CIRCUITO “TR-2” RELEVADOR “GE MULTILIN 745” … · W ed Oct 09 12:44:00 2013 Settings (Enabled Features) And Actual Values PAGE 2 GE 745 745 QUICK CONNECT DEVICE DEFINITION

CIRCUITO “TR-2”

RELEVADOR “GE

MULTILIN 745”

AJUSTES FINALES

OCTUBRE 2013

Wed Oct 09 12:44:00 2013 Settings (Enabled Features) And Actual Values PAGE 1

GE 745745 QUICK CONNECTDEVICE DEFINITION

ORDER CODE: 745-W2-P5-G5-HI-A-EVERSION: 5.1XSERIAL NUMBER: E3380954DESCRIPTION: (NONE)INTERFACE:COM1: 19200 N 8 1

745 SETUPPREFERENCESFlash Message Time 4.0 sDefault Message Timeout 300 s

SCRATCHPADScratchpad Message 1 TR - PRUEBAScratchpad Message 2 UNIVEXScratchpad Message 3 13-12-2006Scratchpad Message 4 Text 4Scratchpad Message 5 Text 5

INSTALLATIONSR745 Setpoints Programmed

COMMUNICATIONSlave Address 254COM1 Baud Rate 19200 BaudCOM1 Parity NoneCOM2 Baud Rate 19200 BaudCOM2 Parity NoneFront Port Baud Rate 19200 BaudFront Port Parity None

EVENTS CONFIGURATIONEnable PICKUP event capture EnabledEnable OPERATE event capture EnabledEnable DROPOUT event capture EnabledEnable ERROR event capture EnabledEnable OFF event capture EnabledEnable ON event capture Enabled

SYSTEM SETUPTRANSFORMERSNominal Frequency 60 HzPhase Sequence ABCTransformer Type D/y30°Load Loss at Rated Load 1250 kWLow Voltage Winding Rating Above 5 kVFrequency Tracking Enabled

WINDINGSWINDINGS 1W1 Nominal Phase-to-Phase Voltage 115.0 kVW1 Rated Load 12.5 MVAW1 Phase CT Primary 50 : 5 AW1 Ground CT Primary 500 : 5 AW1 Series 3-Phase Resistance 3.000 Ohm

WINDINGS 2W2 Nominal Phase-to-Phase Voltage 4.2 kVW2 Rated Load 12.5 MVAW2 Phase CT Primary 2500 : 5 AW2 Ground CT Primary 800 : 5 AW2 Series 3-Phase Resistance 3.000 Ohm

ONLOAD TAP CHANGERONLOAD TAP CHANGERWinding With Tap Changer NoneNumber of Tap Positions 33Minimum Tap Position Voltage 61.0 kVVoltage Increment Per Tap 0.50 kVResistance Increment Per Tap 33 Ohm

HARMONICS DERATINGHARMONIC DERATINGTHD Minimum Harmonic Number 2ndTHD Maximum Harmonic Number 21st

FLEXCURVESFLEXCURVE AFlexCurve A Delay at 1.03 x PKP 16038 msFlexCurve A Delay at 1.05 x PKP 14747 msFlexCurve A Delay at 1.10 x PKP 12126 msFlexCurve A Delay at 1.20 x PKP 8615 msFlexCurve A Delay at 1.30 x PKP 6440 msFlexCurve A Delay at 1.40 x PKP 5001 ms




FLEXCURVE A (continued from last page)FlexCurve A Delay at 1.50 x PKP 4001 msFlexCurve A Delay at 1.60 x PKP 3278 msFlexCurve A Delay at 1.70 x PKP 2739 msFlexCurve A Delay at 1.80 x PKP 2326 msFlexCurve A Delay at 1.90 x PKP 2002 msFlexCurve A Delay at 2.00 x PKP 1744 msFlexCurve A Delay at 2.10 x PKP 1535 msFlexCurve A Delay at 2.20 x PKP 1363 msFlexCurve A Delay at 2.30 x PKP 1220 msFlexCurve A Delay at 2.40 x PKP 1100 msFlexCurve A Delay at 2.50 x PKP 997 msFlexCurve A Delay at 2.60 x PKP 910 msFlexCurve A Delay at 2.70 x PKP 834 msFlexCurve A Delay at 2.80 x PKP 768 msFlexCurve A Delay at 2.90 x PKP 710 msFlexCurve A Delay at 3.00 x PKP 659 msFlexCurve A Delay at 3.10 x PKP 614 msFlexCurve A Delay at 3.20 x PKP 574 msFlexCurve A Delay at 3.30 x PKP 539 msFlexCurve A Delay at 3.40 x PKP 506 msFlexCurve A Delay at 3.50 x PKP 478 msFlexCurve A Delay at 3.60 x PKP 451 msFlexCurve A Delay at 3.70 x PKP 428 msFlexCurve A Delay at 3.80 x PKP 406 msFlexCurve A Delay at 3.90 x PKP 386 msFlexCurve A Delay at 4.00 x PKP 368 msFlexCurve A Delay at 4.10 x PKP 351 msFlexCurve A Delay at 4.20 x PKP 336 msFlexCurve A Delay at 4.30 x PKP 322 msFlexCurve A Delay at 4.40 x PKP 309 msFlexCurve A Delay at 4.50 x PKP 297 msFlexCurve A Delay at 4.60 x PKP 285 msFlexCurve A Delay at 4.70 x PKP 275 msFlexCurve A Delay at 4.80 x PKP 265 msFlexCurve A Delay at 4.90 x PKP 256 msFlexCurve A Delay at 5.00 x PKP 247 msFlexCurve A Delay at 5.10 x PKP 239 msFlexCurve A Delay at 5.20 x PKP 232 msFlexCurve A Delay at 5.30 x PKP 225 msFlexCurve A Delay at 5.40 x PKP 218 msFlexCurve A Delay at 5.50 x PKP 212 msFlexCurve A Delay at 5.60 x PKP 206 msFlexCurve A Delay at 5.70 x PKP 200 msFlexCurve A Delay at 5.80 x PKP 195 msFlexCurve A Delay at 5.90 x PKP 190 msFlexCurve A Delay at 6.00 x PKP 185 msFlexCurve A Delay at 6.50 x PKP 165 msFlexCurve A Delay at 7.00 x PKP 149 msFlexCurve A Delay at 7.50 x PKP 136 msFlexCurve A Delay at 8.00 x PKP 126 msFlexCurve A Delay at 8.50 x PKP 117 msFlexCurve A Delay at 9.00 x PKP 110 msFlexCurve A Delay at 9.50 x PKP 104 msFlexCurve A Delay at 10.00 x PKP 98 msFlexCurve A Delay at 10.50 x PKP 94 msFlexCurve A Delay at 11.00 x PKP 90 msFlexCurve A Delay at 11.50 x PKP 86 msFlexCurve A Delay at 12.00 x PKP 83 msFlexCurve A Delay at 12.50 x PKP 80 msFlexCurve A Delay at 13.00 x PKP 78 msFlexCurve A Delay at 13.50 x PKP 76 msFlexCurve A Delay at 14.00 x PKP 74 msFlexCurve A Delay at 14.50 x PKP 72 msFlexCurve A Delay at 15.00 x PKP 70 msFlexCurve A Delay at 15.50 x PKP 69 msFlexCurve A Delay at 16.00 x PKP 67 msFlexCurve A Delay at 16.50 x PKP 66 msFlexCurve A Delay at 17.00 x PKP 65 msFlexCurve A Delay at 17.50 x PKP 64 msFlexCurve A Delay at 18.00 x PKP 63 msFlexCurve A Delay at 18.50 x PKP 62 msFlexCurve A Delay at 19.00 x PKP 61 msFlexCurve A Delay at 19.50 x PKP 60 msFlexCurve A Delay at 20.00 x PKP 60 ms

FLEXCURVE B




FLEXCURVE B (continued from last page)FlexCurve B Delay at 1.03 x PKP 16038 msFlexCurve B Delay at 1.05 x PKP 14747 msFlexCurve B Delay at 1.10 x PKP 12126 msFlexCurve B Delay at 1.20 x PKP 8615 msFlexCurve B Delay at 1.30 x PKP 6440 msFlexCurve B Delay at 1.40 x PKP 5001 msFlexCurve B Delay at 1.50 x PKP 4001 msFlexCurve B Delay at 1.60 x PKP 3278 msFlexCurve B Delay at 1.70 x PKP 2739 msFlexCurve B Delay at 1.80 x PKP 2326 msFlexCurve B Delay at 1.90 x PKP 2002 msFlexCurve B Delay at 2.00 x PKP 1744 msFlexCurve B Delay at 2.10 x PKP 1535 msFlexCurve B Delay at 2.20 x PKP 1363 msFlexCurve B Delay at 2.30 x PKP 1220 msFlexCurve B Delay at 2.40 x PKP 1100 msFlexCurve B Delay at 2.50 x PKP 997 msFlexCurve B Delay at 2.60 x PKP 910 msFlexCurve B Delay at 2.70 x PKP 834 msFlexCurve B Delay at 2.80 x PKP 768 msFlexCurve B Delay at 2.90 x PKP 710 msFlexCurve B Delay at 3.00 x PKP 659 msFlexCurve B Delay at 3.10 x PKP 614 msFlexCurve B Delay at 3.20 x PKP 574 msFlexCurve B Delay at 3.30 x PKP 539 msFlexCurve B Delay at 3.40 x PKP 506 msFlexCurve B Delay at 3.50 x PKP 478 msFlexCurve B Delay at 3.60 x PKP 451 msFlexCurve B Delay at 3.70 x PKP 428 msFlexCurve B Delay at 3.80 x PKP 406 msFlexCurve B Delay at 3.90 x PKP 386 msFlexCurve B Delay at 4.00 x PKP 368 msFlexCurve B Delay at 4.10 x PKP 351 msFlexCurve B Delay at 4.20 x PKP 336 msFlexCurve B Delay at 4.30 x PKP 322 msFlexCurve B Delay at 4.40 x PKP 309 msFlexCurve B Delay at 4.50 x PKP 297 msFlexCurve B Delay at 4.60 x PKP 285 msFlexCurve B Delay at 4.70 x PKP 275 msFlexCurve B Delay at 4.80 x PKP 265 msFlexCurve B Delay at 4.90 x PKP 256 msFlexCurve B Delay at 5.00 x PKP 247 msFlexCurve B Delay at 5.10 x PKP 239 msFlexCurve B Delay at 5.20 x PKP 232 msFlexCurve B Delay at 5.30 x PKP 225 msFlexCurve B Delay at 5.40 x PKP 218 msFlexCurve B Delay at 5.50 x PKP 212 msFlexCurve B Delay at 5.60 x PKP 206 msFlexCurve B Delay at 5.70 x PKP 200 msFlexCurve B Delay at 5.80 x PKP 195 msFlexCurve B Delay at 5.90 x PKP 190 msFlexCurve B Delay at 6.00 x PKP 185 msFlexCurve B Delay at 6.50 x PKP 165 msFlexCurve B Delay at 7.00 x PKP 149 msFlexCurve B Delay at 7.50 x PKP 136 msFlexCurve B Delay at 8.00 x PKP 126 msFlexCurve B Delay at 8.50 x PKP 117 msFlexCurve B Delay at 9.00 x PKP 110 msFlexCurve B Delay at 9.50 x PKP 104 msFlexCurve B Delay at 10.00 x PKP 98 msFlexCurve B Delay at 10.50 x PKP 94 msFlexCurve B Delay at 11.00 x PKP 90 msFlexCurve B Delay at 11.50 x PKP 86 msFlexCurve B Delay at 12.00 x PKP 83 msFlexCurve B Delay at 12.50 x PKP 80 msFlexCurve B Delay at 13.00 x PKP 78 msFlexCurve B Delay at 13.50 x PKP 76 msFlexCurve B Delay at 14.00 x PKP 74 msFlexCurve B Delay at 14.50 x PKP 72 msFlexCurve B Delay at 15.00 x PKP 70 msFlexCurve B Delay at 15.50 x PKP 69 msFlexCurve B Delay at 16.00 x PKP 67 msFlexCurve B Delay at 16.50 x PKP 66 msFlexCurve B Delay at 17.00 x PKP 65 msFlexCurve B Delay at 17.50 x PKP 64 msFlexCurve B Delay at 18.00 x PKP 63 ms




FLEXCURVE B (continued from last page)FlexCurve B Delay at 18.50 x PKP 62 msFlexCurve B Delay at 19.00 x PKP 61 msFlexCurve B Delay at 19.50 x PKP 60 msFlexCurve B Delay at 20.00 x PKP 60 ms

FLEXCURVE CFlexCurve C Delay at 1.03 x PKP 16038 msFlexCurve C Delay at 1.05 x PKP 14747 msFlexCurve C Delay at 1.10 x PKP 12126 msFlexCurve C Delay at 1.20 x PKP 8615 msFlexCurve C Delay at 1.30 x PKP 6440 msFlexCurve C Delay at 1.40 x PKP 5001 msFlexCurve C Delay at 1.50 x PKP 4001 msFlexCurve C Delay at 1.60 x PKP 3278 msFlexCurve C Delay at 1.70 x PKP 2739 msFlexCurve C Delay at 1.80 x PKP 2326 msFlexCurve C Delay at 1.90 x PKP 2002 msFlexCurve C Delay at 2.00 x PKP 1744 msFlexCurve C Delay at 2.10 x PKP 1535 msFlexCurve C Delay at 2.20 x PKP 1363 msFlexCurve C Delay at 2.30 x PKP 1220 msFlexCurve C Delay at 2.40 x PKP 1100 msFlexCurve C Delay at 2.50 x PKP 997 msFlexCurve C Delay at 2.60 x PKP 910 msFlexCurve C Delay at 2.70 x PKP 834 msFlexCurve C Delay at 2.80 x PKP 768 msFlexCurve C Delay at 2.90 x PKP 710 msFlexCurve C Delay at 3.00 x PKP 659 msFlexCurve C Delay at 3.10 x PKP 614 msFlexCurve C Delay at 3.20 x PKP 574 msFlexCurve C Delay at 3.30 x PKP 539 msFlexCurve C Delay at 3.40 x PKP 506 msFlexCurve C Delay at 3.50 x PKP 478 msFlexCurve C Delay at 3.60 x PKP 451 msFlexCurve C Delay at 3.70 x PKP 428 msFlexCurve C Delay at 3.80 x PKP 406 msFlexCurve C Delay at 3.90 x PKP 386 msFlexCurve C Delay at 4.00 x PKP 368 msFlexCurve C Delay at 4.10 x PKP 351 msFlexCurve C Delay at 4.20 x PKP 336 msFlexCurve C Delay at 4.30 x PKP 322 msFlexCurve C Delay at 4.40 x PKP 309 msFlexCurve C Delay at 4.50 x PKP 297 msFlexCurve C Delay at 4.60 x PKP 285 msFlexCurve C Delay at 4.70 x PKP 275 msFlexCurve C Delay at 4.80 x PKP 265 msFlexCurve C Delay at 4.90 x PKP 256 msFlexCurve C Delay at 5.00 x PKP 247 msFlexCurve C Delay at 5.10 x PKP 239 msFlexCurve C Delay at 5.20 x PKP 232 msFlexCurve C Delay at 5.30 x PKP 225 msFlexCurve C Delay at 5.40 x PKP 218 msFlexCurve C Delay at 5.50 x PKP 212 msFlexCurve C Delay at 5.60 x PKP 206 msFlexCurve C Delay at 5.70 x PKP 200 msFlexCurve C Delay at 5.80 x PKP 195 msFlexCurve C Delay at 5.90 x PKP 190 msFlexCurve C Delay at 6.00 x PKP 185 msFlexCurve C Delay at 6.50 x PKP 165 msFlexCurve C Delay at 7.00 x PKP 149 msFlexCurve C Delay at 7.50 x PKP 136 msFlexCurve C Delay at 8.00 x PKP 126 msFlexCurve C Delay at 8.50 x PKP 117 msFlexCurve C Delay at 9.00 x PKP 110 msFlexCurve C Delay at 9.50 x PKP 104 msFlexCurve C Delay at 10.00 x PKP 98 msFlexCurve C Delay at 10.50 x PKP 94 msFlexCurve C Delay at 11.00 x PKP 90 msFlexCurve C Delay at 11.50 x PKP 86 msFlexCurve C Delay at 12.00 x PKP 83 msFlexCurve C Delay at 12.50 x PKP 80 msFlexCurve C Delay at 13.00 x PKP 78 msFlexCurve C Delay at 13.50 x PKP 76 msFlexCurve C Delay at 14.00 x PKP 74 msFlexCurve C Delay at 14.50 x PKP 72 msFlexCurve C Delay at 15.00 x PKP 70 ms




FLEXCURVE C (continued from last page)FlexCurve C Delay at 15.50 x PKP 69 msFlexCurve C Delay at 16.00 x PKP 67 msFlexCurve C Delay at 16.50 x PKP 66 msFlexCurve C Delay at 17.00 x PKP 65 msFlexCurve C Delay at 17.50 x PKP 64 msFlexCurve C Delay at 18.00 x PKP 63 msFlexCurve C Delay at 18.50 x PKP 62 msFlexCurve C Delay at 19.00 x PKP 61 msFlexCurve C Delay at 19.50 x PKP 60 msFlexCurve C Delay at 20.00 x PKP 60 ms

VOLTAGE INPUTVOLTAGE INPUTVoltage Sensing EnabledVoltage Input Parameter W2 VabNominal VT Secondary Voltage 120.0 VVT Ratio 35 :1

AMBIENT TEMPERATUREAMBIENT TEMPERATUREAmbient RTD Type 100 ohm Platinum

ANALOG INPUTANALOG INPUTAnalog Input Name ANALOG INPUTAnalog Input Units µAAnalog Input Range 0-1 mAAnalog Input Minimum Value 0 µAAnalog Input Maximum Value 1000 µA

DEMAND METERINGDEMAND METERINGCurrent Demand Meter Type ThermalThermal 90% Response Time 15 min

ELEMENTSSETPOINT GROUP.Active Setpoint Group Group 1Edit Setpoint Group Group 1

OUTPUTSOUTPUT RELAYSRELAY 1Output 1 Name Solid State TripOutput 1 Operation LatchedOutput 1 Type TripOutput 1 FlexLogic 1 Percent Differential OperateOutput 1 FlexLogic 2 Inst Differential OperateOutput 1 FlexLogic 3 Any W1 OC OperateOutput 1 FlexLogic 4 Any W2 OC OperateOutput 1 FlexLogic 5 OR (4 inputs)

RELAY 2Output 2 Name Trip 1Output 2 Operation Self-resettingOutput 2 Type TripOutput 2 FlexLogic 1 Percent Differential OperateOutput 2 FlexLogic 2 Inst Differential OperateOutput 2 FlexLogic 3 Any W1 OC OperateOutput 2 FlexLogic 4 Any W2 OC OperateOutput 2 FlexLogic 5 OR (4 inputs)

RELAY 3Output 3 Name Trip 2Output 3 Operation Self-resettingOutput 3 Type TripOutput 3 FlexLogic 1 Percent Differential OperateOutput 3 FlexLogic 2 Inst Differential OperateOutput 3 FlexLogic 3 Any W1 OC OperateOutput 3 FlexLogic 4 Any W2 OC OperateOutput 3 FlexLogic 5 OR (4 inputs)

RELAY 4Output 4 Name Volts/Hertz TripOutput 4 Operation Self-resettingOutput 4 Type Trip




RELAY 4 (continued from last page)Output 4 FlexLogic 1 Volts-Per-Hertz 1 OperateOutput 4 FlexLogic 2 Volts-Per-Hertz 2 OperateOutput 4 FlexLogic 3 OR (2 inputs)

RELAY 5Output 5 Name Overflux AlarmOutput 5 Operation Self-resettingOutput 5 Type AlarmOutput 5 FlexLogic 1 W1 THD Level OperateOutput 5 FlexLogic 2 W2 THD Level OperateOutput 5 FlexLogic 3 Transformer Overload OperateOutput 5 FlexLogic 4 5th Harmonic Level OperateOutput 5 FlexLogic 5 OR (4 inputs)

RELAY 6Output 6 Name Frequency Trip 1Output 6 Operation Self-resettingOutput 6 Type TripOutput 6 FlexLogic 1 Underfrequency 1 OperateOutput 6 FlexLogic 2 Frequency Decay Rate 1 OperateOutput 6 FlexLogic 3 OR (2 inputs)

RELAY 7Output 7 Name Frequency Trip 2Output 7 Operation Self-resettingOutput 7 Type TripOutput 7 FlexLogic 1 Underfrequency 2 OperateOutput 7 FlexLogic 2 Frequency Decay Rate 2 OperateOutput 7 FlexLogic 3 OR (2 inputs)

RELAY 8Output 8 Name Frequency Trip 3Output 8 Operation Self-resettingOutput 8 Type TripOutput 8 FlexLogic 1 Frequency Decay Rate 3 Operate

TRACE MEMORYNumber of Pre-Trigger Cycles 12 cyclesTrace Memory Trigger FlexLogic 1 Any Element Pickup

TIMERSTIMER 1Timer 1 Pickup Delay 0.00 sTimer 1 Dropout Delay 0.00 s

TIMER 2Timer 2 Pickup Delay 0.00 sTimer 2 Dropout Delay 0.00 s












ELEMENTSDIFFERENTIAL[SETPOINT GROUP 1]PERCENT DIFFERENTIAL[SETPOINT GROUP 1]Percent Differential Function EnabledPercent Differential Relays Relay 1-2-4Percent Differential Target LatchedPercent Differential Pickup 0.20 x CTPercent Differential Slope 1 25 %Percent Differential Break Point 2.5 x CTPercent Differential Slope 2 100 %

HARMONIC INHIBIT[SETPOINT GROUP 1]Harmonic Inhibit Function EnabledHarmonic Inhibit Parameters 2ndHarmonic Inhibit Level 15.0 % fo

ENERGIZATION INHIBIT[SETPOINT GROUP 1]Energization Inhibit Function EnabledEnergization Inhibit Parameters 2ndEnergization Inhibit Level 15.0 % foEnergization Inhibit Duration 0.50 s

ENERGIZATION SENSING[SETPOINT GROUP 1]Minimum Energization Current 0.10 x CTEnergization Sensing By Voltage EnabledMinimum Energization Voltage 0.85 VT

PHASE OVERCURRENT[SETPOINT GROUP 1]W1 PHASE TIME OC[SETPOINT GROUP 1]W1 Phase TOC Function EnabledW1 Phase TOC Relays Relay 1-2-4W1 Phase TOC Target LatchedW1 Phase TOC Pickup 1.50 x CTW1 Phase TOC Shape Ext InverseW1 Phase TOC Multiplier 5.00W1 Phase TOC Reset Linear

W2 PHASE TIME OC[SETPOINT GROUP 1]W2 Phase TOC Function EnabledW2 Phase TOC Relays Relay 1-2-4W2 Phase TOC Target LatchedW2 Phase TOC Pickup 0.70 x CTW2 Phase TOC Shape Ext InverseW2 Phase TOC Multiplier 3.00W2 Phase TOC Reset Linear

W1 PHASE INST OC 1[SETPOINT GROUP 1]W1 Phase IOC1 Function EnabledW1 Phase IOC1 Relays Relay 1-2-4W1 Phase IOC1 Target LatchedW1 Phase IOC1 Pickup 14.00 x CTW1 Phase IOC1 Delay 100 ms

W2 PHASE INST OC 1[SETPOINT GROUP 1]W2 Phase IOC1 Function EnabledW2 Phase IOC1 Relays Relay 1-2-4W2 Phase IOC1 Target LatchedW2 Phase IOC1 Pickup 6.00 x CTW2 Phase IOC1 Delay 100 ms

W2 NEUTRAL TIME OC[SETPOINT GROUP 1]W2 Neutral TOC Function EnabledW2 Neutral TOC Relays Relay 1-2W2 Neutral TOC Target LatchedW2 Neutral TOC Pickup 0.08 x CTW2 Neutral TOC Shape Mod InverseW2 Neutral TOC Multiplier 2.00W2 Neutral TOC Reset Linear

W2 NEUTRAL INST OC 1[SETPOINT GROUP 1]W2 Neutral O/C 1 Function EnabledW2 Neutral IOC1 Relays Relay 1-2




W2 NEUTRAL INST OC 1[SETPOINT GROUP 1] (continued from last page)W2 Neutral IOC1 Target LatchedW2 Neutral IOC1 Pickup 0.29 x CTW2 Neutral IOC1 Delay 800 ms

W2 GROUND TIME OC[SETPOINT GROUP 1]W2 Ground TOC Function EnabledW2 Ground TOC Relays Relay 1-2W2 Ground TOC Target LatchedW2 Ground TOC Pickup 0.22 x CTW2 Ground TOC Shape Mod InverseW2 Ground TOC Multiplier 2.00W2 Ground TOC Reset Linear

W2 GROUND INST OC 1[SETPOINT GROUP 1]W2 Ground IOC1 Function EnabledW2 Ground IOC1 Relays Relay NoneW2 Ground IOC1 Target LatchedW2 Ground IOC1 Pickup 0.82 x CTW2 Ground IOC1 Delay 800 ms

DIFFERENTIAL[SETPOINT GROUP 2]PERCENT DIFFERENTIAL[SETPOINT GROUP 2]Percent Differential Function EnabledPercent Differential Relays Relay NonePercent Differential Target LatchedPercent Differential Pickup 0.30 x CTPercent Differential Slope 1 25 %Percent Differential Break Point 2.0 x CTPercent Differential Slope 2 100 %


ENERGIZATION INHIBIT[SETPOINT GROUP 2]Energization Inhibit Function EnabledEnergization Inhibit Parameters 2ndHarmonic Averaging (energization inhibit) EnabledEnergization Inhibit Level 20.0 % foEnergization Inhibit Duration 0.10 s

ENERGIZATION SENSING[SETPOINT GROUP 2]Energization Sensing By Current EnabledMinimum Energization Current 0.10 x CTMinimum Energization Voltage 0.85 VT

INSTANTANEOUS DIFFERENTIAL[SETPOINT GROUP 2]Inst Differential Function EnabledInst Differential Relays Relay NoneInst Differential Target LatchedInst Differential Pickup 8.00 x CT

PHASE OVERCURRENT[SETPOINT GROUP 2]W1 PHASE TIME OC[SETPOINT GROUP 2]W1 Phase TOC Function EnabledW1 Phase TOC Relays Relay NoneW1 Phase TOC Target LatchedW1 Phase TOC Pickup 1.20 x CTW1 Phase TOC Shape Ext InverseW1 Phase TOC Multiplier 1.00W1 Phase TOC Reset Linear

W2 PHASE TIME OC[SETPOINT GROUP 2]W2 Phase TOC Function EnabledW2 Phase TOC Relays Relay NoneW2 Phase TOC Target LatchedW2 Phase TOC Pickup 1.20 x CTW2 Phase TOC Shape Ext InverseW2 Phase TOC Multiplier 1.00W2 Phase TOC Reset Linear

W1 PHASE INST OC 1[SETPOINT GROUP 2]W1 Phase IOC1 Function EnabledW1 Phase IOC1 Relays Relay NoneW1 Phase IOC1 Target Latched




W1 PHASE INST OC 1[SETPOINT GROUP 2] (continued from last page)W1 Phase IOC1 Pickup 10.00 x CTW1 Phase IOC1 Delay 0 ms

W2 PHASE INST OC 1[SETPOINT GROUP 2]W2 Phase IOC1 Function EnabledW2 Phase IOC1 Relays Relay NoneW2 Phase IOC1 Target LatchedW2 Phase IOC1 Pickup 10.00 x CTW2 Phase IOC1 Delay 0 ms



NEUTRAL OVERCURRENT[SETPOINT GROUP 2]W1 NEUTRAL TIME OC[SETPOINT GROUP 2]W1 Neutral TOC Function EnabledW1 Neutral TOC Relays Relay NoneW1 Neutral TOC Target LatchedW1 Neutral TOC Pickup 0.85 x CTW1 Neutral TOC Shape Ext InverseW1 Neutral TOC Multiplier 1.00W1 Neutral TOC Reset Linear

W1 NEUTRAL INST OC 1[SETPOINT GROUP 2]W1 Neutral O/C 1 Function EnabledW1 Neutral IOC1 Relays Relay NoneW1 Neutral IOC1 Target LatchedW1 Neutral IOC1 Pickup 10.00 x CTW1 Neutral IOC1 Delay 0 ms

GROUND OVERCURRENT[SETPOINT GROUP 2]W1 GROUND TIME OC[SETPOINT GROUP 2]W1 Ground TOC Function EnabledW1 Ground TOC Relays Relay NoneW1 Ground TOC Target LatchedW1 Ground TOC Pickup 0.85 x CTW1 Ground TOC Shape Ext InverseW1 Ground TOC Multiplier 1.00W1 Ground TOC Reset Linear




ENERGIZATION SENSING[SETPOINT GROUP 3]Energization Sensing By Current EnabledMinimum Energization Current 0.10 x CT




ENERGIZATION SENSING[SETPOINT GROUP 3] (continued from last page)Minimum Energization Voltage 0.85 VT










GROUND OVERCURRENT[SETPOINT GROUP 3]W1 GROUND TIME OC[SETPOINT GROUP 3]W1 Ground TOC Function EnabledW1 Ground TOC Relays Relay None




W1 GROUND TIME OC[SETPOINT GROUP 3] (continued from last page)W1 Ground TOC Target LatchedW1 Ground TOC Pickup 0.85 x CTW1 Ground TOC Shape Ext InverseW1 Ground TOC Multiplier 1.00W1 Ground TOC Reset Linear




ENERGIZATION SENSING[SETPOINT GROUP 4]Energization Sensing By Current EnabledMinimum Energization Current 0.10 x CTMinimum Energization Voltage 0.85 VT






W1 PHASE INST OC 2[SETPOINT GROUP 4]W1 Phase IOC2 Function EnabledW1 Phase IOC2 Relays Relay NoneW1 Phase IOC2 Target Latched




W1 PHASE INST OC 2[SETPOINT GROUP 4] (continued from last page)W1 Phase IOC2 Pickup 10.00 x CTW1 Phase IOC2 Delay 0 ms




GROUND OVERCURRENT[SETPOINT GROUP 4]W1 GROUND TIME OC[SETPOINT GROUP 4]W1 Ground TOC Function EnabledW1 Ground TOC Relays Relay NoneW1 Ground TOC Target LatchedW1 Ground TOC Pickup 0.85 x CTW1 Ground TOC Shape Ext InverseW1 Ground TOC Multiplier 1.00W1 Ground TOC Reset Linear

STATUSLOGIC INPUTSLogic Input 1 Assert Not AssertedLogic Input 2 Assert Not AssertedLogic Input 3 Assert Not AssertedLogic Input 4 Assert Not AssertedLogic Input 5 Assert Not AssertedLogic Input 6 Assert Not AssertedLogic Input 7 Assert Not AssertedLogic Input 8 Assert Not AssertedLogic Input 9 Assert Not AssertedLogic Input 10 Assert Not AssertedLogic Input 11 Assert Not AssertedLogic Input 12 Assert Not AssertedLogic Input 13 Assert Not AssertedLogic Input 14 Assert Not AssertedLogic Input 15 Assert Not AssertedLogic Input 16 Assert Not AssertedSetpoint Access Open

VIRTUAL INPUTSVirtual Input 1 Assert Not AssertedVirtual Input 2 Assert Not AssertedVirtual Input 3 Assert Not AssertedVirtual Input 4 Assert Not AssertedVirtual Input 5 Assert Not AssertedVirtual Input 6 Assert Not AssertedVirtual Input 7 Assert Not AssertedVirtual Input 8 Assert Not AssertedVirtual Input 9 Assert Not AssertedVirtual Input 10 Assert Not AssertedVirtual Input 11 Assert Not AssertedVirtual Input 12 Assert Not AssertedVirtual Input 13 Assert Not AssertedVirtual Input 14 Assert Not AssertedVirtual Input 15 Assert Not AssertedVirtual Input 16 Assert Not Asserted

OUTPUT RELAYS




OUTPUT RELAYS (continued from last page)Output Relay 1 De-energizedOutput Relay 2 De-energizedOutput Relay 3 De-energizedOutput Relay 4 De-energizedOutput Relay 5 De-energizedOutput Relay 6 De-energizedOutput Relay 7 De-energizedOutput Relay 8 De-energizedOutput Relay Self-Test Energized

VIRTUAL OUTPUTSVirtual Output 1 De-energizedVirtual Output 2 De-energizedVirtual Output 3 De-energizedVirtual Output 4 De-energizedVirtual Output 5 De-energized

SELF-TEST ERRORSFlexlogic Equation Error NoneBad Transformer Settings Error None

NETWORK STATUSEthernet Diagnostic Status Bit OffEthernet Connection Status Bit OffEthernet Link Status Bit Off

METERINGCURRENTSPHASE/GROUND & PHASORSW1 Ia Magnitude 0.0 AW1 Ia Angle 0 °LagW1 Ib Magnitude 0.0 AW1 Ib Angle 0 °LagW1 Ic Magnitude 0.0 AW1 Ic Angle 0 °LagW1 In Magnitude 0.0 AW1 In Angle 0 °LagW1 Ig Magnitude 0 AW1 Ig Angle 0 °LagW1 Loading 0 % ratedW1 Iavg 0.0 AW2 Ia Magnitude 0 AW2 Ia Angle 0 °LagW2 Ib Magnitude 0 AW2 Ib Angle 0 °LagW2 Ic Magnitude 0 AW2 Ic Angle 0 °LagW2 In Magnitude 0 AW2 In Angle 0 °LagW2 Ig Magnitude 0 AW2 Ig Angle 0 °LagW2 Loading 0 % ratedW2 Iavg 0 AVoltage Input Parameter W2 VabLine-to-Ntrl Voltage Magnitude 0.00 kVLine-to-Ntrl Voltage Angle 0 °Lag

SEQUENCEW1 Positive Sequence Current Magnitude 0.0 AW1 Positive Sequence Current Angle 0 °LagW1 Negative Sequence Current Magnitude 0.0 AW1 Negative Sequence Current Angle 0 °LagW1 Zero Sequence Current Magnitude 0.0 AW1 Zero Sequence Current Angle 0 °LagW2 Positive Sequence Current Magnitude 0 AW2 Positive Sequence Current Angle 0 °LagW2 Negative Sequence Current Magnitude 0 AW2 Negative Sequence Current Angle 0 °LagW2 Zero Sequence Current Magnitude 0 AW2 Zero Sequence Current Angle 0 °Lag

DIFF./RESTRAINTIa Differential Magnitude 0.00 x CTIa Differential Angle 0 °LagIb Differential Magnitude 0.00 x CTIb Differential Angle 0 °Lag




DIFF./RESTRAINT (continued from last page)Ic Differential Magnitude 0.00 x CTIc Differential Angle 0 °LagIa Restraint 0.00 x CTIb Restraint 0.00 x CTIc Restraint 0.00 x CT

GND DIFFERENTIALW1 Ig Differential 0.000 x CTW2 Ig Differential 0.000 x CT

DEMANDDEMANDDemand Data Last Clear Date 10/1/2013Demand Data Last Clear Time 11:22:29.838W1 Ia Demand 0.0 AW1 Ib Demand 0.0 AW1 Ic Demand 0.0 AW1 Max Current Demand 33.3 AW1 Max Current Demand Phase in phase BW1 Max Current Demand Date 10/4/2013W1 Max Current Demand Time 23:45:26.762W2 Ia Demand 0.0 AW2 Ib Demand 0.0 AW2 Ic Demand 0.0 AW2 Max Current Demand 9.5 AW2 Max Current Demand Phase in phase BW2 Max Current Demand Date 10/4/2013W2 Max Current Demand Time 23:07:8.485

OTHERSFREQUENCYSystem Frequency 0.00 HzFrequency Decay Rate 0.00 Hz/s

VOLTAGESystem Line-to-Line Voltage 0.00 kVVolts-per-Hertz 0.00 V/HzLine-to-Ntrl Voltage Magnitude 0.00 kVLine-to-Ntrl Voltage Angle 0 °Lag

ANALOG INPUT.Analog Input 0 µA

AMBIENT TEMPERATURE.Ambient Temperature 0 °C

POWERPOWERW1 Real Power 0.0 MWW1 Reactive Power 0.0 MVARW1 Apparent Power 0.0 MVAW1 Power Factor 0.00W2 Real Power 0 MWW2 Reactive Power 0 MVARW2 Apparent Power 0 MVAW2 Power Factor 0.00

ENERGYENERGYEnergy Clear Date 10/11/2008Energy Clear Time 07:51:49.492W1 Source Watthours 39954.9 MWhW1 Load Watthours 47.8 MWhW1 Source Varhours 194681.6 MvarhW1 Load Varhours 0.0 MvarhW2 Source Watthours 165 MWhW2 Load Watthours 23632 MWhW2 Source Varhours 0 MvarhW2 Load Varhours 222066 Mvarh

PRODUCT INFOREVISION CODESHardware Revision HFirmware Revision 05 10Bootware Revision 03 00Installed Options W2-P5-G5-HI-A-E




REVISION CODES (continued from last page)Serial Number E3380954Manufacture Date 10/11/2008

CALIBRATIONDate of Original Calibration 10/11/2008Date of Last Calibration 10/11/2008

CIRCUITO “TR-3”

RELEVADOR “GE

MULTILIN 745”

AJUSTES FINALES

OCTUBRE 2013

Thu Sep 26 19:12:59 2013 Settings (Enabled Features) And Actual Values PAGE 1

UNIVEX745 _TRANSFORMER MANAGEMENT RELAY_DEVICE DEFINITION

ORDER CODE: 745-W2-P5-G5-HI-EVERSION: 4.0XDESCRIPTION: PROTECCIÓN TRAFO_INT. 52-CINTERFACE:COM5: 19200 N 8 1

745 SETUPPREFERENCESFlash Message Time 4.0 sDefault Message Timeout 300 sDefault Message Intensity 25 %

RESETTINGLocal Reset Block DisabledRemote Reset Signal Disabled

SCRATCHPADScratchpad Message 1 UNIVEX - TRANSFORMADOR T1Scratchpad Message 2 Text 2Scratchpad Message 3 Text 3Scratchpad Message 4 Text 4Scratchpad Message 5 Text 5

INSTALLATIONSR745 Setpoints ProgrammedClear Event Recorder Signal Disabled

SYSTEM SETUPTRANSFORMERSNominal Frequency 60 HzPhase Sequence ABCTransformer Type D/y30°Rated Winding Temperature Rise 55°C (oil)Type of Cooling: Oil Immersed OALoad Loss at Rated Load 1250 kWLow Voltage Winding Rating 1 kV to 5 kVNo-Load Loss 0.0 kWTop Oil Rise Over Ambient (at rated load) 0 °CTransformer Thermal Capacity 0.00 kWh/°CWinding Time Constant: Oil-Immersed 0.00 minutesType of Cooling: Dry Sealed Self CooledThermal Time Constant: Dry 0.00 minutesSet Initial Accumulated Loss of Life 0 hours x 10Frequency Tracking Enabled

WINDINGSWINDINGS 1W1 Nominal Phase-to-Phase Voltage 115.00 kVW1 Rated Load 10.00 MVAW1 Phase CT Primary 100 : 5 AW1 Series 3-Phase Resistance 10.700 Ohm

WINDINGS 2W2 Nominal Phase-to-Phase Voltage 4.16 kVW2 Rated Load 10.00 MVAW2 Phase CT Primary 2000 : 5 AW2 Ground CT Primary 1200 : 5 AW2 Series 3-Phase Resistance 2.100 Ohm

ONLOAD TAP CHANGERONLOAD TAP CHANGERWinding With Tap Changer NoneNumber of Tap Positions 33Minimum Tap Position Voltage 6.10 kVVoltage Increment Per Tap 0.050 kVResistance Increment Per Tap 33 Ohm

HARMONICS DERATINGHARMONIC DERATINGHarmonic Derating Estimation DisabledTHD Minimum Harmonic Number 2ndTHD Maximum Harmonic Number 21st

FLEXCURVESFLEXCURVE AFlexCurve A Delay at 1.03 x PKP 0 msFlexCurve A Delay at 1.05 x PKP 0 msFlexCurve A Delay at 1.10 x PKP 0 msFlexCurve A Delay at 1.20 x PKP 0 msFlexCurve A Delay at 1.30 x PKP 0 msFlexCurve A Delay at 1.40 x PKP 0 msFlexCurve A Delay at 1.50 x PKP 0 msFlexCurve A Delay at 1.60 x PKP 0 msFlexCurve A Delay at 1.70 x PKP 0 ms




FLEXCURVE A (continued from last page)FlexCurve A Delay at 1.80 x PKP 0 msFlexCurve A Delay at 1.90 x PKP 0 msFlexCurve A Delay at 2.00 x PKP 0 msFlexCurve A Delay at 2.10 x PKP 0 msFlexCurve A Delay at 2.20 x PKP 0 msFlexCurve A Delay at 2.30 x PKP 0 msFlexCurve A Delay at 2.40 x PKP 0 msFlexCurve A Delay at 2.50 x PKP 0 msFlexCurve A Delay at 2.60 x PKP 0 msFlexCurve A Delay at 2.70 x PKP 0 msFlexCurve A Delay at 2.80 x PKP 0 msFlexCurve A Delay at 2.90 x PKP 0 msFlexCurve A Delay at 3.00 x PKP 0 msFlexCurve A Delay at 3.10 x PKP 0 msFlexCurve A Delay at 3.20 x PKP 0 msFlexCurve A Delay at 3.30 x PKP 0 msFlexCurve A Delay at 3.40 x PKP 0 msFlexCurve A Delay at 3.50 x PKP 0 msFlexCurve A Delay at 3.60 x PKP 0 msFlexCurve A Delay at 3.70 x PKP 0 msFlexCurve A Delay at 3.80 x PKP 0 msFlexCurve A Delay at 3.90 x PKP 0 msFlexCurve A Delay at 4.00 x PKP 0 msFlexCurve A Delay at 4.10 x PKP 0 msFlexCurve A Delay at 4.20 x PKP 0 msFlexCurve A Delay at 4.30 x PKP 0 msFlexCurve A Delay at 4.40 x PKP 0 msFlexCurve A Delay at 4.50 x PKP 0 msFlexCurve A Delay at 4.60 x PKP 0 msFlexCurve A Delay at 4.70 x PKP 0 msFlexCurve A Delay at 4.80 x PKP 0 msFlexCurve A Delay at 4.90 x PKP 0 msFlexCurve A Delay at 5.00 x PKP 0 msFlexCurve A Delay at 5.10 x PKP 0 msFlexCurve A Delay at 5.20 x PKP 0 msFlexCurve A Delay at 5.30 x PKP 0 msFlexCurve A Delay at 5.40 x PKP 0 msFlexCurve A Delay at 5.50 x PKP 0 msFlexCurve A Delay at 5.60 x PKP 0 msFlexCurve A Delay at 5.70 x PKP 0 msFlexCurve A Delay at 5.80 x PKP 0 msFlexCurve A Delay at 5.90 x PKP 0 msFlexCurve A Delay at 6.00 x PKP 0 msFlexCurve A Delay at 6.50 x PKP 0 msFlexCurve A Delay at 7.00 x PKP 0 msFlexCurve A Delay at 7.50 x PKP 0 msFlexCurve A Delay at 8.00 x PKP 0 msFlexCurve A Delay at 8.50 x PKP 0 msFlexCurve A Delay at 9.00 x PKP 0 msFlexCurve A Delay at 9.50 x PKP 0 msFlexCurve A Delay at 10.00 x PKP 0 msFlexCurve A Delay at 10.50 x PKP 0 msFlexCurve A Delay at 11.00 x PKP 0 msFlexCurve A Delay at 11.50 x PKP 0 msFlexCurve A Delay at 12.00 x PKP 0 msFlexCurve A Delay at 12.50 x PKP 0 msFlexCurve A Delay at 13.00 x PKP 0 msFlexCurve A Delay at 13.50 x PKP 0 msFlexCurve A Delay at 14.00 x PKP 0 msFlexCurve A Delay at 14.50 x PKP 0 msFlexCurve A Delay at 15.00 x PKP 0 msFlexCurve A Delay at 15.50 x PKP 0 msFlexCurve A Delay at 16.00 x PKP 0 msFlexCurve A Delay at 16.50 x PKP 0 msFlexCurve A Delay at 17.00 x PKP 0 msFlexCurve A Delay at 17.50 x PKP 0 msFlexCurve A Delay at 18.00 x PKP 0 msFlexCurve A Delay at 18.50 x PKP 0 msFlexCurve A Delay at 19.00 x PKP 0 msFlexCurve A Delay at 19.50 x PKP 0 msFlexCurve A Delay at 20.00 x PKP 0 ms

FLEXCURVE BFlexCurve B Delay at 1.03 x PKP 0 msFlexCurve B Delay at 1.05 x PKP 0 msFlexCurve B Delay at 1.10 x PKP 0 msFlexCurve B Delay at 1.20 x PKP 0 ms




FLEXCURVE B (continued from last page)FlexCurve B Delay at 1.30 x PKP 0 msFlexCurve B Delay at 1.40 x PKP 0 msFlexCurve B Delay at 1.50 x PKP 0 msFlexCurve B Delay at 1.60 x PKP 0 msFlexCurve B Delay at 1.70 x PKP 0 msFlexCurve B Delay at 1.80 x PKP 0 msFlexCurve B Delay at 1.90 x PKP 0 msFlexCurve B Delay at 2.00 x PKP 0 msFlexCurve B Delay at 2.10 x PKP 0 msFlexCurve B Delay at 2.20 x PKP 0 msFlexCurve B Delay at 2.30 x PKP 0 msFlexCurve B Delay at 2.40 x PKP 0 msFlexCurve B Delay at 2.50 x PKP 0 msFlexCurve B Delay at 2.60 x PKP 0 msFlexCurve B Delay at 2.70 x PKP 0 msFlexCurve B Delay at 2.80 x PKP 0 msFlexCurve B Delay at 2.90 x PKP 0 msFlexCurve B Delay at 3.00 x PKP 0 msFlexCurve B Delay at 3.10 x PKP 0 msFlexCurve B Delay at 3.20 x PKP 0 msFlexCurve B Delay at 3.30 x PKP 0 msFlexCurve B Delay at 3.40 x PKP 0 msFlexCurve B Delay at 3.50 x PKP 0 msFlexCurve B Delay at 3.60 x PKP 0 msFlexCurve B Delay at 3.70 x PKP 0 msFlexCurve B Delay at 3.80 x PKP 0 msFlexCurve B Delay at 3.90 x PKP 0 msFlexCurve B Delay at 4.00 x PKP 0 msFlexCurve B Delay at 4.10 x PKP 0 msFlexCurve B Delay at 4.20 x PKP 0 msFlexCurve B Delay at 4.30 x PKP 0 msFlexCurve B Delay at 4.40 x PKP 0 msFlexCurve B Delay at 4.50 x PKP 0 msFlexCurve B Delay at 4.60 x PKP 0 msFlexCurve B Delay at 4.70 x PKP 0 msFlexCurve B Delay at 4.80 x PKP 0 msFlexCurve B Delay at 4.90 x PKP 0 msFlexCurve B Delay at 5.00 x PKP 0 msFlexCurve B Delay at 5.10 x PKP 0 msFlexCurve B Delay at 5.20 x PKP 0 msFlexCurve B Delay at 5.30 x PKP 0 msFlexCurve B Delay at 5.40 x PKP 0 msFlexCurve B Delay at 5.50 x PKP 0 msFlexCurve B Delay at 5.60 x PKP 0 msFlexCurve B Delay at 5.70 x PKP 0 msFlexCurve B Delay at 5.80 x PKP 0 msFlexCurve B Delay at 5.90 x PKP 0 msFlexCurve B Delay at 6.00 x PKP 0 msFlexCurve B Delay at 6.50 x PKP 0 msFlexCurve B Delay at 7.00 x PKP 0 msFlexCurve B Delay at 7.50 x PKP 0 msFlexCurve B Delay at 8.00 x PKP 0 msFlexCurve B Delay at 8.50 x PKP 0 msFlexCurve B Delay at 9.00 x PKP 0 msFlexCurve B Delay at 9.50 x PKP 0 msFlexCurve B Delay at 10.00 x PKP 0 msFlexCurve B Delay at 10.50 x PKP 0 msFlexCurve B Delay at 11.00 x PKP 0 msFlexCurve B Delay at 11.50 x PKP 0 msFlexCurve B Delay at 12.00 x PKP 0 msFlexCurve B Delay at 12.50 x PKP 0 msFlexCurve B Delay at 13.00 x PKP 0 msFlexCurve B Delay at 13.50 x PKP 0 msFlexCurve B Delay at 14.00 x PKP 0 msFlexCurve B Delay at 14.50 x PKP 0 msFlexCurve B Delay at 15.00 x PKP 0 msFlexCurve B Delay at 15.50 x PKP 0 msFlexCurve B Delay at 16.00 x PKP 0 msFlexCurve B Delay at 16.50 x PKP 0 msFlexCurve B Delay at 17.00 x PKP 0 msFlexCurve B Delay at 17.50 x PKP 0 msFlexCurve B Delay at 18.00 x PKP 0 msFlexCurve B Delay at 18.50 x PKP 0 msFlexCurve B Delay at 19.00 x PKP 0 msFlexCurve B Delay at 19.50 x PKP 0 msFlexCurve B Delay at 20.00 x PKP 0 ms




FLEXCURVE CFlexCurve C Delay at 1.03 x PKP 0 msFlexCurve C Delay at 1.05 x PKP 0 msFlexCurve C Delay at 1.10 x PKP 0 msFlexCurve C Delay at 1.20 x PKP 0 msFlexCurve C Delay at 1.30 x PKP 0 msFlexCurve C Delay at 1.40 x PKP 0 msFlexCurve C Delay at 1.50 x PKP 0 msFlexCurve C Delay at 1.60 x PKP 0 msFlexCurve C Delay at 1.70 x PKP 0 msFlexCurve C Delay at 1.80 x PKP 0 msFlexCurve C Delay at 1.90 x PKP 0 msFlexCurve C Delay at 2.00 x PKP 0 msFlexCurve C Delay at 2.10 x PKP 0 msFlexCurve C Delay at 2.20 x PKP 0 msFlexCurve C Delay at 2.30 x PKP 0 msFlexCurve C Delay at 2.40 x PKP 0 msFlexCurve C Delay at 2.50 x PKP 0 msFlexCurve C Delay at 2.60 x PKP 0 msFlexCurve C Delay at 2.70 x PKP 0 msFlexCurve C Delay at 2.80 x PKP 0 msFlexCurve C Delay at 2.90 x PKP 0 msFlexCurve C Delay at 3.00 x PKP 0 msFlexCurve C Delay at 3.10 x PKP 0 msFlexCurve C Delay at 3.20 x PKP 0 msFlexCurve C Delay at 3.30 x PKP 0 msFlexCurve C Delay at 3.40 x PKP 0 msFlexCurve C Delay at 3.50 x PKP 0 msFlexCurve C Delay at 3.60 x PKP 0 msFlexCurve C Delay at 3.70 x PKP 0 msFlexCurve C Delay at 3.80 x PKP 0 msFlexCurve C Delay at 3.90 x PKP 0 msFlexCurve C Delay at 4.00 x PKP 0 msFlexCurve C Delay at 4.10 x PKP 0 msFlexCurve C Delay at 4.20 x PKP 0 msFlexCurve C Delay at 4.30 x PKP 0 msFlexCurve C Delay at 4.40 x PKP 0 msFlexCurve C Delay at 4.50 x PKP 0 msFlexCurve C Delay at 4.60 x PKP 0 msFlexCurve C Delay at 4.70 x PKP 0 msFlexCurve C Delay at 4.80 x PKP 0 msFlexCurve C Delay at 4.90 x PKP 0 msFlexCurve C Delay at 5.00 x PKP 0 msFlexCurve C Delay at 5.10 x PKP 0 msFlexCurve C Delay at 5.20 x PKP 0 msFlexCurve C Delay at 5.30 x PKP 0 msFlexCurve C Delay at 5.40 x PKP 0 msFlexCurve C Delay at 5.50 x PKP 0 msFlexCurve C Delay at 5.60 x PKP 0 msFlexCurve C Delay at 5.70 x PKP 0 msFlexCurve C Delay at 5.80 x PKP 0 msFlexCurve C Delay at 5.90 x PKP 0 msFlexCurve C Delay at 6.00 x PKP 0 msFlexCurve C Delay at 6.50 x PKP 0 msFlexCurve C Delay at 7.00 x PKP 0 msFlexCurve C Delay at 7.50 x PKP 0 msFlexCurve C Delay at 8.00 x PKP 0 msFlexCurve C Delay at 8.50 x PKP 0 msFlexCurve C Delay at 9.00 x PKP 0 msFlexCurve C Delay at 9.50 x PKP 0 msFlexCurve C Delay at 10.00 x PKP 0 msFlexCurve C Delay at 10.50 x PKP 0 msFlexCurve C Delay at 11.00 x PKP 0 msFlexCurve C Delay at 11.50 x PKP 0 msFlexCurve C Delay at 12.00 x PKP 0 msFlexCurve C Delay at 12.50 x PKP 0 msFlexCurve C Delay at 13.00 x PKP 0 msFlexCurve C Delay at 13.50 x PKP 0 msFlexCurve C Delay at 14.00 x PKP 0 msFlexCurve C Delay at 14.50 x PKP 0 msFlexCurve C Delay at 15.00 x PKP 0 msFlexCurve C Delay at 15.50 x PKP 0 msFlexCurve C Delay at 16.00 x PKP 0 msFlexCurve C Delay at 16.50 x PKP 0 msFlexCurve C Delay at 17.00 x PKP 0 msFlexCurve C Delay at 17.50 x PKP 0 msFlexCurve C Delay at 18.00 x PKP 0 msFlexCurve C Delay at 18.50 x PKP 0 ms




FLEXCURVE C (continued from last page)FlexCurve C Delay at 19.00 x PKP 0 msFlexCurve C Delay at 19.50 x PKP 0 msFlexCurve C Delay at 20.00 x PKP 0 ms

VOLTAGE INPUTVOLTAGE INPUTVoltage Sensing EnabledVoltage Input Parameter W2 VabNominal VT Secondary Voltage 120.0 VVT Ratio 35 :1

AMBIENT TEMPERATUREAMBIENT TEMPERATUREAmbient Temperature Sensing DisabledAmbient RTD Type 100 ohm Platinum

DEMAND METERINGDEMAND METERINGCurrent Demand Meter Type ThermalThermal 90% Response Time 15 min

LOGIC INPUTLOGIC INPUTS.Logic Input 1 Function DisabledLogic Input 2 Function DisabledLogic Input 3 Function DisabledLogic Input 4 Function DisabledLogic Input 5 Function DisabledLogic Input 6 Function DisabledLogic Input 7 Function DisabledLogic Input 8 Function DisabledLogic Input 9 Function DisabledLogic Input 10 Function DisabledLogic Input 11 Function DisabledLogic Input 12 Function DisabledLogic Input 13 Function DisabledLogic Input 14 Function DisabledLogic Input 15 Function DisabledLogic Input 16 Function DisabledLogic Input 1 Name Logic Input 1Logic Input 2 Name Logic Input 2Logic Input 3 Name Logic Input 3Logic Input 4 Name Logic Input 4Logic Input 5 Name Logic Input 5Logic Input 6 Name Logic Input 6Logic Input 7 Name Logic Input 7Logic Input 8 Name Logic Input 8Logic Input 9 Name Logic Input 9Logic Input 10 Name Logic Input 10Logic Input 11 Name Logic Input 11Logic Input 12 Name Logic Input 12Logic Input 13 Name Logic Input 13Logic Input 14 Name Logic Input 14Logic Input 15 Name Logic Input 15Logic Input 16 Name Logic Input 16Logic Input 1 Asserted State ClosedLogic Input 2 Asserted State ClosedLogic Input 3 Asserted State ClosedLogic Input 4 Asserted State ClosedLogic Input 5 Asserted State ClosedLogic Input 6 Asserted State ClosedLogic Input 7 Asserted State ClosedLogic Input 8 Asserted State ClosedLogic Input 9 Asserted State ClosedLogic Input 10 Asserted State ClosedLogic Input 11 Asserted State ClosedLogic Input 12 Asserted State ClosedLogic Input 13 Asserted State ClosedLogic Input 14 Asserted State ClosedLogic Input 15 Asserted State ClosedLogic Input 16 Asserted State ClosedLogic Input 1 Target Self-resetLogic Input 2 Target Self-resetLogic Input 3 Target Self-resetLogic Input 4 Target Self-resetLogic Input 5 Target Self-resetLogic Input 6 Target Self-reset




LOGIC INPUTS. (continued from last page)Logic Input 7 Target Self-resetLogic Input 8 Target Self-resetLogic Input 9 Target Self-resetLogic Input 10 Target Self-resetLogic Input 11 Target Self-resetLogic Input 12 Target Self-resetLogic Input 13 Target Self-resetLogic Input 14 Target Self-resetLogic Input 15 Target Self-resetLogic Input 16 Target Self-reset

VIRTUAL INPUTS.Virtual Input 1 Function DisabledVirtual Input 2 Function DisabledVirtual Input 3 Function DisabledVirtual Input 4 Function DisabledVirtual Input 5 Function DisabledVirtual Input 6 Function DisabledVirtual Input 7 Function DisabledVirtual Input 8 Function DisabledVirtual Input 9 Function DisabledVirtual Input 10 Function DisabledVirtual Input 11 Function DisabledVirtual Input 12 Function DisabledVirtual Input 13 Function DisabledVirtual Input 14 Function DisabledVirtual Input 15 Function DisabledVirtual Input 16 Function DisabledVirtual Input 1 Target Self-resetVirtual Input 2 Target Self-resetVirtual Input 3 Target Self-resetVirtual Input 4 Target Self-resetVirtual Input 5 Target Self-resetVirtual Input 6 Target Self-resetVirtual Input 7 Target Self-resetVirtual Input 8 Target Self-resetVirtual Input 9 Target Self-resetVirtual Input 10 Target Self-resetVirtual Input 11 Target Self-resetVirtual Input 12 Target Self-resetVirtual Input 13 Target Self-resetVirtual Input 14 Target Self-resetVirtual Input 15 Target Self-resetVirtual Input 16 Target Self-resetVirtual Input 1 Name Virtual Input 1Virtual Input 2 Name Virtual Input 2Virtual Input 3 Name Virtual Input 3Virtual Input 4 Name Virtual Input 4Virtual Input 5 Name Virtual Input 5Virtual Input 6 Name Virtual Input 6Virtual Input 7 Name Virtual Input 7Virtual Input 8 Name Virtual Input 8Virtual Input 9 Name Virtual Input 9Virtual Input 10 Name Virtual Input 10Virtual Input 11 Name Virtual Input 11Virtual Input 12 Name Virtual Input 12Virtual Input 13 Name Virtual Input 13Virtual Input 14 Name Virtual Input 14Virtual Input 15 Name Virtual Input 15Virtual Input 16 Name Virtual Input 16Virtual Input 1 Not AssertedVirtual Input 2 Not AssertedVirtual Input 3 Not AssertedVirtual Input 4 Not AssertedVirtual Input 5 Not AssertedVirtual Input 6 Not AssertedVirtual Input 7 Not AssertedVirtual Input 8 Not AssertedVirtual Input 9 Not AssertedVirtual Input 10 Not AssertedVirtual Input 11 Not AssertedVirtual Input 12 Not AssertedVirtual Input 13 Not AssertedVirtual Input 14 Not AssertedVirtual Input 15 Not AssertedVirtual Input 16 Not Asserted




ELEMENTSSETPOINT GROUP.Active Setpoint Group Group 1Edit Setpoint Group Active GroupSetpoint Group 2 Activate Signal DisabledSetpoint Group 3 Activate Signal DisabledSetpoint Group 4 Activate Signal Disabled

OUTPUTSOUTPUT RELAYSRELAY 1Output 1 Name Solid State TripOutput 1 Operation Self-resettingOutput 1 Type TripOutput 1 FlexLogic 1 Inst Differential PickupOutput 1 FlexLogic 2 Percent Differential OperateOutput 1 FlexLogic 3 Any W1 OC OperateOutput 1 FlexLogic 4 Any W2 OC OperateOutput 1 FlexLogic 5 OR (4 inputs)Output 1 FlexLogic 6 ENDOutput 1 FlexLogic 7 ENDOutput 1 FlexLogic 8 ENDOutput 1 FlexLogic 9 ENDOutput 1 FlexLogic 10 ENDOutput 1 FlexLogic 11 ENDOutput 1 FlexLogic 12 ENDOutput 1 FlexLogic 13 ENDOutput 1 FlexLogic 14 ENDOutput 1 FlexLogic 15 ENDOutput 1 FlexLogic 16 ENDOutput 1 FlexLogic 17 ENDOutput 1 FlexLogic 18 ENDOutput 1 FlexLogic 19 ENDOutput 1 FlexLogic 20 END

RELAY 2Output 2 Name Trip 1Output 2 Operation LatchedOutput 2 Type TripOutput 2 FlexLogic 1 Any W1 OC OperateOutput 2 FlexLogic 2 ENDOutput 2 FlexLogic 3 ENDOutput 2 FlexLogic 4 ENDOutput 2 FlexLogic 5 ENDOutput 2 FlexLogic 6 ENDOutput 2 FlexLogic 7 ENDOutput 2 FlexLogic 8 ENDOutput 2 FlexLogic 9 ENDOutput 2 FlexLogic 10 ENDOutput 2 FlexLogic 11 ENDOutput 2 FlexLogic 12 ENDOutput 2 FlexLogic 13 ENDOutput 2 FlexLogic 14 ENDOutput 2 FlexLogic 15 ENDOutput 2 FlexLogic 16 ENDOutput 2 FlexLogic 17 ENDOutput 2 FlexLogic 18 ENDOutput 2 FlexLogic 19 ENDOutput 2 FlexLogic 20 END

RELAY 3Output 3 Name Trip 2Output 3 Operation LatchedOutput 3 Type TripOutput 3 FlexLogic 1 Any W2 OC OperateOutput 3 FlexLogic 2 ENDOutput 3 FlexLogic 3 ENDOutput 3 FlexLogic 4 ENDOutput 3 FlexLogic 5 ENDOutput 3 FlexLogic 6 ENDOutput 3 FlexLogic 7 ENDOutput 3 FlexLogic 8 ENDOutput 3 FlexLogic 9 ENDOutput 3 FlexLogic 10 ENDOutput 3 FlexLogic 11 ENDOutput 3 FlexLogic 12 ENDOutput 3 FlexLogic 13 ENDOutput 3 FlexLogic 14 END




RELAY 3 (continued from last page)Output 3 FlexLogic 15 ENDOutput 3 FlexLogic 16 ENDOutput 3 FlexLogic 17 ENDOutput 3 FlexLogic 18 ENDOutput 3 FlexLogic 19 ENDOutput 3 FlexLogic 20 END

RELAY 4Output 4 Name TRIP GNDOutput 4 Operation LatchedOutput 4 Type TripOutput 4 FlexLogic 1 W2 Ground Time OC OperateOutput 4 FlexLogic 2 ENDOutput 4 FlexLogic 3 ENDOutput 4 FlexLogic 4 ENDOutput 4 FlexLogic 5 ENDOutput 4 FlexLogic 6 ENDOutput 4 FlexLogic 7 ENDOutput 4 FlexLogic 8 ENDOutput 4 FlexLogic 9 ENDOutput 4 FlexLogic 10 ENDOutput 4 FlexLogic 11 ENDOutput 4 FlexLogic 12 ENDOutput 4 FlexLogic 13 ENDOutput 4 FlexLogic 14 ENDOutput 4 FlexLogic 15 ENDOutput 4 FlexLogic 16 ENDOutput 4 FlexLogic 17 ENDOutput 4 FlexLogic 18 ENDOutput 4 FlexLogic 19 ENDOutput 4 FlexLogic 20 END

RELAY 5Output 5 Name TRIP 86/87Output 5 Operation LatchedOutput 5 Type TripOutput 5 FlexLogic 1 Percent Differential OperateOutput 5 FlexLogic 2 ENDOutput 5 FlexLogic 3 ENDOutput 5 FlexLogic 4 ENDOutput 5 FlexLogic 5 ENDOutput 5 FlexLogic 6 ENDOutput 5 FlexLogic 7 ENDOutput 5 FlexLogic 8 ENDOutput 5 FlexLogic 9 ENDOutput 5 FlexLogic 10 ENDOutput 5 FlexLogic 11 ENDOutput 5 FlexLogic 12 ENDOutput 5 FlexLogic 13 ENDOutput 5 FlexLogic 14 ENDOutput 5 FlexLogic 15 ENDOutput 5 FlexLogic 16 ENDOutput 5 FlexLogic 17 ENDOutput 5 FlexLogic 18 ENDOutput 5 FlexLogic 19 ENDOutput 5 FlexLogic 20 END

RELAY 6Output 6 Name ALARM OC W1Output 6 Operation LatchedOutput 6 Type AlarmOutput 6 FlexLogic 1 Any W1 OC OperateOutput 6 FlexLogic 2 ENDOutput 6 FlexLogic 3 ENDOutput 6 FlexLogic 4 ENDOutput 6 FlexLogic 5 ENDOutput 6 FlexLogic 6 ENDOutput 6 FlexLogic 7 ENDOutput 6 FlexLogic 8 ENDOutput 6 FlexLogic 9 ENDOutput 6 FlexLogic 10 ENDOutput 6 FlexLogic 11 ENDOutput 6 FlexLogic 12 ENDOutput 6 FlexLogic 13 ENDOutput 6 FlexLogic 14 ENDOutput 6 FlexLogic 15 ENDOutput 6 FlexLogic 16 END




RELAY 6 (continued from last page)Output 6 FlexLogic 17 ENDOutput 6 FlexLogic 18 ENDOutput 6 FlexLogic 19 ENDOutput 6 FlexLogic 20 END

RELAY 7Output 7 Name ALARM GND W2Output 7 Operation LatchedOutput 7 Type AlarmOutput 7 FlexLogic 1 W2 Ground Time OC OperateOutput 7 FlexLogic 2 ENDOutput 7 FlexLogic 3 ENDOutput 7 FlexLogic 4 ENDOutput 7 FlexLogic 5 ENDOutput 7 FlexLogic 6 ENDOutput 7 FlexLogic 7 ENDOutput 7 FlexLogic 8 ENDOutput 7 FlexLogic 9 ENDOutput 7 FlexLogic 10 ENDOutput 7 FlexLogic 11 ENDOutput 7 FlexLogic 12 ENDOutput 7 FlexLogic 13 ENDOutput 7 FlexLogic 14 ENDOutput 7 FlexLogic 15 ENDOutput 7 FlexLogic 16 ENDOutput 7 FlexLogic 17 ENDOutput 7 FlexLogic 18 ENDOutput 7 FlexLogic 19 ENDOutput 7 FlexLogic 20 END

RELAY 8Output 8 Name ALARM OC W2Output 8 Operation LatchedOutput 8 Type AlarmOutput 8 FlexLogic 1 Any W2 OC OperateOutput 8 FlexLogic 2 ENDOutput 8 FlexLogic 3 ENDOutput 8 FlexLogic 4 ENDOutput 8 FlexLogic 5 ENDOutput 8 FlexLogic 6 ENDOutput 8 FlexLogic 7 ENDOutput 8 FlexLogic 8 ENDOutput 8 FlexLogic 9 ENDOutput 8 FlexLogic 10 ENDOutput 8 FlexLogic 11 ENDOutput 8 FlexLogic 12 ENDOutput 8 FlexLogic 13 ENDOutput 8 FlexLogic 14 ENDOutput 8 FlexLogic 15 ENDOutput 8 FlexLogic 16 ENDOutput 8 FlexLogic 17 ENDOutput 8 FlexLogic 18 ENDOutput 8 FlexLogic 19 ENDOutput 8 FlexLogic 20 END

TRACE MEMORYNumber of Pre-Trigger Cycles 12 cyclesTrace Memory Trigger FlexLogic 1 Any Element PickupTrace Memory Trigger FlexLogic 2 ENDTrace Memory Trigger FlexLogic 3 ENDTrace Memory Trigger FlexLogic 4 ENDTrace Memory Trigger FlexLogic 5 ENDTrace Memory Trigger FlexLogic 6 ENDTrace Memory Trigger FlexLogic 7 ENDTrace Memory Trigger FlexLogic 8 ENDTrace Memory Trigger FlexLogic 9 ENDTrace Memory Trigger FlexLogic 10 END

VIRTUAL OUTPUTSVIRTUAL OUTPUT 1Virtual Output 1 FlexLogic 1 ENDVirtual Output 1 FlexLogic 2 ENDVirtual Output 1 FlexLogic 3 ENDVirtual Output 1 FlexLogic 4 ENDVirtual Output 1 FlexLogic 5 ENDVirtual Output 1 FlexLogic 6 ENDVirtual Output 1 FlexLogic 7 END




VIRTUAL OUTPUT 1 (continued from last page)Virtual Output 1 FlexLogic 8 ENDVirtual Output 1 FlexLogic 9 ENDVirtual Output 1 FlexLogic 10 END

VIRTUAL OUTPUT 2Virtual Output 2 FlexLogic 1 ENDVirtual Output 2 FlexLogic 2 ENDVirtual Output 2 FlexLogic 3 ENDVirtual Output 2 FlexLogic 4 ENDVirtual Output 2 FlexLogic 5 ENDVirtual Output 2 FlexLogic 6 ENDVirtual Output 2 FlexLogic 7 ENDVirtual Output 2 FlexLogic 8 ENDVirtual Output 2 FlexLogic 9 ENDVirtual Output 2 FlexLogic 10 END




TIMERSTIMER 1Timer 1 Start ENDTimer 1 Pickup Delay 0.00 sTimer 1 Dropout Delay 0.00 s

TIMER 2Timer 2 Start ENDTimer 2 Pickup Delay 0.00 sTimer 2 Dropout Delay 0.00 s












ELEMENTSDIFFERENTIAL[SETPOINT GROUP 1]PERCENT DIFFERNTIAL[SETPOINT GROUP 1]Percent Differential Function EnabledPercent Differential Target LatchedPercent Differential Pickup 0.20 x CTPercent Differential Slope 1 25 %Percent Differential Break Point 2.5 x CTPercent Differential Slope 2 100 %Percent Differential Block Disabled

HARMONIC INHIBIT[SETPOINT GROUP 1]Harmonic Inhibit Function EnabledHarmonic Inhibit Parameters 2nd+5thHarmonic Averaging DisabledHarmonic Inhibit Level 15.0 % fo

ENERGIZATION INHIBIT[SETPOINT GROUP 1]Energization Inhibit Function EnabledEnergization Inhibit Parameters 2nd+5thHarmonic Averaging (energization inhibit) EnabledEnergization Inhibit Level 15.0 % foEnergization Inhibit Duration 0.10 s

ENERGIZATION SENSING[SETPOINT GROUP 1]Energization Sensing By Current DisabledMinimum Energization Current 0.10 x CTEnergization Sensing By Voltage EnabledMinimum Energization Voltage 0.85 VTBreakers Are Open Signal DisabledParallel Transformer Breaker Close Signal Disabled

5TH HARMONIC INHIBIT[SETPOINT GROUP 1]5th Harmonic Inhibit Function DisabledHarmonic Averaging (5th Harmonic) Disabled5th Harmonic Inhibit Level 10.0 % fo

INSTANTANEOUS DIFFERENTIAL[SETPOINT GROUP 1]Inst Differential Function EnabledInst Differential Target LatchedInst Differential Pickup 8.00 x CTInst Differential Block Disabled

PHASE OVERCURRENT[SETPOINT GROUP 1]W1 PHASE TIME OC[SETPOINT GROUP 1]W1 Phase TOC Function EnabledW1 Phase TOC Target LatchedW1 Phase TOC Pickup 1.20 x CTW1 Phase TOC Shape Ext InverseW1 Phase TOC Multiplier 4.00W1 Phase TOC Reset InstantaneousW1 Phase TOC Block Disabled




W2 PHASE TIME OC[SETPOINT GROUP 1]W2 Phase TOC Function EnabledW2 Phase TOC Target LatchedW2 Phase TOC Pickup 1.40 x CTW2 Phase TOC Shape Ext InverseW2 Phase TOC Multiplier 3.00W2 Phase TOC Reset InstantaneousW2 Phase TOC Block Disabled

W1 PHASE INST OC 1[SETPOINT GROUP 1]W1 Phase IOC1 Function EnabledW1 Phase IOC1 Target LatchedW1 Phase IOC1 Pickup 8.00 x CTW1 Phase IOC1 Delay 100 msW1 Phase IOC1 Block Disabled


W1 PHASE INST OC 2[SETPOINT GROUP 1]W1 Phase IOC2 Function DisabledW1 Phase IOC2 Target LatchedW1 Phase IOC2 Pickup 10.00 x CTW1 Phase IOC2 Delay 0 msW1 Phase IOC2 Block Disabled

W2 PHASE INST OC 2[SETPOINT GROUP 1]W2 Phase IOC2 Function DisabledW2 Phase IOC2 Target LatchedW2 Phase IOC2 Pickup 10.00 x CTW2 Phase IOC2 Delay 0 msW2 Phase IOC2 Block Disabled

NEUTRAL OVERCURRENT[SETPOINT GROUP 1]W1 NEUTRAL TIME OC[SETPOINT GROUP 1]W1 Neutral TOC Function EnabledW1 Neutral TOC Target LatchedW1 Neutral TOC Pickup 1.00 x CTW1 Neutral TOC Shape Definite TimeW1 Neutral TOC Multiplier 0.05W1 Neutral TOC Reset LinearW1 Neutral TOC Block Disabled

W2 NEUTRAL TIME OC[SETPOINT GROUP 1]W2 Neutral TOC Function EnabledW2 Neutral TOC Target LatchedW2 Neutral TOC Pickup 0.12 x CTW2 Neutral TOC Shape Mod InverseW2 Neutral TOC Multiplier 1.40W2 Neutral TOC Reset LinearW2 Neutral TOC Block Disabled

W1 NEUTRAL INST OC 1[SETPOINT GROUP 1]W1 Neutral O/C 1 Function DisabledW1 Neutral IOC1 Target LatchedW1 Neutral IOC1 Pickup 1.00 x CTW1 Neutral IOC1 Delay 50 msW1 Neutral IOC1 Block Disabled

W2 NEUTRAL INST OC 1[SETPOINT GROUP 1]W2 Neutral O/C 1 Function EnabledW2 Neutral IOC1 Target LatchedW2 Neutral IOC1 Pickup 0.33 x CTW2 Neutral IOC1 Delay 900 msW2 Neutral IOC1 Block Disabled






W2 GROUND TIME OC[SETPOINT GROUP 1]W2 Ground TOC Function EnabledW2 Ground TOC Target LatchedW2 Ground TOC Pickup 0.20 x CTW2 Ground TOC Shape Mod InverseW2 Ground TOC Multiplier 1.30W2 Ground TOC Reset LinearW2 Ground TOC Block Disabled

W2 GROUND INST OC 1[SETPOINT GROUP 1]W2 Ground IOC1 Function EnabledW2 Ground IOC1 Target LatchedW2 Ground IOC1 Pickup 0.60 x CTW2 Ground IOC1 Delay 900 msW2 Ground IOC1 Block Disabled

W2 GROUND INST OC 2[SETPOINT GROUP 1]W2 Ground IOC2 Function DisabledW2 Ground IOC2 Target LatchedW2 Ground IOC2 Pickup 10.00 x CTW2 Ground IOC2 Delay 0 msW2 Ground IOC2 Block Disabled

NEGATIVE SEQUENCE OVECURRENT[SETPOINT GROUP 1]W1 NEG SEQ TIME OC[SETPOINT GROUP 1]W1 Neg Seq TOC Function DisabledW1 Neg Seq TOC Target LatchedW1 Neg Seq TOC Pickup 0.25 x CTW1 Neg Seq TOC Shape Ext InverseW1 Neg Seq TOC Multiplier 1.00W1 Neg Seq TOC Reset LinearW1 Neg Seq TOC Block Disabled

W2 NEG SEQ TIME OC[SETPOINT GROUP 1]W2 Neg Seq TOC Function DisabledW2 Neg Seq TOC Target LatchedW2 Neg Seq TOC Pickup 0.25 x CTW2 Neg Seq TOC Shape Ext InverseW2 Neg Seq TOC Multiplier 1.00W2 Neg Seq TOC Reset LinearW2 Neg Seq TOC Block Disabled

W1 NEG SEQ INST OC[SETPOINT GROUP 1]W1 Neg Seq IOC Function DisabledW1 Neg Seq IOC Target LatchedW1 Neg Seq IOC Pickup 10.00 x CTW1 Neg Seq IOC Delay 0 msW1 Neg Seq IOC Block Disabled


FREQUENCY[SETPOINT GROUP 1]UNDERFREQUENCY 1[SETPOINT GROUP 1]: Underfrequency 1 Function Disabled: Underfrequency 1 Target Self-reset: Underfrequency 1 Minimum Operating Current 0.20 x CT: Underfrequency 1 Pickup 59.00 Hz: Underfrequency 1 Delay 1.00 s: Underfrequency 1 Block Disabled: Underfrequency 1 Current Sensing Enabled: Underfrequency 1 Minimum Operating Voltage 0.50 VT

UNDERFREQUENCY 2[SETPOINT GROUP 1]: Underfrequency 2 Function Disabled: Underfrequency 2 Target Latched: Underfrequency 2 Minimum Operating Current 0.20 x CT




UNDERFREQUENCY 2[SETPOINT GROUP 1] (continued from last page): Underfrequency 2 Pickup 58.80 Hz: Underfrequency 2 Delay 0.10 s: Underfrequency 2 Block Disabled: Underfrequency 2 Current Sensing Enabled: Underfrequency 2 Minimum Operating Voltage 0.50 VT

FREQUENCY DECAY[SETPOINT GROUP 1]: Frequency Decay Function Disabled: Frequency Decay Target Latched: Frequency Decay Minimum Operating Current 0.20 x CT: Frequency Decay Threshold 59.50 Hz: Frequency Decay Rate 1 0.4 Hz/s: Frequency Decay Rate 2 1.0 Hz/s: Frequency Decay Rate 3 2.0 Hz/s: Frequency Decay Rate 4 4.0 Hz/s: Frequency Decay Block Disabled: Frequency Decay Current Sensing Enabled: Frequency Decay Minimum Operating Voltage 0.50 VT: Frequency Decay Delay 0.00 s

OVERFREQUENCY[SETPOINT GROUP 1]: Overfrequency Function Disabled: Overfrequency Target Latched: Overfrequency Minimum Operating Current 0.20 x CT: Overfrequency Pickup 60.50 Hz: Overfrequency Delay 5.00 s: Overfrequency Block Disabled: Overfrequency Current Sensing Enabled: Overfrequency Minimum Operating Voltage 0.50 VT

OVEREXCITATION[SETPOINT GROUP 1]5TH HARMONIC LEVEL[SETPOINT GROUP 1]5th Harmonic Level Function Disabled5th Harmonic Level Target Self-reset5th Harmonic Level Minimum Operating Current 0.10 x CT5th Harmonic Level Pickup 10.0 % fo5th Harmonic Level Delay 10 s5th Harmonic Level Block Disabled

VOLTS-PER-HERTZ 1[SETPOINT GROUP 1]Volts-Per-Hertz 1 Function DisabledVolts-Per-Hertz 1 Target Self-resetVolts-Per-Hertz 1 Minimum Operating Voltage 0.10 VTVolts-Per-Hertz 1 Pickup 2.36 V/HzVolts-Per-Hertz 1 Shape Definite TimeVolts-Per-Hertz 1 Delay 2.00 sVolts-Per-Hertz 1 Reset 0.0 sVolts-Per-Hertz 1 Block Disabled

VOLTS-PER-HERTZ 2[SETPOINT GROUP 1]Volts-Per-Hertz 2 Function DisabledVolts-Per-Hertz 2 Target LatchedVolts-Per-Hertz 2 Minimum Operating Voltage 0.10 VTVolts-Per-Hertz 2 Pickup 2.14 V/HzVolts-Per-Hertz 2 Shape Definite TimeVolts-Per-Hertz 2 Delay 45.00 sVolts-Per-Hertz 2 Reset 0.0 sVolts-Per-Hertz 2 Block Disabled

HARMONICS[SETPOINT GROUP 1]WINDING 1 THD LEVEL[SETPOINT GROUP 1]W1 THD Level Function DisabledW1 THD Level Target Self-resetW1 THD Level Minimum Operating Current 0.10 x CTW1 THD Level Pickup 50.0 % foW1 THD Level Delay 10 sW1 THD Level Block Disabled

WINDING 2 THD LEVEL[SETPOINT GROUP 1]W2 THD Level Function DisabledW2 THD Level Target Self-resetW2 THD Level Minimum Operating Current 0.10 x CTW2 THD Level Pickup 50.0 % foW2 THD Level Delay 10 sW2 THD Level Block Disabled

CURRENT DEMAND[SETPOINT GROUP 1]




W1 CURRENT DEMAND[SETPOINT GROUP 1]W1 Current Demand Function DisabledW1 Current Demand Target Self-resetW1 Current Demand Pickup 100 AW1 Current Demand Block Disabled


TRANSFORMER OVERLOAD[SETPOINT GROUP 1]TRANSFORMER OVERLOAD[SETPOINT GROUP 1]Transformer Overload Function DisabledTransformer Overload Target Self-resetTransformer Overload Pickup 208 % ratedTransformer Overload Delay 10 sTransformer Overload Block DisabledTransformer Overtemperature Alarm Signal Disabled

TAP CHANGER FAILURE[SETPOINT GROUP 1]Tap Changing Failure Function DisabledTap Changer Failure Target Self-resetTap Changer Failure Delay 5.00 sTap Changer Failure Block Disabled

DIFFERENTIAL[SETPOINT GROUP 2]PERCENT DIFFERNTIAL[SETPOINT GROUP 2]Percent Differential Function EnabledPercent Differential Target LatchedPercent Differential Pickup 0.30 x CTPercent Differential Slope 1 25 %Percent Differential Break Point 2.0 x CTPercent Differential Slope 2 100 %Percent Differential Block Disabled

HARMONIC INHIBIT[SETPOINT GROUP 2]Harmonic Inhibit Function EnabledHarmonic Inhibit Parameters 2ndHarmonic Averaging DisabledHarmonic Inhibit Level 20.0 % fo


ENERGIZATION SENSING[SETPOINT GROUP 2]Energization Sensing By Current EnabledMinimum Energization Current 0.10 x CTEnergization Sensing By Voltage DisabledMinimum Energization Voltage 0.85 VTBreakers Are Open Signal DisabledParallel Transformer Breaker Close Signal Disabled



PHASE OVERCURRENT[SETPOINT GROUP 2]W1 PHASE TIME OC[SETPOINT GROUP 2]W1 Phase TOC Function EnabledW1 Phase TOC Target LatchedW1 Phase TOC Pickup 1.20 x CTW1 Phase TOC Shape Ext InverseW1 Phase TOC Multiplier 1.00W1 Phase TOC Reset LinearW1 Phase TOC Block Disabled




W2 PHASE TIME OC[SETPOINT GROUP 2]W2 Phase TOC Function EnabledW2 Phase TOC Target LatchedW2 Phase TOC Pickup 1.20 x CTW2 Phase TOC Shape Ext InverseW2 Phase TOC Multiplier 1.00W2 Phase TOC Reset LinearW2 Phase TOC Block Disabled





NEUTRAL OVERCURRENT[SETPOINT GROUP 2]W1 NEUTRAL TIME OC[SETPOINT GROUP 2]W1 Neutral TOC Function EnabledW1 Neutral TOC Target LatchedW1 Neutral TOC Pickup 0.85 x CTW1 Neutral TOC Shape Ext InverseW1 Neutral TOC Multiplier 1.00W1 Neutral TOC Reset LinearW1 Neutral TOC Block Disabled

W2 NEUTRAL TIME OC[SETPOINT GROUP 2]W2 Neutral TOC Function DisabledW2 Neutral TOC Target LatchedW2 Neutral TOC Pickup 0.85 x CTW2 Neutral TOC Shape Ext InverseW2 Neutral TOC Multiplier 1.00W2 Neutral TOC Reset LinearW2 Neutral TOC Block Disabled








W2 GROUND TIME OC[SETPOINT GROUP 2]W2 Ground TOC Function DisabledW2 Ground TOC Target LatchedW2 Ground TOC Pickup 0.85 x CTW2 Ground TOC Shape Ext InverseW2 Ground TOC Multiplier 1.00W2 Ground TOC Reset LinearW2 Ground TOC Block Disabled




























DIFFERENTIAL[SETPOINT GROUP 3]PERCENT DIFFERNTIAL[SETPOINT GROUP 3]Percent Differential Function EnabledPercent Differential Target LatchedPercent Differential Pickup 0.30 x CTPercent Differential Slope 1 25 %Percent Differential Break Point 2.0 x CTPercent Differential Slope 2 100 %Percent Differential Block Disabled

HARMONIC INHIBIT[SETPOINT GROUP 3]Harmonic Inhibit Function EnabledHarmonic Inhibit Parameters 2ndHarmonic Averaging DisabledHarmonic Inhibit Level 20.0 % fo


ENERGIZATION SENSING[SETPOINT GROUP 3]Energization Sensing By Current EnabledMinimum Energization Current 0.10 x CTEnergization Sensing By Voltage DisabledMinimum Energization Voltage 0.85 VTBreakers Are Open Signal DisabledParallel Transformer Breaker Close Signal Disabled



PHASE OVERCURRENT[SETPOINT GROUP 3]W1 PHASE TIME OC[SETPOINT GROUP 3]W1 Phase TOC Function EnabledW1 Phase TOC Target LatchedW1 Phase TOC Pickup 1.17 x CTW1 Phase TOC Shape Norm InverseW1 Phase TOC Multiplier 6.00W1 Phase TOC Reset LinearW1 Phase TOC Block Disabled




W2 PHASE TIME OC[SETPOINT GROUP 3]W2 Phase TOC Function EnabledW2 Phase TOC Target LatchedW2 Phase TOC Pickup 1.60 x CTW2 Phase TOC Shape Norm InverseW2 Phase TOC Multiplier 4.00W2 Phase TOC Reset LinearW2 Phase TOC Block Disabled





NEUTRAL OVERCURRENT[SETPOINT GROUP 3]W1 NEUTRAL TIME OC[SETPOINT GROUP 3]W1 Neutral TOC Function EnabledW1 Neutral TOC Target LatchedW1 Neutral TOC Pickup 0.85 x CTW1 Neutral TOC Shape Ext InverseW1 Neutral TOC Multiplier 1.00W1 Neutral TOC Reset LinearW1 Neutral TOC Block Disabled

W2 NEUTRAL TIME OC[SETPOINT GROUP 3]W2 Neutral TOC Function EnabledW2 Neutral TOC Target LatchedW2 Neutral TOC Pickup 0.85 x CTW2 Neutral TOC Shape Ext InverseW2 Neutral TOC Multiplier 1.00W2 Neutral TOC Reset LinearW2 Neutral TOC Block Disabled








W2 GROUND TIME OC[SETPOINT GROUP 3]W2 Ground TOC Function EnabledW2 Ground TOC Target LatchedW2 Ground TOC Pickup 0.85 x CTW2 Ground TOC Shape Ext InverseW2 Ground TOC Multiplier 1.00W2 Ground TOC Reset LinearW2 Ground TOC Block Disabled

W2 GROUND INST OC 1[SETPOINT GROUP 3]W2 Ground IOC1 Function EnabledW2 Ground IOC1 Target LatchedW2 Ground IOC1 Pickup 10.00 x CTW2 Ground IOC1 Delay 0 msW2 Ground IOC1 Block Disabled



























STATUSLOGIC INPUTSLogic Input 1 Assert Not AssertedLogic Input 2 Assert Not AssertedLogic Input 3 Assert Not AssertedLogic Input 4 Assert Not AssertedLogic Input 5 Assert Not AssertedLogic Input 6 Assert Not AssertedLogic Input 7 Assert Not AssertedLogic Input 8 Assert Not AssertedLogic Input 9 Assert Not AssertedLogic Input 10 Assert Not AssertedLogic Input 11 Assert Not AssertedLogic Input 12 Assert Not AssertedLogic Input 13 Assert Not AssertedLogic Input 14 Assert Not AssertedLogic Input 15 Assert Not AssertedLogic Input 16 Assert Not AssertedSetpoint Access Open

VIRTUAL INPUTSVirtual Input 1 Assert Not AssertedVirtual Input 2 Assert Not AssertedVirtual Input 3 Assert Not AssertedVirtual Input 4 Assert Not AssertedVirtual Input 5 Assert Not AssertedVirtual Input 6 Assert Not AssertedVirtual Input 7 Assert Not AssertedVirtual Input 8 Assert Not AssertedVirtual Input 9 Assert Not AssertedVirtual Input 10 Assert Not AssertedVirtual Input 11 Assert Not AssertedVirtual Input 12 Assert Not AssertedVirtual Input 13 Assert Not AssertedVirtual Input 14 Assert Not AssertedVirtual Input 15 Assert Not AssertedVirtual Input 16 Assert Not Asserted

OUTPUT RELAYSOutput Relay 1 De-energizedOutput Relay 2 De-energizedOutput Relay 3 De-energizedOutput Relay 4 De-energizedOutput Relay 5 De-energizedOutput Relay 6 De-energizedOutput Relay 7 De-energizedOutput Relay 8 De-energizedOutput Relay Self-Test Energized

VIRTUAL OUTPUTSVirtual Output 1 De-energized




VIRTUAL OUTPUTS (continued from last page)Virtual Output 2 De-energizedVirtual Output 3 De-energizedVirtual Output 4 De-energizedVirtual Output 5 De-energized

SELF-TEST ERRORSFlexlogic Equation Error NoneBad Transformer Settings Error None

METERINGCURRENTSPHASE/GROUND & PHASORSW1 Ia Magnitude 0.0 AW1 Ia Angle 0 °LagW1 Ib Magnitude 0.0 AW1 Ib Angle 0 °LagW1 Ic Magnitude 0.0 AW1 Ic Angle 0 °LagW1 In Magnitude 0.0 AW1 In Angle 0 °LagW1 Loading 0 % ratedW1 Iavg 0.0 AW2 Ia Magnitude 0 AW2 Ia Angle 0 °LagW2 Ib Magnitude 0 AW2 Ib Angle 0 °LagW2 Ic Magnitude 0 AW2 Ic Angle 0 °LagW2 In Magnitude 0 AW2 In Angle 0 °LagW2 Ig Magnitude 0 AW2 Ig Angle 0 °LagW2 Loading 0 % ratedW2 Iavg 0 AVoltage Input Parameter W2 VabLine-to-Ntrl Voltage Magnitude 0.00 kVLine-to-Ntrl Voltage Angle 0 °Lag

SEQUENCEW1 Positive Sequence Current Magnitude 0.0 AW1 Positive Sequence Current Angle 0 °LagW1 Negative Sequence Current Magnitude 0.0 AW1 Negative Sequence Current Angle 0 °LagW1 Zero Sequence Current Magnitude 0.0 AW1 Zero Sequence Current Angle 0 °LagW2 Positive Sequence Current Magnitude 0 AW2 Positive Sequence Current Angle 0 °LagW2 Negative Sequence Current Magnitude 0 AW2 Negative Sequence Current Angle 0 °LagW2 Zero Sequence Current Magnitude 0 AW2 Zero Sequence Current Angle 0 °Lag

DIFF./RESTRAINTIa Differential Magnitude 0.00 x CTIa Differential Angle 0 °LagIb Differential Magnitude 0.00 x CTIb Differential Angle 0 °LagIc Differential Magnitude 0.00 x CTIc Differential Angle 0 °LagIa Restraint 0.00 x CTIb Restraint 0.00 x CTIc Restraint 0.00 x CT

GND DIFFERENTIALW2 Ig Differential 0.000 x CT

DEMANDDEMANDDemand Data Last Clear Date 09/3/2013Demand Data Last Clear Time 10:03:30.826W1 Ia Demand 0.0 AW1 Ib Demand 0.0 AW1 Ic Demand 0.0 AW1 Max Current Demand 24.5 AW1 Max Current Demand Phase in phase BW1 Max Current Demand Date 09/25/2013W1 Max Current Demand Time 18:13:35.881




DEMAND (continued from last page)W2 Ia Demand 0 AW2 Ib Demand 0 AW2 Ic Demand 0 AW2 Max Current Demand 540 AW2 Max Current Demand Phase in phase BW2 Max Current Demand Date 09/18/2013W2 Max Current Demand Time 00:30:14.970

OTHERSFREQUENCYSystem Frequency 0.00 HzFrequency Decay Rate 0.00 Hz/s

TAP CHANGERTap Changer Position 0

VOLTAGESystem Line-to-Line Voltage 0.00 kVVolts-per-Hertz 0.00 V/HzLine-to-Ntrl Voltage Magnitude 0.00 kVLine-to-Ntrl Voltage Angle 0 °Lag

AMBIENT TEMPERATURE.Ambient Temperature 0 °C

POWERPOWERW1 Real Power 0.0 MWW1 Reactive Power 0.0 MVARW1 Apparent Power 0.0 MVAW1 Power Factor 0.00W2 Real Power 0 MWW2 Reactive Power 0 MVARW2 Apparent Power 0 MVAW2 Power Factor 0.00

ENERGYENERGYEnergy Clear Date 12/8/2010Energy Clear Time 10:01:5.566W1 Source Watthours 0.3 MWhW1 Load Watthours 82526.1 MWhW1 Source Varhours 527.6 MvarhW1 Load Varhours 11075.3 MvarhW2 Source Watthours 88210 MWhW2 Load Watthours 0 MWhW2 Source Varhours 23064 MvarhW2 Load Varhours 145 Mvarh

PRODUCT INFOREVISION CODESHardware Revision HSoftware Revision 05 11Bootware Revision 03 00Version Number 0Installed Options 745-W2-P5-G5-HI-ESerial Number E3300819Manufacture Date 12/6/2010

CALIBRATIONDate of Original Calibration 00/0/00Date of Last Calibration 00/0/00

CIRCUITO “C-52Q”

RELEVADOR “GE

MULTILIN 469”

AJUSTES FINALES

OCTUBRE 2013


UNIVEXSR469 _MOTOR MANAGEMENT RELAY_DEVICE DEFINITION

ORDER CODE: 469-P5-HI-A20VERSION: 2.4XDESCRIPTION: MOTOR MANAGEMENT RELAY

469 SETUPPREFERENCESDefault Message Cycle Time 2.0 sDefault Message Timeout 300 sAverage Motor Load Calculation Period 15 minTemperature Display Units CelsiusTrace Memory Trigger After 0

MESSAGE SCRATCHPADFirst Scratchpad Message Text 1Second Scratchpad Message Text 2Third Scratchpad Message Text 3Fourth Scratchpad Message Text 4Fifth Scratchpad Message MULTILIN SR469 Motor Management Relay

SYSTEM SETUPCURRENT SENSINGPhase CT Primary 600 AMotor Full Load Amps 600 AGround CT Type 5 A SecondaryGround CT Primary 100 APhase Differential CT Type 5 A SecondaryPhase Differential CT Primary 50 AEnable Two Speed Motor Option Off/No

VOLTAGE SENSINGVoltageTransformer Connection Type Open DeltaVoltage Transformer Ratio 35.00 :1Motor Nameplate Voltage 4160 V

POWER SYSTEMNominal System Frequency 60 HzSystem Phase Sequence ABC

SERIAL COMM CONTROLSerial Communication Control Off/No

REDUCED VOLTAGEReduced Voltage Starting Off/No

DIGITAL INPUTSSTARTERStarter Status Switch Start Aux a

INPUT 1Assignable Input 1 Function Off




OUTPUT RELAYSTRIP RELAYReset Mode R1 Trip All Resets

ALARM RELAYReset Mode R4 Auxiliary All Resets

AUX RELAY 2Reset Mode R2 Auxiliary All Resets

AUX RELAY 3Reset Mode R3 Auxiliary All Resets

SERVICE RELAYReset Mode R6 Service All Resets

PROTECTIONTHERMAL MODEL469 THERMAL MODELCurve Style StandardOverload Pickup Level 1.15 FLAUnbalance k Factor 0Cool Time Constant Running 1 min




469 THERMAL MODEL (continued from last page)Cool Time Constant Stopped 1 minHot/Cold Safe Stall Ratio 0.01RTD Blasing Off/NoRTD Blas Minimum 0 °CRTD Blas Center Point 130 °CRTD Blas Maximum 250 °CThermal Capacity Alarm OffThermal Capacity Alarm Relays AlarmThermal Capacity Alarm Level 75 % usedThermal Capacity Alarm Events Off/NoOverload Trip Relays TripStandard Overload Curve Number 5

OVERLOAD CURVEStandard Overload Curve Number 5

CURRENT ELEMENTSSHORT CIRCUIT TRIPShort Circuit Trip LatchedOverreach Filter On/YesShort Circuit Trip Relays Trip & Aux2Short Circuit Trip Pickup 8.0 CTIntentional Short Circuit Trip Delay 50 msShort Circuit Trip Backup Off/No

OVERLOAD ALARMOverload Alarm Off

MECHANICAL JAMMechanical Jam Trip Off

UNDERCURRENTBlock Undercurrent from Start 0 sUndercurrent Alarm OffUndercurrent Trip Off

CURRENT UNBALANCECurrent Unbalance Alarm OffCurrent Unbalance Trip Off

GROUND FAULTGround Fault Alarm LatchedGround Fault Alarm Relays AlarmGround Fault Alarm Pickup 0.30 CTIntentional GF Alarm Delay 100 msGround Fault Alarm Events On/YesGround Fault Trip LatchedGround Fault Trip Relays Trip & Aux2Ground Fault Trip Pickup 1.00 CTIntentional GF Trip Delay 550 msGround Fault Trip Backup Off/No

PHASE DIFFERENTIALPhase Differential Trip Off

MOTOR STARTINGACCELERATION TIMERAccleration Timer Trip OffAcceleration Timer Trip Relays TripAcceleration Timer from Start 10.0 s

START INHIBITStart Inhibit Block Off/No

JOGGING BLOCKJogging Block Off/NoMaximum Starts/Hour Permissible 3Time Between Starts 10 min

RESTART BLOCKRestart Block Off/NoRestart Block Time 1 s

RTD TEMPERATURERTD TYPESStator RTD Type 100 Ohm PlatinumBearing RTD Type 100 Ohm PlatinumAmbient RTD Type 100 Ohm Platinum




RTD TYPES (continued from last page)Other RTD Type 100 Ohm Platinum

RTD #1RTD #1 Application StatorRTD #1 NameRTD #1 Alarm OffRTD #1 Trip LatchedRTD #1 Trip Voting RTD #1RTD #1 Trip Relays TripRTD #1 Trip Temperature 155 °C






RTD #7RTD #7 Application BearingRTD #7 NameRTD #7 Alarm OffRTD #7 Trip LatchedRTD #7 Trip Voting RTD #7RTD #7 Trip Relays TripRTD #7 Trip Temperature 90 °C


RTD #9RTD #9 Application BearingRTD #9 NameRTD #9 Alarm Off




RTD #9 (continued from last page)RTD #9 Trip LatchedRTD #9 Trip Voting RTD #9RTD #9 Trip Relays TripRTD #9 Trip Temperature 90 °C


RTD #11RTD #11 Application OtherRTD #11 NameRTD #11 Alarm OffRTD #11 Trip LatchedRTD #11 Trip Voting RTD #11RTD #11 Trip Relays TripRTD #11 Trip Temperature 90 °C

RTD #12RTD #12 Application AmbientRTD #12 NameRTD #12 Alarm OffRTD #12 Trip Off

ALARMSOpen RTD Sensor Alarm OffRTD Short/Low Temp Alarm Off

VOLTAGE ELEMENTSUNDERVOLTAGEUndervoltage Active Only If Bus Energized On/YesUndervoltage Alarm LatchedUndervoltage Alarm Relays AlarmUndervoltage Alarm Pickup 0.80 RatedStarting Undervoltage Alarm Pickup 0.80 RatedUndervoltage Alarm Delay 3.0 sUndervoltage Alarm Events Off/NoUndervoltage Trip Off

OVERVOLTAGEOvervoltage Alarm OffOvervoltage Trip Off

PHASE REVERSALVoltage Phase Reversal Trip Off

FREQUENCYVoltage Frequency Alarm OffVoltage Frequency Trip Off

POWER ELEMENTSPOWER FACTORBlock Power Factor Element from Start 1 sPower Factor Alarm OffPower Factor Trip Off

REACTIVE POWERBlock kvar Element from Start 1 sReactive Power Alarm OffReactive Power Trip Off

UNDERPOWERBlock Underpower From Start 0 sUnderpower Alarm OffUnderpower Trip Off

REVERSE POWERBlock Reverse Power From Start 0 sReverse Power Alarm OffReverse Power Trip Off

MONITORINGTRIP COUNTER




TRIP COUNTER (continued from last page)Trip Counter Alarm Off

STARTER FAILUREStarter Failure Alarm (Starter Failure) Off

CURRENT DEMANDCurrent Demand Period 15 minCurrent Demand Alarm Off

KW DEMANDkW Demand Period 15 minkW Demand Alarm Off

KVAR DEMANDkvar Demand Period 15 minkvar Demand Alarm Off

KVA DEMANDkVA Demand Period 15 minkVA Demand Alarm Off

ANALOG I/OANALOG INPUT 1Analog Input 1 Setup Disabled

ANALOG INPUT 2Analog Input 2 Setup Disabled



ANALOG OUTPUTSAnalog Output 1 Selection NoneAnalog Output 2 Selection NoneAnalog Output 3 Selection NoneAnalog Output 4 Selection None

469 TESTINGSIMULATION MODESimulation Mode OffPre-Fault to Fault Time Delay 15 s

PRE-FAULT SETUPPre-Fault Current Phase A 0.00 xCTPre-Fault Current Phase B 0.00 xCTPre-Fault Current Phase C 0.00 xCTPre-Fault Ground Current 0.0 APre-Fault Line Voltages 1.00 RatedPre-Fault Current Lags Voltage 0 °Stator RTD Pre-Fault Temperature 40 °CBearing RTD Pre-Fault Temperature 40 °COther RTD Pre-Fault Temperature 40 °CAmbient RTD Pre-Fault Temperature 40 °CPre-Fault System Frequency 60.0 HzPre-Fault Analog Input 1 0 % rangePre-Fault Analog Input 2 0 % rangePre-Fault Analog Input 3 0 % rangePre-Fault Analog Input 4 0 % rangePre-Fault Differential Current 0.00 CTPre-Fault Stator RTD Temperature (in Fahr.) 104 °FPre-Fault Bearing RTD Temperature (in Fahr.) 104 °FPre-Fault Other RTD Temperature (in Fahr.) 104 °FPre-Fault Ambient RTD Temperature (in Fahr.) 104 °F

FAULT SETUPFault Current Phase A 0.00 xCTFault Current Phase B 0.00 xCTFault Current Phase C 0.00 xCTFault Ground Current 0.0 AFault Line Voltage 1.00 RatedFault Current Lags Voltage 0 °Fault Differential Current 0.00 CTStator RTD Fault Temperature 40 °CBearing RTD Fault Temperature 40 °COther RTD Fault Temperature 40 °C




FAULT SETUP (continued from last page)Ambient RTD Fault Temperature 40 °CFault System Frequency 60.0 HzFault Analog Input 1 0 % rangeFault Analog Input 2 0 % rangeFault Analog Input 3 0 % rangeFault Analog Input 4 0 % rangeFault Stator RTD Temperature (in Fahrenheit) 104 °FFault Bearing RTD Temperature (in Fahrenheit) 104 °FFault Other RTD Temperature (in Fahrenheit) 104 °FFault Ambient RTD Temperature (in Fahrenheit) 104 °F

TEST ANALOG OUTPUTSForce Analog Outputs DisabledAnalog Output 1 Forced Value 0 % rangeAnalog Output 2 Forced Value 0 % rangeAnalog Output 3 Forced Value 0 % rangeAnalog Output 4 Forced Value 0 % range

TWO SPEED MOTORSPEED 2 OVERLOADSpeed2 Standard Overload Curve Number 4

SPEED 2 UNDERCURRENTBlock Speed2 Undercurrent from Start 0 sSpeed2 Undercurrent Alarm OffSpeed2 Undercurrent Alarm Pickup 0.70 FLASpeed2 Undercurrent Alarm Delay 1 sSpeed2 Undercurrent Alarm Events Off/NoSpeed2 Undercurrent Trip OffSpeed2 Undercurrent Trip Pickup 0.70 FLASpeed2 Undercurrent Trip Delay 1 s

SPEED 2 ACCELERATIONSpeed2 Acceleration Timer From Start 10.0 sAcceleration Timer From Speed One to Two 10.0 s

MODBUS USER MAPUSER MAPUser Map Address #1 512User Map Address #2 513User Map Address #3 514User Map Address #4 515User Map Address #5 516User Map Address #6 517User Map Address #7 518User Map Address #8 519User Map Address #9 520User Map Address #10 521User Map Address #11 522User Map Address #12 523User Map Address #13 524User Map Address #14 525User Map Address #15 526User Map Address #16 527User Map Address #17 528User Map Address #18 529User Map Address #19 530User Map Address #20 531User Map Address #21 532User Map Address #22 533User Map Address #23 534User Map Address #24 535User Map Address #25 536User Map Address #26 537User Map Address #27 538User Map Address #28 539User Map Address #29 540User Map Address #30 541User Map Address #31 542User Map Address #32 543User Map Address #33 544User Map Address #34 545User Map Address #35 546User Map Address #36 547User Map Address #37 548User Map Address #38 549User Map Address #39 550User Map Address #40 551




USER MAP (continued from last page)User Map Address #41 552User Map Address #42 553User Map Address #43 554User Map Address #44 555User Map Address #45 556User Map Address #46 557User Map Address #47 558User Map Address #48 559User Map Address #49 560User Map Address #50 561User Map Address #51 562User Map Address #52 563User Map Address #53 564User Map Address #54 565User Map Address #55 566User Map Address #56 567User Map Address #57 568User Map Address #58 569User Map Address #59 570User Map Address #60 571User Map Address #61 572User Map Address #62 573User Map Address #63 574User Map Address #64 575User Map Address #65 576User Map Address #66 577User Map Address #67 578User Map Address #68 579User Map Address #69 580User Map Address #70 581User Map Address #71 582User Map Address #72 583User Map Address #73 584User Map Address #74 585User Map Address #75 586User Map Address #76 587User Map Address #77 588User Map Address #78 589User Map Address #79 590User Map Address #80 591User Map Address #81 592User Map Address #82 593User Map Address #83 594User Map Address #84 595User Map Address #85 596User Map Address #86 597User Map Address #87 598User Map Address #88 599User Map Address #89 600User Map Address #90 601User Map Address #91 602User Map Address #92 603User Map Address #93 604User Map Address #94 605User Map Address #95 606User Map Address #96 607User Map Address #97 608User Map Address #98 609User Map Address #99 610User Map Address #100 611User Map Address #101 612User Map Address #102 613User Map Address #103 614User Map Address #104 615User Map Address #105 616User Map Address #106 617User Map Address #107 618User Map Address #108 619User Map Address #109 620User Map Address #110 621User Map Address #111 622User Map Address #112 623User Map Address #113 624User Map Address #114 625User Map Address #115 626User Map Address #116 627User Map Address #117 628User Map Address #118 629




USER MAP (continued from last page)User Map Address #119 630User Map Address #120 631User Map Address #121 632User Map Address #122 633User Map Address #123 634User Map Address #124 635User Map Address #125 636

STATUSMOTOR STATUSMotor Status StoppedMotor Load 0.00 FLAMotor Thermal Capacity Used 0 %Estimated Time to Trip on Overload -1 sMotor Speed Low Speed (Speed 1)Phase A Current 0 APhase B Current 0 APhase C Current 0 AAverage Phase Current 0 ACurrent Unbalance 0 %Vab 0 VVbc 0 VVca 0 VAverage Line Voltage 0 VSystem Frequency 0.00 HzPower Factor 1.00Real Power 0 kWReal Power (HP) 0 hpReactive Power 0 kvarApparent Power 0 kVA

TRIP STATUSCause of Last Trip Ground Fault TripTime of Last Trip 16:06:50Date Of LastTrip 02/14/2007Motor Speed During Trip Low Speed (Speed 1)Pre-Trip Tachometer RPM 0 R.P.MPhase A Pre-Trip Current 0 APhase B Pre-Trip Current 0 APhase C Pre-Trip Current 0 APre-Trip Motor Load 0.00 FLAPre-Trip Current Unbalance 0 %Pre-Trip Ground Current 78.20 APhase A Pre-Trip Differential Current 0 APhase B Pre-Trip Differential Current 0 APhase C Pre-Trip Differential Current 0 AHottest Stator RTD During Trip 0Pre-Trip Temperature of Hottest Stator RTD -52 °CHottest Bearing RTD During Trip 0Pre-Trip Temperature of Hottest Bearing RTD -52 °CHottest Other RTD During Trip 0Pre-Trip Temperature of Hottest Other RTD -52 ° CHottest Ambient RTD During Trip 0Pre-Trip Ambient RTD Temperature -52 °CPre-Trip Voltage Vab 0 VPre-Trip Voltage Vbc 0 VPre-Trip Voltage Vca 0 VPre-Trip Voltage Van 0 VPre-Trip Votage Vbn 0 VPre-Trip Voltage Vcn 0 VPre-Trip System Frequency 0.00 HzPre-Trip Real Power 0 kWPre-Trip Reactive Power 0 kvarPre-Trip Apparent Power 0 kVAPre-Trip Power Factor 1.00Analog Input #1 Pre-Trip 0Analog Input #2 Pre-Trip 0Analog Input #3 Pre-Trip 0Analog Input #4 Pre-Trip 0Pre-Trip Temp. of Hottest Stator RTD (°F) -61 °FPre-Trip Temp. of Hottest Bearing RTD (°F) -61 °FPre-Trip Temp. of Hottest Other RTD (°F) -61 °FPre-Trip Temp. of Hottest Ambient RTD (°F) -61 °F

ALARM STATUSRemote Alarm Status OffPressure Switch Alarm Status OffVibration Switch Alarm Status Off




ALARM STATUS (continued from last page)Digital Counter Alarm Status OffTachometer Alarm Status OffGeneral Switch A Alarm Status OffGeneral Switch B Alarm Status OffGeneral Switch C Alarm Status OffGeneral Switch D Alarm Status OffOverload Alarm Status OffUndercurrent Alarm Status OffCurrent Unbalance Alarm Status OffGround Fault Alarm Status Not ActiveRTD #1 Alarm Status OffRTD #2 Alarm Status OffRTD #3 Alarm Status OffRTD #4 Alarm Status OffRTD #5 Alarm Status OffRTD #6 Alarm Status OffRTD #7 Alarm Status OffRTD #8 Alarm Status OffRTD #9 ALarm Status OffRTD #10 Alarm Status OffRTD #11 Alarm Status OffRTD #12 Alarm Status OffOpen RTD Sensor Alarm Status OffShort Snesor/Low Temp Alarm Status OffUndervoltage Alarm Status Not ActiveOvervoltage Alarm Status OffSystem Frequency Alarm Status OffPower Factor Alarm Status OffReactive Power Alarm Status OffUnderpower Alarm Status OffTrip Counter Alarm Status OffStarter Failure Alarm OffCurrent Demand Alarm Status OffkW Demand Alarm Status Offkvar Demand Alarm Status OffkVA Demand Alarm Status OffAnalog Input 1 Alarm Status OffAnalog Input 2 Alarm Status OffAnalog Input 3 Alarm Status OffAnalog Input 4 Alarm Status OffReverse Power Alarm Status OffAnalog Diff 1-2 Alarm Status OffAnalog Diff 2-4 Alarm Status OffOver Torque Alarm Status OffSelf Test Alarm 0Overload Lockout Block 0 minStart Inhibit Block Lockout Time 0 minStart/Hour Block Lockout Time 0 minTime Between Starts Lockout Time 0 minRestart Block Lockout 0 s

INPUTS STATUSAccess Switch Status OpenTest Switch Status OpenStarter Switch Status OpenEmergency Restart Switch Status OpenRemote Reset Switch Status OpenAssignable Input 1 Status OpenAssignable Input 2 Status OpenAssignable Input 3 Status OpenAssignable Input 4 Status OpenTrip Coil Supervision Coil

BLOCK STATUSOverload Lockout Block 0 minStart Inhibit Block Lockout Time 0 minStart/Hour Block Lockout Time 0 minTime Between Starts Lockout Time 0 minRestart Block Lockout 0 s

CLOCK STATUSDate for Real Time Clock 09/26/2013Time for Real Time Clock 16:54:38

SYSTEM STATUSGeneral Status Relay in Service ActiveGeneral Status Active Trip Condition InactiveGeneral Status Active Alarm Condition Inactive




SYSTEM STATUS (continued from last page)General Status Motor Stopped ActiveGeneral Status Motor Starting InactiveGeneral Status Running InactiveGeneral Status Overload Pickup InactiveGeneral Status Unbalance Pickup InactiveGeneral Status Ground Pickup InactiveGeneral Status Hot RTD InactiveGeneral Status Loss of Load InactiveOutput Relay Status R1 Trip InactiveOutput Relay Status R2 Auxiliary InactiveOutput Relay Status R3 Auxiliary InactiveOutput Relay Status R4 Alarm Inactive

METERING DATACURRENTPhase A Current 0 APhase B Current 0 APhase C Current 0 AAverage Phase Current 0 AMotor Load 0.00 FLACurrent Unbalance 0 %Equivalent Motor Current 0.00 FLAGround Current 0.00 APhase A Differential Current 0 APhase B Differential Current 0 APhase C Differential Current 0 A

RTDRTD #1 Temperature No RTDRTD #2 Temperature No RTDRTD #3 Temperature No RTDRTD #4 Temperature No RTDRTD #5 Temperature No RTDRTD #6 Temperature No RTDRTD #7 Temperature No RTDRTD #8 Temperature No RTDRTD #9 Temperature No RTDRTD #10 Temperature No RTDRTD #11 Temperature No RTDRTD #12 Temperature No RTDHottest Stator RTD No RTDHottest RTD Number 0RTD #1 Application StatorRTD #2 Application StatorRTD #3 Application StatorRTD #4 Application StatorRTD #5 Application StatorRTD #6 Application StatorRTD #7 Application BearingRTD #8 Application BearingRTD #9 Application BearingRTD #10 Application BearingRTD #11 Application OtherRTD #12 Application AmbientRTD #1 NameRTD #2 NameRTD #3 NameRTD #4 NameRTD #5 NameRTD #6 NameRTD #7 NameRTD #8 NameRTD #9 NameRTD #10 NameRTD #11 NameRTD #12 Name

VOLTAGEVab 0 VVbc 0 VVca 0 VAverage Line Voltage 0 VSystem Frequency 0.00 Hz

SPEEDTachometer RPM 0 R.P.M

POWER




POWER (continued from last page)Power Factor 1.00Real Power 0 kWReal Power (HP) 0 hpReactive Power 0 kvarApparent Power 0 kVAMWh Comsumption 33587.933 MWhMvarh Consumption 18675.422 MvarhMvarh Generation 0.002 MvarhTorque 0.0 ftlb

DEMANDCurrent Demand 0 AReal Power Demand 0 kWReactive Power Demand 0 kvarApparent Power Demand 0 kVAPeak Current Demand 448 APeak Real Power Demand 2240 kWPeak Reactive Power Demand 2361 kvarPeak Apparent Power Demand 3096 kVA

ANALOG INPUTAnalog I/P 1 0Analog I/P 2 0Analog I/P 3 0Analog I/P 4 0

LEARNED DATAMOTOR LEARNED DATALearned Acceleration Time 39.0 sLearned Starting Current 1360 ALearned Starting Capacity 72 %Average Motor Load Learned 0.00 FLA

RTD LEARNED DATARTD #1 Max. Temperature 250 °CRTD #2 Max. Temperature 250 °CRTD #3 Max. Temperature 250 °CRTD #4 Max. Temperature 250 °CRTD #5 Max. Temperature 250 °CRTD #6 Max. Temperature 250 °CRTD #7 Max. Temperature 250 °CRTD #8 Max. Temperature 250 °CRTD #9 Max. Temperature 250 °CRTD #10 Max. Temperature 250 °CRTD #11 Max. Temperature 250 °CRTD #12 Max. Temperature 250 °C

MAINTENANCETRIP COUNTERSTotal Number of Trips 15Incomplete Sequence Trips 0Input Switch Trips 0Tachometer Trips 0Overload Trips 8Short Circuit Trips 1Mechanical Jam Trips 0Undercurrent Trips 0Current Unbalance Trips 0Ground Fault Trips 5Phase Differential Trips 0Motor Acceleration Trips 0Stator RTD Trips 0Bearing RTD Trips 0Other RTD Trips 0Ambient RTD Trips 0Undervoltage Trips 1Overvoltage Trips 0Voltage Phase Reversal Trips 0Voltage Frequency Trips 0Power Factor Trips 0Reactive Power Trips 0Underpower Trips 0Analog I/P 1 Trips 0Analog I/P 2 Trips 0Analog I/P 3 Trips 0Analog I/P 4 Trips 0Reverse Power Trips 0Analog Diff 1-2 Trips 0




TRIP COUNTERS (continued from last page)Analog Diff 3-4 Trips 0

GENERAL COUNTERSNumber of Motor Starts 4363Number of Emergency Restarts 19Number of Starter Operations 4138Digital Counter 0

TIMERSMotor Running Hours 27092 hrTime Between Starts Timer 0 minStart Timer 1 0 minStart Timer 2 0 minStart Timer 3 0 minStart Timer 4 0 minStart Timer 5 0 min

PRODUCT INFORMATIONSR469 MODEL INFO.Order Code SR469-P5-HI-A20Serial Number 3071560

CALIBRATION INFO.Orginal Calibration Date (Info) 01/18/1997Last Calibration Date (info) 01/18/1997

PRODUCT IDProduct Hardware Revision DProduct Software Revision 00 00Product Modification Number 0Boot Program Revision 00 00Boot Program Modification Number 00 00

469 FRONT PANELHMI DISPLAY

CIRCUITO “C-52S”

RELEVADOR “GE

MULTILIN 469”

AJUSTES FINALES

OCTUBRE 2013


NEW SITE1469 RELAY 1DEVICE DEFINITION

ORDER CODE: 469VERSION: 2.6XDESCRIPTION: (NONE)

469 SETUPPASSCODEPREFERENCESDefault Message Cycle Time 2.0 sDefault Message Timeout 300 sAverage Motor Load Calculation Period 15 minTemperature Display Units CelsiusTrace Memory Trigger Position 8 %Trace Memory Buffers 0Display Update Interval 0.0 sCyclic Load Filter Interval 0 cycles

MESSAGE SCRATCHPADFirst Scratchpad Message Text 1Second Scratchpad Message Text 2Third Scratchpad Message Text 3Fourth Scratchpad Message Text 4Fifth Scratchpad Message MULTILIN SR469 MOTOR MANAGEMENT RELAY

SYSTEM SETUPCURRENT SENSINGPhase CT Primary 600 AMotor Full Load Amps 620 AGround CT Type 5 A SecondaryGround CT Primary 100 APhase Differential CT Type 5 A SecondaryPhase Differential CT Primary 50 AEnable Two Speed Motor Option Off/No

VOLTAGE SENSINGVoltageTransformer Connection Type None

POWER SYSTEMNominal System Frequency 60 HzSystem Phase Sequence ABC

SERIAL COMM CONTROLSerial Communication Control Off/No

REDUCED VOLTAGEReduced Voltage Starting Off/No

DIGITAL INPUTSSTARTERStarter Status Switch Start Aux a





OUTPUT RELAYSTRIP RELAYReset Mode R1 Trip All ResetsForce R1 Output Relay DisabledForce R1 Operate Time 0 s

ALARM RELAYReset Mode R4 Auxiliary All ResetsForce R4 Output Relay DisabledForce R4 Operate Time 0 s

AUX RELAY 2Reset Mode R2 Auxiliary All ResetsForce R2 Output Relay DisabledForce R2 Output Operate Time 0 s

AUX RELAY 3Reset Mode R3 Auxiliary All ResetsForce R3 Output Relay DisabledForce R3 Operate Time 0 s




BLOCK START RELAYForce R5 Output Relay DisabledForce R5 Operate Time 0 s

SERVICE RELAYReset Mode R6 Service All Resets

PROTECTIONTHERMAL MODEL469 THERMAL MODELCurve Style StandardOverload Pickup Level 1.10 FLAUnbalance k Factor 0Cool Time Constant Running 60 minCool Time Constant Stopped 30 minHot/Cold Safe Stall Ratio 1.00RTD Blasing Off/NoRTD Blas Minimum 40 °CRTD Blas Center Point 130 °CRTD Blas Maximum 155 °CThermal Capacity Alarm OffThermal Capacity Alarm Relays AlarmThermal Capacity Alarm Level 75 % usedThermal Capacity Alarm Events Off/NoOverload Trip Relays TripStandard Overload Curve Number 2

OVERLOAD CURVEStandard Overload Curve Number 2

CURRENT ELEMENTSSHORT CIRCUIT TRIPShort Circuit Trip LatchedOverreach Filter On/YesShort Circuit Trip Relays TripShort Circuit Trip Pickup 12.0 CTIntentional Short Circuit Trip Delay 50 msShort Circuit Trip Backup On/YesShort Circuit Backup Relays Aux3Short Circuit Trip Backup Delay 10 ms

OVERLOAD ALARMOverload Alarm LatchedOverload Alarm Relays AlarmOverload Alarm Events On/YesOverload Alarm Delay 18.0 s

MECHANICAL JAMMechanical Jam Trip LatchedMechanical Jam Trip Relays TripMechanical Jam Pickup 3.00 xFLAMechanical Jam Delay 16 s

UNDERCURRENTBlock Undercurrent from Start 0 sUndercurrent Alarm OffUndercurrent Trip Off

CURRENT UNBALANCECurrent Unbalance Alarm LatchedCurrent Unbalance Alarm Relays AlarmCurrent Unbalance Alarm Pickup 10 %Current Unbalance Alarm Delay 1 sCurrent Unbalance Alarm Events On/YesCurrent Unbalance Trip Off

GROUND FAULTGround Fault Alarm LatchedGround Fault Alarm Relays AlarmGround Fault Alarm Pickup 0.30 CTIntentional GF Alarm Delay 100 msGround Fault Alarm Events On/YesGround Fault Trip LatchedGround Fault Trip Relays TripGround Fault Trip Pickup 1.00 CTIntentional GF Trip Delay 600 msGround Fault Trip Backup Off/No

PHASE DIFFERENTIAL




PHASE DIFFERENTIAL (continued from last page)Phase Differential Trip Off

MOTOR STARTINGACCELERATION TIMERAccleration Timer Trip OffAcceleration Timer Trip Relays TripAcceleration Timer from Start 13.0 s

START INHIBITStart Inhibit Block Off/NoThermal Capacity Used Margin 0 %

JOGGING BLOCKJogging Block Off/NoMaximum Starts/Hour Permissible 1Time Between Starts 30 min

RESTART BLOCKRestart Block Off/NoRestart Block Time 1 s

RTD TEMPERATURERTD TYPESStator RTD Type 100 Ohm PlatinumBearing RTD Type 100 Ohm PlatinumAmbient RTD Type 100 Ohm PlatinumOther RTD Type 100 Ohm Platinum

RTD #1RTD #1 Application StatorRTD #1 NameRTD #1 Alarm OffRTD #1 Trip OffRTD #1 Hi Alarm Off






RTD #7RTD #7 Application BearingRTD #7 NameRTD #7 Alarm OffRTD #7 Trip OffRTD #7 Hi Alarm Off

RTD #8




RTD #8 (continued from last page)RTD #8 Application BearingRTD #8 NameRTD #8 Alarm OffRTD #8 Trip OffRTD #8 Hi Alarm Off



RTD #11RTD #11 Application OtherRTD #11 NameRTD #11 Alarm OffRTD #11 Trip OffRTD #11 Hi Alarm Off

RTD #12RTD #12 Application AmbientRTD #12 NameRTD #12 Alarm OffRTD #12 Trip OffRTD #12 Hi Alarm Off

ALARMSOpen RTD Sensor Alarm OffRTD Short/Low Temp Alarm Off

VOLTAGE ELEMENTSUNDERVOLTAGEUndervoltage Active Only If Bus Energized Off/NoUndervoltage Alarm OffUndervoltage Trip LatchedUndervoltage Trip Relays TripUndervoltage Trip Pickup 0.80 RatedStarting Undervoltage Trip Pickup 0.80 RatedUndervoltage Trip Delay 3.0 s

OVERVOLTAGEOvervoltage Alarm OffOvervoltage Trip Off

PHASE REVERSALVoltage Phase Reversal Trip Off

FREQUENCYVoltage Frequency Alarm LatchedVoltage Frequency Alarm Relays AlarmOverfrequency Alarm Level 60.50 HzUnderfrequency Alarm Level 59.50 HzVoltage Frequency Alarm Delay 1.0 sVoltage Frequency Alarm Events Off/NoVoltage Frequency Trip Off

POWER ELEMENTSPOWER FACTORBlock Power Factor Element from Start 1 sPower Factor Alarm OffPower Factor Trip Off

REACTIVE POWERBlock kvar Element from Start 1 sReactive Power Alarm OffReactive Power Trip Off

UNDERPOWERBlock Underpower From Start 0 sUnderpower Alarm Off




UNDERPOWER (continued from last page)Underpower Trip Off

REVERSE POWERBlock Reverse Power From Start 0 sReverse Power Alarm OffReverse Power Trip Off

TORQUE SETUPTorque Metering DisabledStator Resistance 0.000 mOhmPole Pairs 0Torque Unit Newton-meter

OVERTORQUE SETUPOvertorque Alarm OffOvertorque Alarm Relays AlarmOvertorque Alarm Level 0.0 NmOvertorque Alarm Delay 0.0 sOvertorque Alarm Events Off/No

MONITORINGTRIP COUNTERTrip Counter Alarm Off

STARTER FAILUREStarter Failure Alarm (Starter Failure) Off

CURRENT DEMANDCurrent Demand Period 15 minCurrent Demand Alarm Off

KW DEMANDkW Demand Period 15 minkW Demand Alarm Off

KVAR DEMANDkvar Demand Period 15 minkvar Demand Alarm Off

KVA DEMANDkVA Demand Period 15 minkVA Demand Alarm Off

PULSE OUTPUTPositive kWh Pulse Output Relay OffPositive kvarh Pulse Output Relay OffNegative kvarh Pulse Output Relay OffRunning Time Pulse Relay Off

ANALOG I/OANALOG INPUT 1Analog Input 1 Setup Disabled




ANALOG OUTPUTSAnalog Output 1 Selection NoneAnalog Output 2 Selection NoneAnalog Output 3 Selection NoneAnalog Output 4 Selection None

469 TESTINGSIMULATION MODESimulation Mode OffPre-Fault to Fault Time Delay 10 s

PRE-FAULT SETUPPre-Fault Current Phase A 1.00 xCTPre-Fault Current Phase B 1.00 xCTPre-Fault Current Phase C 1.00 xCTPre-Fault Ground Current 0.0 A




PRE-FAULT SETUP (continued from last page)Pre-Fault Line Voltages 1.00 RatedPre-Fault Current Lags Voltage 0 °Stator RTD Pre-Fault Temperature 40 °CBearing RTD Pre-Fault Temperature 40 °COther RTD Pre-Fault Temperature 40 °CAmbient RTD Pre-Fault Temperature 40 °CPre-Fault System Frequency 60.0 HzPre-Fault Analog Input 1 0 % rangePre-Fault Analog Input 2 0 % rangePre-Fault Analog Input 3 0 % rangePre-Fault Analog Input 4 0 % rangePre-Fault Differential Current 0.00 CTPre-Fault Stator RTD Temperature (in Fahr.) 104 °FPre-Fault Bearing RTD Temperature (in Fahr.) 104 °FPre-Fault Other RTD Temperature (in Fahr.) 104 °FPre-Fault Ambient RTD Temperature (in Fahr.) 104 °F

FAULT SETUPFault Current Phase A 5.00 xCTFault Current Phase B 5.00 xCTFault Current Phase C 5.00 xCTFault Ground Current 0.0 AFault Line Voltage 1.00 RatedFault Current Lags Voltage 0 °Fault Differential Current 0.00 CTStator RTD Fault Temperature 40 °CBearing RTD Fault Temperature 40 °COther RTD Fault Temperature 40 °CAmbient RTD Fault Temperature 40 °CFault System Frequency 60.0 HzFault Analog Input 1 0 % rangeFault Analog Input 2 0 % rangeFault Analog Input 3 0 % rangeFault Analog Input 4 0 % rangeFault Stator RTD Temperature (in Fahrenheit) 104 °FFault Bearing RTD Temperature (in Fahrenheit) 104 °FFault Other RTD Temperature (in Fahrenheit) 104 °FFault Ambient RTD Temperature (in Fahrenheit) 104 °F

TEST OUTPUT RELAYSForce Operation of Relays Disabled

TEST ANALOG OUTPUTSForce Analog Outputs DisabledAnalog Output 1 Forced Value 0 % rangeAnalog Output 2 Forced Value 0 % rangeAnalog Output 3 Forced Value 0 % rangeAnalog Output 4 Forced Value 0 % range

TWO SPEED MOTORSPEED 2 OVERLOADSpeed2 Standard Overload Curve Number 4

SPEED 2 UNDERCURRENTBlock Speed2 Undercurrent from Start 0 sSpeed2 Undercurrent Alarm OffSpeed2 Undercurrent Alarm Pickup 0.70 FLASpeed2 Undercurrent Alarm Delay 1 sSpeed2 Undercurrent Alarm Events Off/NoSpeed2 Undercurrent Trip OffSpeed2 Undercurrent Trip Pickup 0.70 FLASpeed2 Undercurrent Trip Delay 1 s

SPEED 2 ACCELERATIONSpeed2 Acceleration Timer From Start 10.0 sAcceleration Timer From Speed One to Two 10.0 s

MODBUS USER MAPUSER MAPUser Map Address #1 512User Map Address #2 513User Map Address #3 514User Map Address #4 515User Map Address #5 516User Map Address #6 517User Map Address #7 518User Map Address #8 519User Map Address #9 520




USER MAP (continued from last page)User Map Address #10 521User Map Address #11 522User Map Address #12 523User Map Address #13 524User Map Address #14 525User Map Address #15 526User Map Address #16 527User Map Address #17 528User Map Address #18 529User Map Address #19 530User Map Address #20 531User Map Address #21 532User Map Address #22 533User Map Address #23 534User Map Address #24 535User Map Address #25 536User Map Address #26 537User Map Address #27 538User Map Address #28 539User Map Address #29 540User Map Address #30 541User Map Address #31 542User Map Address #32 543User Map Address #33 544User Map Address #34 545User Map Address #35 546User Map Address #36 547User Map Address #37 548User Map Address #38 549User Map Address #39 550User Map Address #40 551User Map Address #41 552User Map Address #42 553User Map Address #43 554User Map Address #44 555User Map Address #45 556User Map Address #46 557User Map Address #47 558User Map Address #48 559User Map Address #49 560User Map Address #50 561User Map Address #51 562User Map Address #52 563User Map Address #53 564User Map Address #54 565User Map Address #55 566User Map Address #56 567User Map Address #57 568User Map Address #58 569User Map Address #59 570User Map Address #60 571User Map Address #61 572User Map Address #62 573User Map Address #63 574User Map Address #64 575User Map Address #65 576User Map Address #66 577User Map Address #67 578User Map Address #68 579User Map Address #69 580User Map Address #70 581User Map Address #71 582User Map Address #72 583User Map Address #73 584User Map Address #74 585User Map Address #75 586User Map Address #76 587User Map Address #77 588User Map Address #78 589User Map Address #79 590User Map Address #80 591User Map Address #81 592User Map Address #82 593User Map Address #83 594User Map Address #84 595User Map Address #85 596User Map Address #86 597User Map Address #87 598




USER MAP (continued from last page)User Map Address #88 599User Map Address #89 600User Map Address #90 601User Map Address #91 602User Map Address #92 603User Map Address #93 604User Map Address #94 605User Map Address #95 606User Map Address #96 607User Map Address #97 608User Map Address #98 609User Map Address #99 610User Map Address #100 611User Map Address #101 612User Map Address #102 613User Map Address #103 614User Map Address #104 615User Map Address #105 616User Map Address #106 617User Map Address #107 618User Map Address #108 619User Map Address #109 620User Map Address #110 621User Map Address #111 622User Map Address #112 623User Map Address #113 624User Map Address #114 625User Map Address #115 626User Map Address #116 627User Map Address #117 628User Map Address #118 629User Map Address #119 630User Map Address #120 631User Map Address #121 632User Map Address #122 633User Map Address #123 634User Map Address #124 635User Map Address #125 636

STATUSMOTOR STATUSMotor Status RunningMotor Load 0.18 FLAMotor Thermal Capacity Used 0 %Estimated Time to Trip on Overload -1 sMotor Speed Low Speed (Speed 1)Phase A Current 112 APhase B Current 116 APhase C Current 115 AAverage Phase Current 114 ACurrent Unbalance 1 %Vab 0 VVbc 0 VVca 0 VAverage Line Voltage 0 VSystem Frequency 60.05 HzPower Factor 1.00Real Power 0 kWReal Power (HP) 0 hpReactive Power 0 kvarApparent Power 0 kVA

TRIP STATUSCause of Last Trip Ground Fault TripTime of Last Trip 16:13:36Date Of LastTrip 05/14/2013Motor Speed During Trip Low Speed (Speed 1)Pre-Trip Tachometer RPM 0 R.P.MPhase A Pre-Trip Current 320 APhase B Pre-Trip Current 324 APhase C Pre-Trip Current 322 APre-Trip Motor Load 0.51 FLAPre-Trip Current Unbalance 1 %Pre-Trip Ground Current 37.20 APhase A Pre-Trip Differential Current 0 APhase B Pre-Trip Differential Current 0 APhase C Pre-Trip Differential Current 0 AHottest Stator RTD During Trip 0




TRIP STATUS (continued from last page)Pre-Trip Temperature of Hottest Stator RTD -52 °CHottest Bearing RTD During Trip 0Pre-Trip Temperature of Hottest Bearing RTD -52 °CHottest Other RTD During Trip 0Pre-Trip Temperature of Hottest Other RTD -52 ° CHottest Ambient RTD During Trip 0Pre-Trip Ambient RTD Temperature -52 °CPre-Trip Voltage Vab 0 VPre-Trip Voltage Vbc 0 VPre-Trip Voltage Vca 0 VPre-Trip Voltage Van 0 VPre-Trip Votage Vbn 0 VPre-Trip Voltage Vcn 0 VPre-Trip System Frequency 60.04 HzPre-Trip Real Power 0 kWPre-Trip Reactive Power 0 kvarPre-Trip Apparent Power 0 kVAPre-Trip Power Factor 1.00Analog Input #1 Pre-Trip 0Analog Input #2 Pre-Trip 0Analog Input #3 Pre-Trip 0Analog Input #4 Pre-Trip 0Pre-Trip Temp. of Hottest Stator RTD (°F) -61 °FPre-Trip Temp. of Hottest Bearing RTD (°F) -61 °FPre-Trip Temp. of Hottest Other RTD (°F) -61 °FPre-Trip Temp. of Hottest Ambient RTD (°F) -61 °F

ALARM STATUSRemote Alarm Status OffPressure Switch Alarm Status OffVibration Switch Alarm Status OffDigital Counter Alarm Status OffTachometer Alarm Status OffGeneral Switch A Alarm Status OffGeneral Switch B Alarm Status OffGeneral Switch C Alarm Status OffGeneral Switch D Alarm Status OffOverload Alarm Status Not ActiveUndercurrent Alarm Status OffCurrent Unbalance Alarm Status Not ActiveGround Fault Alarm Status Not ActiveRTD #1 Alarm Status OffRTD #2 Alarm Status OffRTD #3 Alarm Status OffRTD #4 Alarm Status OffRTD #5 Alarm Status OffRTD #6 Alarm Status OffRTD #7 Alarm Status OffRTD #8 Alarm Status OffRTD #9 ALarm Status OffRTD #10 Alarm Status OffRTD #11 Alarm Status OffRTD #12 Alarm Status OffOpen RTD Sensor Alarm Status OffShort Snesor/Low Temp Alarm Status OffUndervoltage Alarm Status OffOvervoltage Alarm Status OffSystem Frequency Alarm Status Not ActivePower Factor Alarm Status OffReactive Power Alarm Status OffUnderpower Alarm Status OffTrip Counter Alarm Status OffStarter Failure Alarm OffCurrent Demand Alarm Status OffkW Demand Alarm Status Offkvar Demand Alarm Status OffkVA Demand Alarm Status OffAnalog Input 1 Alarm Status OffAnalog Input 2 Alarm Status OffAnalog Input 3 Alarm Status OffAnalog Input 4 Alarm Status OffReverse Power Alarm Status OffRTD #1 High Alarm Status OffRTD #2 High Alarm Status OffRTD #3 High Alarm Status OffRTD #4 High Alarm Status OffRTD #5 High Alarm Status OffRTD #6 High Alarm Status Off




ALARM STATUS (continued from last page)RTD #7 High Alarm Status OffRTD #8 High Alarm Status OffRTD #9 High Alarm Status OffRTD #10 High Alarm Status OffRTD #11 High Alarm Status OffRTD #12 High Alarm Status OffAnalog Diff 1-2 Alarm Status OffAnalog Diff 2-4 Alarm Status OffOver Torque Alarm Status OffSelf Test Alarm 0Overload Lockout Block 0 minStart Inhibit Block Lockout Time 0 minStart/Hour Block Lockout Time 0 minTime Between Starts Lockout Time 0 minRestart Block Lockout 0 s

INPUTS STATUSAccess Switch Status ShortedTest Switch Status OpenStarter Switch Status OpenEmergency Restart Switch Status OpenRemote Reset Switch Status OpenAssignable Input 1 Status OpenAssignable Input 2 Status OpenAssignable Input 3 Status OpenAssignable Input 4 Status OpenTrip Coil Supervision Coil

BLOCK STATUSOverload Lockout Block 0 minStart Inhibit Block Lockout Time 0 minStart/Hour Block Lockout Time 0 minTime Between Starts Lockout Time 0 minRestart Block Lockout 0 s

CLOCK STATUSDate for Real Time Clock 10/9/2013Time for Real Time Clock 18:23:49

SYSTEM STATUSGeneral Status Relay in Service ActiveGeneral Status Active Trip Condition InactiveGeneral Status Active Alarm Condition InactiveGeneral Status Motor Stopped InactiveGeneral Status Motor Starting InactiveGeneral Status Running ActiveGeneral Status Overload Pickup InactiveGeneral Status Unbalance Pickup InactiveGeneral Status Ground Pickup InactiveGeneral Status Hot RTD InactiveGeneral Status Loss of Load InactiveOutput Relay Status R1 Trip InactiveOutput Relay Status R2 Auxiliary InactiveOutput Relay Status R3 Auxiliary InactiveOutput Relay Status R4 Alarm Inactive

METERING DATACURRENTPhase A Current 112 APhase B Current 116 APhase C Current 115 AAverage Phase Current 114 AMotor Load 0.18 FLACurrent Unbalance 1 %Equivalent Motor Current 0.18 FLAGround Current 0.00 APhase A Differential Current 0 APhase B Differential Current 0 APhase C Differential Current 0 A

RTDRTD #1 Temperature No RTDRTD #2 Temperature No RTDRTD #3 Temperature No RTDRTD #4 Temperature No RTDRTD #5 Temperature No RTDRTD #6 Temperature No RTDRTD #7 Temperature No RTD




RTD (continued from last page)RTD #8 Temperature No RTDRTD #9 Temperature No RTDRTD #10 Temperature No RTDRTD #11 Temperature No RTDRTD #12 Temperature No RTDHottest Stator RTD No RTDHottest RTD Number 0RTD #1 Application StatorRTD #2 Application StatorRTD #3 Application StatorRTD #4 Application StatorRTD #5 Application StatorRTD #6 Application StatorRTD #7 Application BearingRTD #8 Application BearingRTD #9 Application BearingRTD #10 Application BearingRTD #11 Application OtherRTD #12 Application AmbientRTD #1 NameRTD #2 NameRTD #3 NameRTD #4 NameRTD #5 NameRTD #6 NameRTD #7 NameRTD #8 NameRTD #9 NameRTD #10 NameRTD #11 NameRTD #12 Name

VOLTAGESystem Frequency 60.05 Hz

SPEEDTachometer RPM 0 R.P.M

POWERPower Factor 1.00Real Power 0 kWReal Power (HP) 0 hpReactive Power 0 kvarApparent Power 0 kVAMWh Comsumption 1.611 MWhMvarh Consumption 0.000 MvarhMvarh Generation 0.000 MvarhTorque 0.0 Nm

DEMANDCurrent Demand 116 AReal Power Demand 0 kWReactive Power Demand 0 kvarApparent Power Demand 0 kVAPeak Current Demand 437 APeak Real Power Demand 0 kWPeak Reactive Power Demand 0 kvarPeak Apparent Power Demand 0 kVA

ANALOG INPUTAnalog I/P 1 0Analog I/P 2 0Analog I/P 3 0Analog I/P 4 0Analog Diff 1-2 Absolute 0Analog Diff 3-4 Absolute 0

PHASORVALUE: Vab 0 V -----VALUE: Vbc 0 V -----VALUE: Vca 0 V -----VALUE: Van 0 V -----VALUE: Vbn 0 V -----VALUE: Vcn 0 V -----

LEARNED DATAMOTOR LEARNED DATALearned Acceleration Time 8.0 s




MOTOR LEARNED DATA (continued from last page)Learned Starting Current 803 ALearned Starting Capacity 1 %Last Acceleration Time 0.0 sLast Starting Current 0 ALast Starting Capacity 0 %Average Motor Load Learned 0.18 FLA

RTD LEARNED DATARTD #1 Max. Temperature 250 °CRTD #2 Max. Temperature 250 °CRTD #3 Max. Temperature 250 °CRTD #4 Max. Temperature 250 °CRTD #5 Max. Temperature 250 °CRTD #6 Max. Temperature 250 °CRTD #7 Max. Temperature 250 °CRTD #8 Max. Temperature 250 °CRTD #9 Max. Temperature 250 °CRTD #10 Max. Temperature 250 °CRTD #11 Max. Temperature 250 °CRTD #12 Max. Temperature 250 °C

MAINTENANCETRIP COUNTERSTotal Number of Trips 101Incomplete Sequence Trips 0Input Switch Trips 0Tachometer Trips 0Overload Trips 32Short Circuit Trips 10Mechanical Jam Trips 7Undercurrent Trips 4Current Unbalance Trips 7Ground Fault Trips 19Phase Differential Trips 17Motor Acceleration Trips 3Stator RTD Trips 0Bearing RTD Trips 0Other RTD Trips 0Ambient RTD Trips 0Undervoltage Trips 0Overvoltage Trips 1Voltage Phase Reversal Trips 1Voltage Frequency Trips 0Power Factor Trips 0Reactive Power Trips 0Underpower Trips 0Analog I/P 1 Trips 0Analog I/P 2 Trips 0Analog I/P 3 Trips 0Analog I/P 4 Trips 0Reverse Power Trips 0Analog Diff 1-2 Trips 0Analog Diff 3-4 Trips 0

GENERAL COUNTERSNumber of Motor Starts 26856Number of Emergency Restarts 111Number of Starter Operations 26849Digital Counter 0

TIMERSMotor Running Hours 5525 hrTime Between Starts Timer 0 minStart Timer 1 0 minStart Timer 2 0 minStart Timer 3 0 minStart Timer 4 0 minStart Timer 5 0 min

PRODUCT INFORMATIONSR469 MODEL INFO.Order Code SR469-P5-HI-A20Serial Number 3071559

CALIBRATION INFO.Orginal Calibration Date (Info) 01/18/1997Last Calibration Date (info) 01/18/1997




PRODUCT IDProduct Hardware Revision DProduct Software Revision 00 00Product Modification Number 0Boot Program Revision 00 00Boot Program Modification Number 00 00

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CIRCUITO “TR-2” RELEVADOR “GE MULTILIN 745” … · W ed Oct 09 12:44:00 2013 Settings (Enabled Features) And Actual Values PAGE 2 GE 745 745 QUICK CONNECT DEVICE DEFINITION