMIC TESTS FOR THE FOLLOWING ROL CALCULATION (S) TO BE VAUD.) ROL = 1 -!(CST THRUST

  • TCF
  • MCF ' SEDCF),

/(CST THRUST

  • TCF ' MCF
  • SEDCF)

] m i rot = i-f ROL = 1 - f 1/( ) =1-ROL = IF TEST DID NOT YIELD AN ABSOLUTE CST THRUST VALUE (eg.a bad 'rero'L THE FOLLOWING MAY BE USED PROVIDED NO CHANGES WERE MADE TO THE VALVE OR ACTUATOR WHICH COULD HAVE AFFECTED RUNNING FORCE BETWEEN THE DYNAMIC TEST & STATIC TEST: ROL = 1 -!(CST THRUST - AVE RUNNING FORCE 1 /(CST THRUST - AVE RUNNING FORCElm. ) ROL= 1 - ( 1/( ROL = 1 - i 1/( ) 1- = ROL =

10. EXTRAPOLATION OF MAXIMUM FORCE (NOTE: THE FOLLOWING LINEAR EXTRAPOLATION MAY NOT BE VAUD AT <

80%MEDP. IF <80%, JUSTIFY USE OF THIS EQUATION. A MULTI-PRESSURE TEST PLAN MAY BE NEEDED.) TEST dp h 80% MEDP O YES D NO F - (TCF

  • MCF 'SEDCF ' FINAL THRUST
  • MEDP / TEST dp) + [(DIA en.)'
  • a 14 * (P - P.)]

)]' Fw = ( / ) + (( 1" ' a/4 * ( Fw = ( / 1+I

  • n /4 '

l= + Fe = WHERE: Fw = EQUtVALENT MAXIMUM FORCE REQUIRED AT MEDP CONDmONS TEST dp = DIFFERENTIAL PRESSURE DURING TEST P,= PRESSURE AT CALCULATED CLOSING MEDP Pun = TY.ST UPSTREAM PRESSURE AT VALVE

11. DYNAMIC TEST CALCULATION OF ACCEPTABLE VALUES:

11.1 DYNAMIC TEST C7 THRUST'TCF'MCF'SEDCF'(1-SLD) * (1-(ACC'+TSR'I) = M!N REQUIRED THRUST-DESIGN 8 PACKING LOAD + v NE RUNNING FORCE - STEM DIA

  • a /4
  • Pun lacrm ' (1 + ACC)

NOTE: IF

  • ACTUAL
  • TERM IN ABOVE EQUATION IS s 0 THEN USE O.
  • (1 -

l ' (1 - (

  • +

agiraj = a e, j4 g. gg, 3 +f I 11.2 DYNAMIC TEST MAX THRUST'TCF'MCF'SEDCF'(1 + (ACC8 +TSR'))s MAX ALLOWABLE THRUST i I

  • (1 + (

2+ 211/2) s i I' 4 _i

47.306.02, Page 5 of 7 I 022593 VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS REVIEW 11.3 F.,< DYNAMIC TEST CST THRUST *TCF'MCF'SEDCF'(1 SLD) * (1-TSR.I

  • (1-I ' (1 -

1 i 11.4 F,< DESIGN F, 11.5 CST TOROUE'(1 +TSR) s TORQUE RATING

  • (1+

15 s 11.6. IF CRITERIA IN 11.1,112,11.3,11.4 or 11.5 IS NOT MET, JUSTIFICATION AND ACTIONS REQUIRED OR i TAKEN : I i 4 i r f l t i I k 1 t i -.- s

47.306.02 ~, Page 6 of 7 022593 VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS REVIEW COMPLETION OF STATIC OR DYNAMIC EVALUATION DSTATK: D DYNAMIC D BOTH VALVE NO: Perforrned by (Name/Date) Verified by (Name/Date) P REMARKS: 4 ) s i n 4 h .,.e nw. -e.- ~ ~ - ~ - ~ e- -m n - n nw.

i + l 47.306.02

  • , Page 7 of 7 022593 i

VOTES POST TESTING STATIC OR DYNAMIC TEST RESULTS REVIEW L i REMARKS: t i 1 t 1 9 6 i 1 i -l i e i I t i

l 8-473 06.02 Enclosure A, Pago 1 of 3 090192 r VOTES CABLE CONNECTION GUIDE 'I Breakout Box Connections t Connector # Cable / Component d l J1 Cable CB1-100 Votes Force Sensor --or-Cable CB1-100, Auxiliary Sensor J2 Cable CB17-100, DC Switch Probe Interface Box Power Line -or-Cable CB6-100, Load Rod -or-Cable CB13-100 Accelerometer -or-Spare Channel J3 Cable CB6-100, C Clamp or mini C Clamp -or-Cable CB7-100, U Clamp to Proximeter Clamp -or-Cable CB17-100, DC Switch Probe Interface Box Power Line -or-Cable CB12-100. Auxiliary Sensor -or-Spare Channel 'J4 AC Switch Probes (2) -or-i Cable CB16-100. DC Switch Probe / interface Box J5 AC Switch Probes (2) -or-Cable CB16-100, DC Switch Probe / interface Box J6 Cable CB15-100, AC Motor Current Probe -or-Cable CB15-100, DC Motor Current Probe J7 Cable CB14-100, Sound Powered Headphones J8 Cable CB3-100, to Signal Conditioner -or-Cat'le CB9-100 to Signal Conditioner f Signal Conditioner Connections J2 Cable CB11-100, Computer Power Supply J3 Cable CB9-100 to Breakout Box Cable CB3-100 to Breakout Box J4 Cable CB4-100, Main Signal Cable to Computer l Hsadphone Jack Cable CB14-100 Sound PowereJ Headphone J1 Cable CB10-100. Power Connection (120V,60 Cycle) (LAST) v Only one cable may be booked up at any one time. Any Cable / Component listed may be f connected to the Breakout Box / Signal Conditioner at any one time dependmg on the testing [ configuration / task. { t

47.306.02 Enclosure A. Page 2 of 3 090192 VOTES CABLE CONNECTION GUIDE AC Sox I I i-g g j 1 1 g ia i 4 g O l i l i o n .mus - mai amm B i j 3 8 c }. l 1 1 J_ di II q t L n, t. + .g ^ ^ i, i 1 4. j, a, a, I i I t i i i i i I 8 i 8 l a i i t O O O O O O .O t t j 1 I .i 11 1 1 i s I I 1 i j 1 1 1 l t i I --m i.

r [. ~ 47.306.02 Enclosure A. Page 3 of 3 g 090192 VOTES CABLE CONNECTION GUIDE DC Box Ill i 7- ] 1 1 1 -l 0 I l l i aa ~ t I 8 j J c } 1 l 1 _! 1 ~ 1 Al I I 1 1 t t i ~ I r i !, g Ls s n c j i 8 01 g i l l wl 8 g g 3 U 1 e i a a a a a a a ( I I i j i i i i 1 I i 1 1 1 L L j I l [ f a o _i_ _a L h we * + e e ow e emmen, o w.- ' *

  • eye ese=4 e,-.

e m e, per

~ 47.306.02 Enclosure B, Page 1 of 1 012993 STEM TRANSITION REGION e .e._

  1. m w_

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47.306.02 Enclosure D, Page 1 of 1 042393 SEATING CURRENT CAPACITY EXCEPTIONS BASIS: Item 14 of Attachment 2, " Degradation Data Sheet,* looks at the peak [ seating / unseating current to verify that it does not exceed 60% of the nameplate locked rotor current. This criteria is acceptable for DC and AC motor operated valve. motors with the exception of those listed below: 1 Seating Current Limits (ref. NEPJ-93-0062) Valve PIS No. Acceptance Criteria (Amps) E4150F003 100 E4150F006 160 E4150F059 3.4 E5150F008 9 E5150F095 5 B3105F031A 47.2 2. Unseating Current Limits (ref. NEPJ-93-0106) t Valve PiS No. Acceptance Criteria (Amps) E4150F003 100 E4150F006 160 E4150F007 212.9 E4150F059 3.4 E5150F008 9 E5150F095 5 B3105F031A 47.2 E1150F008 214.7 5 f h l b I - l l l -l

) 47.306 02 1 Enclosure E. Pago 1 of 2 l 042393 i 4 PLANNING AND PREPARATION l QUALIFICATION REQUIREMENTS l l Individuals performing testing shall have completed VOTES training / certification or shall be under the direct supervision of individuals who have received the training / certification. l Individuals performing evaluation of the test results shall have completed VOTES training / certification and shall have received training in MOV signature analysis (VOTES, MOVATS or equivalent). SUPPORT RECOMMENDATIONS f Operations personnel, t.s needed, to operate isolation valves. 1 PLANT / SYSTEM REQUIREMENTS As determined by the NSS or his designee who signs on the Work Package / Procedure. ENVIRONMENTAL REQUIREMENTS i Use of computer / printer should be limited to areas which are not contaminated. 4 MATERIAL AND EQUIPMENT REQUIREMENTS M&TE: 1. Calibration Devices (C-clamp. U-clamp as appropriate, etc.) 1 Other Equipment: 1. Portable Computer 2. Printer (optional) 3. Breakout Box i 4. Signal Conditioning Box 5. Sound Powered Headphones t 6. VOTES System Cables per Enclosure A [ 7. Approved Stem Lubricant i 8. Ruler or Micrometer j 9. Flashlight 10. Screwdrivers t 11. Approved Degreasing Solution l 12. Adjustable Wrenches i 13. Gaskets / spare parts as appropriate-14. For DC valves. DC Switch Probes / Fluke Current Probe [ DC Switch Probe Interface Box ] P-3500 Portable Strain Meter D. C. Voltmeter i D. C. Ammeter 15. For AC valves: AC Current and Switch Probes AC Ammeter (Optional) 16. Multimeter (ohms and AC-DC volts) i 17 ITl/MOVATS (TST) " Torque Switch Transducer' 18 ITl/MOVATS (TMD) " Thrust Measurmg Device" J ? I l

-3 r 47.306.02 Enclosure E, Page 2 of 2 042393 PLANNING AND PREPARATION SOURCE

REFERENCE:

Use

References:

o 35.306.006 o

35. LIM.009 o

35.306.003 Other

References:

o HENZE - MOVATS Advanced Signature Analysis Student Handbook o VMC2-24.7 - VOTES Valve Operation Test and Evaluation System Users Manual o B & W Valve Operation Test and Evaluation System Training Manual END i b 1 1 'I

~ Y Attachment #11 930507 DTC: VCMOV FILE #: 1804.03 Pcga 1 of MOV POST-TESTING REVIEW--CLOSING DIRECTION TEST PIS# VLV/ACT. SIZE, TYPE & ORIENT: V# i DESCRIPTION DESIGN STATIC TEST DYNAMIC TEST TEST DATE TEST NO. WR NO. ~4 m 6-. *' THRUST CALC J, Sp ~. v.n f.jf'; G" r MEDP CALC s x tex STEM MATERIAL 4 E/r (X 10 ) (LfBERTY DATA) 1 1 STEM NOM DIA. T.P.I. T.P.R. STEM EFFECTIVE t DIA (LIBERTY DATA) i CST THRUST i:@ " "c MAXIMUM THRUST s AVE. RUNNING a FORCE m.,bd ' Vsa. FLOW CUTOFF 't,. E, THRUST '2.x ,EN x y ' 59 CALIBRATION .,<J"' EXTRAPOLATION ,W,' M~ m aye ORIFICE AREA >A

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..m. m THRUST AT 'e#m ~g l@ W ~ g y ^ " 6pE $7 MSh..i@ FV= exemwo msm acca ~g: . sn. ,x wga S M b @,, d@N MAX ALLOWABLE ' ~ ~ '

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y. Attnchmnt #11 830507 Pega 2 of MOV POST-TESTING REVIEW--CLOSING DIRECTION TEST PIS/ DESCRIPTION DESIGN STATIC TEST DYNAMIC TEST VALVE ELEV. ~ k sh 'N s CST TORQUE $$^ ? ' a[ INN >[Nk'W ACTUATOR TORQUE RATING P? & WP ~ e s A. STATIC TEST REVIEW O N/A 1. IF CALIBRATED ON THREADS WHICH ARE IN A TORQUED CONDITION, THEN TORQUE CORRECTION FACTOR (TCF) WILL APPLY. OTHERWISE, TCF=1.0. TCF= BASIS: 2. MATERIAL CORRECTION FACTOR (MCF) : MCF= Elv, TEST E/v 3. STEM EFFECTIVE DIA (SED) CORRECTION FACTOR (SEDCF): SEDCF= N D = = TEST SED 4. RATE OF ICADING FACTOR, ROL= (IN DECIMAL FORM) BASIS: 5. TSR= TORQUE SWITCH REPEATABILITY =0._ (IN DECIMAL FORM) FOR TSS=1 AND SPRINGPACK <50 FT-LB. TSR=i0.20 FOR TSS=1 AND SPRINGPACK >50 FT-LB. TSR=iO.10 FOR TSS>l AND SPRINGPACK <50 FT-LB. TSR=10.10 FOR TSS>l AND SPRINGPACK >50 FT-LB. TER= 0.05 6. STEM LUBE DEGRADATION: SLD= ,(IN DECIMAL FORM) BASIS: 7. ACC= VOTES ACCURACY =0. (IN DECIMAL FORM) INCLUDE EXTRAPOLATION ERROR IF APPLICABLE (USING CURVE FIT). INCLUDE ADDITIONAL ERROR DUE TO SLOT IF APPLICABLE. REFERENCE VOTES MANUAL. BASIS: i

o t Attccirnnt #11 930507 P ga 3 of MOV POST-TESTING REVIEW--CLOSING DIRECTION '"EST PIS# i 8. STATIC TEST ACCEPTANCE CRITERIA: 2 2 8.1 STATIC TEST CST THRUST *TCF*MCF*SEDCF* (1-ROL-SLD-(TSR +ACC ) 12 ) l 2 MIN REQUIRED THRUST-DESIGN.?ACKING LOAD + AVE RUNNING FORCE: h h O YES O NO O N/A 2 2 8.2 STATIC TEST MAX THRUST *TCF*MCF*SEDCF* (1+(TSR +ACC ) t/2)$ MAX ALLOWABLE THRUST: 5 5 O YES O NO 2 2 8.3 CST TORQUE * (1+ (TSR + TORQUE ACCURACY ) t!2 5 TORQUE RATING S 5 i O YES O NO O N/A 8.4. IF NO, JUSTIFICATION AND ACTIONS REQUIRED OR TAKEN : f a L l I I

Attc.chment #11 s30so7 P ga 4 of MOV POST-TESTING REVIEW--CLOSING DIRECTION TEST PIS/ B. DYNAMIC TEST REVIEW D N/A 1. IF CALIBRATED ON THREADS WHICH ARE IN A TORQUED CONDITION, THEN TORQUE CORRECTION FACTOR (TCF) WILL APPLY. OTHERWISE, TCF=1.O. TCF= BASIS: 2. MATERIAL CORRECTION FACTOR (MCF): HCF, UBERW E/v, TEST E/v 3. STEM EFFECTIVE DIA (SED) CORRECTION FACTOR (SEDCF): SEDCF= UBERW SD, TEST SED 4.TSR= TORQUE SWITCH REPEATABILITY =0. (IN DECIMAL FORM) FOR TSS=1 AND SPRINGPACK <50 FT-LB. TSR=iO.20 FOR TSS=1 AND SPRINGPACK >50 FT-LB., TSR=10.IO FOR TSS>1 AND SPRINGPACK <50 FT-LB. TSR=iO.10 FOR TSS>l AND SPRINGPACK >50 FT-LB. TSR= 0.05 5. STEM LUBE DEGRADATION: SLD= (IN DECIMAL FORM) BASIS: 6. ACC= VOTES ACCURACY =0. (IN DECIMAL FORM) INCLUDE EXTRAPOLATION ERROR IF APPLICABLE (USING CURVE FIT). INCLUDE ADDITIONAL ERROR DUE TO SLOT IF APPLICABLE. REFERZ'JCE VOTES MANUAL. BASIS: 7. CORRECT PRESSURES FOR TAP ELEVATION: DESCRIPTION MEASUREMENT GAGE # TAP # TAPEl. PRESSURE AT VALVE l UPSTREAM [ DOWNSTREAM dp= (UPSTREAM PRESSURE -DOWNSTREAM PRESSURE) comicreo rom EttvAnow" l ?

Vy g I' - Attcchment #11 s30507 Paga 5 of MOV POST-TESTING REVIEW--CLOSING DIRECTION TEST PIS# 8. CALCULATE VALVE FACTOR, Fy F = (F -F ) / (A *dp)

  • TCF*MCF*SEDCF y

1 2 o WHERE F = FLOW CUTOFF THRUST i F = AVERAGE RUNNING FORCE 2 Ao= ORIFICE AREA dp= TEST DIFFERENTIAL PRESSURE 9. CALCULATE RATE OF LOADING, ROL: NOTE: TSB E SPRINGPACK MUST NOT HAVE CHANGED BETWEEN STATIC E DYNAMIC TESTS FOR THE FOLLOWING ROL CALCULATION (S) TO BE VALID. ROL=1- ((CST THRUST

  • TCF*MCF*SEDCF) mncCST THRUST
  • TCF*M IF TEST DID NOT YIELD AN ABSOLUTE CST THRUST VALUE (eg.a bad 'zero'),

THE FOLLOWING MAY BE USED PROVIDED NO CHANGES WERE MADE TO THE VALVE OR ACTUATOR WHICH COULD HAVE AFFECTED RUNNING FORCE BETWEEN THE DYNAMIC TEST & STATIC TEST:

  1. O " ~ {(CST DIRUST-AVE RUNNING FORCE) mac CST THRUST-AVE RUNNING FORCE) crwac 10.

EXTRAPOLATION OF MAXIMUM FORCE NOTE: THE FOLLOWING LINEAR EXTRAPOLATION MAY NOT BE VALID AT < 80%MEDP. IF <80%, JUSTIFY USE OF THIS EQUATION. A MULTI-PRESSURE TEST PLAN MAY BE NEEDED. TEST dp h 80% MEDP O YES O NO Fa= (TCF*MCF*SEDCF*F *MEDP/ TEST dp) + {DIA*mg*x/4 * (P -Pm) ) = 1 1 = S WHERE F FIDW CUTOFF THRUST = 3 F a = EQUIVALENT MAXIMUM FORCE REQUIRED AT MEDP CONDITIONS TEST dp = dp DURING TEST P = PRESSURE AT CALCULATED CLOSING MEDP i P sr= TEST UPSTREAM PRESSURE AT VALVE n i au.

r Attachment #11 830507 P;ga 6 of MOV POST-TESTING REVIEW--CLOSING DIRECTION TEST PIS# 11. DYNAMIC TEST ACCEPTANCE CRITERIA: 2 2 11.1 DYNAMIC TEST CST THRUST *TCF*MCF*SEDCF* (1-SLD-(TSR +ACC )na) 2 MIN REQUIRED THRUST-DESIGN PACKING LOAD +(AVE RUNNING FORCE-STEM 2 DIA.,f 4 uprest) Acrurt* (1+ACC) NOTE: IF " ACTUAL" TERM IN ABOVE EQUATION IS S 0, USE O. t 2 a D YES O NO 11.2 DYNAMIC TEST MAX THRUST *TCF*MCF*SEDCF* (1+(ACC +TSR ) o)s MAX ALLOWABLE THRUST 2 2 s s D YES O NO 11.3 F e < DYNAMIC TEST CST THRUST *TCF*MCF*SEDCF*(1-SLD-TSR) D YES D NO 11.4 Fy< DESIGN Fy D YES D NO 11.5 CST TORQUE * (1+(TSR + TORQUE ACCURACY ) a 5 TORQUE RATING 2 2 S S O YES O NO O N/A 11.6. IF NO, JUSTIFICATION & ACTIONS REQUIRED OR TAKEN : i 1 ) 1

Attacha nt #11 930507 Pcg3 of MOV POST-TESTING REVIEW--CIDSING DIRECTION TEST PIS# 1 REMARKS: 1 e 6 l

~ A tcchment #11 saoso7 Pcgm of f MOV POST-TESTING REVIEW--CLOSING DIRECTION TEST PIS# APPROVAL OF EVALUATION l h a .i r ? EVALUATION PERFORMED BY: t PRINT / SIGNATURE DATE EVALUATION REVIEWED BY: PRINT / SIGNATURE DATE i-EVALUATION APPROVED BY: f PRINT / SIGNATURE DATE MOVl I r i i I i i E-- I .}}