Toshiba GRE110 Instruction Manual Download Page 239

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6 F 2 T 0 1 7 2

Name

Range

Contents

Default

Protection

SEF

SE1-k

0.00 – 300.00

Configurable
IDMT
Curve setting
(if MSE1=C)

-- (0.14)

SE1-

0.00 – 5.00

-- (0.02)

SE1-C

0.000 – 5.000

-- (0.000)

SE1-kr

0.00 – 300.00

-- (2.00)

SE1-

0.00 – 5.00

-- (2.00)

SE2

0.001 – 0.250 A

SEF2 Threshold

-- (0.500)

TSE2

0.010 – 1.500

SEF2 Time
multiplier
(if MSE2

≠

-- (1.000)

TSE2

0.00 – 300.00 s

SEF2 Definite time
(if MSE2=D)

-- (0.00)

TSE2R

0.0 – 300.0 s

SEF2 Definite
time reset delay
(if SE2R=DEF)

-- (0.0)

TSE2RM

0.010 – 1.500

SEF2 Dependent
time reset time
(if SE2R=DEP)

-- (1.000)

SE2-k

0.00 – 300.00

Configurable
IDMT
Curve setting
(if MSE2=C)

-- (0.14)

SE2-

0.00 – 5.00

-- (0.02)

SE2-C

0.000 – 5.000

-- (0.000)

SE2-kr

0.00 – 300.00

-- (2.00)

SE2-

0.00 – 5.00

-- (2.00)

SE3

0.001 – 0.250 A

SEF3 Threshold

-- (0.500)

TSE3

0.00 – 300.00 s

SEF3 Definite time

-- (0.00)

SE4

0.001 – 0.250 A

SEF4 Threshold

-- (0.500)

TSE4

0.00 – 300.00 s

SEF4 Definite time

-- (0.00)

THM

0.40 – 10.00 A

Thermal Overload

1.00A

THMIP

0.00 – 5.00 A

Prior load(Test)

0.00A

TTHM

0.5 – 500.0 min

Thermal heating
Time Constant

10.0min

THMA

50 – 99 %

Thermal Alarm

80%

NPS

NPS1

0.10 – 10.00 A

NPS1 Threshold

0.40A

TNPS1

0.00 – 300.00 s

NPS1
Definite time

0.00s

NPS2

0.10 – 10.0 A

NPS2 Threshold

0.20A

TNPS2

0.00 – 300.00 s

NPS2
Definite time

0.00s

BCD

0.10 – 1.00 A

Broken Conductor
Threshold

0.20A

TBCD

0.00 – 300.00 s

Broken Conductor

Definite time

0.00s



240



Summary of Contents for GRE110

Page 2: ... followed by important safety information that must be carefully reviewed Indicates an imminently hazardous situation which will result in death or serious injury if you do not follow the instructions Indicates a potentially hazardous situation which could result in death or serious injury if you do not follow the instructions CAUTION Indicates a potentially hazardous situation which if not avoide...

Page 3: ...voltage and current or the power supply to the equipment check that they conform to the equipment ratings Printed circuit board Do not attach and remove printed circuit boards when the DC power to the equipment is on as this may cause the equipment to malfunction External circuit When connecting the output contacts of the equipment to an external circuit carefully check the supply voltage used in ...

Page 4: ...es for Magnetising Inrush 46 2 10Trip Signal Output 49 2 11Application of Protection Inhibits 51 2 12CT Requirements 53 2 13Autoreclose 55 3 Technical Description 62 3 1 Hardware Description 62 3 2 Input and Output Signals 64 3 3 Automatic Supervision 69 3 4 Recording Function 75 3 5 Metering Function 78 3 6 Control Function 78 4 User Interface 79 4 1 Outline of User Interface 79 4 2 Operation of ...

Page 5: ...nance 174 7 Putting Relay into Service 177 Appendix A 178 Programmable Reset Characteristics and Implementation of Thermal Model to IEC60255 149 178 Appendix B 184 Signal List 184 Appendix C 192 Event Record Items 192 Appendix D 197 Binary Output Default Setting List 197 Appendix E 200 Relay Menu Tree 200 Appendix F 211 Case Outline 211 Appendix G 214 Typical External Connection 214 Appendix H 224...

Page 6: ...bility 260 Appendix N 290 IEC60870 5 103 Interoperability 290 Appendix O 297 PLC Default setting 297 Appendix P 299 Inverse Time Characteristics 299 Appendix Q 305 IEC61850 Interoperability 305 Appendix R 347 Ordering 347 The data given in this manual are subject to change without notice Ver 5 3 5 ...

Page 7: ...es the following protection schemes in all models Overcurrent protection for phase and earth faults with definite time or inverse time characteristics Instantaneous overcurrent protection for phase and earth faults The GRE110 series provides the sensitive earth fault protection scheme depending on the models The GRE110 series provides the following functions for all models Two settings groups Conf...

Page 8: ...operate time alarm Fault records Event records Disturbance records Modbus Communication IEC60850 5 103 Communication IEC 61850 communication option Case width mm 149 149 223 149 149 223 149 149 E current from residual circuit or CT SE current from core balance CT 3P three phase current E current Io calculated from three phase current in relay internal DT definite time IDMT inverse definite minimum...

Page 9: ...vercurrent Protection In a system for which the fault current is practically determined by the fault location without being substantially affected by changes in the power source impedance it is advantageous to use inverse definite minimum time IDMT overcurrent protection This protection provides reasonably fast tripping even at a terminal close to the power source where the most severe faults can ...

Page 10: ...ing ranges of the curve defining constants OC2 and EF2 for stage 2 also provide the same inverse time protection as OC1 and EF1 0 1 1 10 100 1000 1 10 100 Operating Time s Current Multiple of Setting IEC UK Inverse Curves Time Multiplier 1 LTI NI VI EI 0 1 1 10 100 1 10 100 Operating Time s Current Multiple of Setting IEEE US Inverse Curves Time Multiplier 1 MI VI CO2 CO8 EI Figure 2 1 2 IDMT Char...

Page 11: ...s delayed for a user definable period When the energising current falls below the reset threshold the integral state the point towards operation that it has travelled of the timing function IDMT is held for that period This does not apply following a trip operation in which case resetting is always instantaneous Dependent time reset The dependent time resetting characteristic is applied only to th...

Page 12: ...nverse 0 02394 0 02 0 01694 2 261 2 User configurable curve 0 00 300 00 0 00 5 00 0 000 5 000 0 00 300 00 0 00 5 00 Note kr and β are used to define the reset characteristic Refer to equation 2 IEEE Reset Curves Time Multiplier 1 1 00 10 00 100 00 1000 00 0 1 1 Current Multiple of Setting Time s MI VI EI CO2 CO8 Figure 2 1 3 Dependent Time Reset Characteristics 2 1 2 Definite Time Overcurrent Prot...

Page 13: ... with selective definite time or inverse time characteristic The definite time protection is selected by setting MOC1 and MEF1 to D Definite time overcurrent elements OC1 D and EF1 D are enabled for phase fault and earth fault protection respectively and trip signal OC1 TRIP and EF1 TRIP are given through the delayed pick up timer TOC1 and TEF1 The inverse time protection is selected by setting MO...

Page 14: ...IP OC1 C TRIP 51 OC1 A 52 53 OC1 B OC1 C D OC1 I MOC1 OC1 2F ICD Block C B A OC1 HS OC1 A HS 88 OC1 B HS 89 OC1 C HS 90 Figure 2 1 5 Phase Fault Overcurrent Protection OC1 EF1 D 1 EF1 TRIP 0 00 300 00s TEF1 t 0 EF1 I EF1 BLOCK 1 ON EF1EN D MEF1 IEC IEEE US C 1 117 63 EF1 ICD Block EF1 2F EF1HS EF1 HS 91 Figure 2 1 6 Earth Fault Overcurrent Protection EF1 13 ...

Page 15: ...lier setting Required if MEF1 IEC IEEE US or C 0 00 300 00 s 0 01 s 1 00 s EF1 definite time setting Required if MEF1 DT TEF1R 0 0 300 0 s 0 1 s 0 0 s EF1 definite time delayed reset Required if MEF1 IEC or if EF1R DEF TEF1RM 0 010 1 500 0 001 1 000 EF1 dependent time delayed reset time multiplier Required if EF1R DEP OC1EN Off On On OC1 Enable MOC1 D IEC IEEE US C D OC1 characteristic MOC1C MOC1C...

Page 16: ...o operate for the maximum load current and that of the residual overcurrent element is restricted so as to not operate on false zero sequence current caused by an unbalance in the load current errors in the current transformer circuits or zero sequence mutual coupling of parallel lines F3 F2 F1 C B A Figure 2 1 7 Current Settings in Radial Feeder Time setting Time setting is performed to provide s...

Page 17: ...ent elements OC2 to OC4 and EF2 to EF4 provide instantaneous overcurrent protection OC2 and EF2 also provide the same inverse time protection as OC1 and EF1 OC2 to OC4 and EF2 to EF4 are phase fault and earth fault protection elements respectively Each element is programmable for instantaneous or definite time delayed operation The phase fault elements operate on a phase segregated basis although ...

Page 18: ...efinite Time Overcurrent Protection When applying inverse time overcurrent protection for a feeder system as shown in Figure 2 2 2 well coordinated protection with the fuses in branch circuit faults and high speed protection for the feeder faults can be provided by adding staged definite time overcurrent protection with time graded OC2 and OC3 or EF2 and EF3 elements Fuse GRE110 Figure 2 2 2 Feede...

Page 19: ...F3 OC4 and EF4 are used to output alarm signals OC4 ALARM and EF4 ALARM Each trip and alarm can be blocked by incorporated scheme switches OC2EN to EF4EN and binary input signals OC2 BLOCK to EF4 BLOCK OC D and EF D elements can be also blocked by the scheme switches OC 2F and EF 2F See Section 2 9 1 OC2 TRIP OC2 BLOCK 1 0 00 300 00s TOC2 t 0 IEC IEEE ON OC2EN C B A OC2 D t 0 1 t 0 1 C B A US C 1 ...

Page 20: ...Overcurrent Protection OC3 C B A OC4 0 00 300 00s TOC4 t 0 t 0 t 0 OC4 ALARM OC4 A ALARM OC4 B ALARM OC4 C ALARM 1 OC4 BLOCK 1 ON OC4EN 114 115 116 60 61 62 113 OC4 2F ICD Block Figure 2 2 6 Phase Overcurrent Protection OC4 EF2 D 1 EF2 TRIP 0 00 300 00s TEF2 t 0 EF2 I EF2 BLOCK 1 ON EF2EN D MEF2 IEC IEEE US C 1 118 64 EF1 ICD Block EF2 2F Figure 2 2 7 Earth fault Protection EF2 19 ...

Page 21: ...0 01 A 5 00 A OC2 threshold setting TOC2 0 010 1 500 0 001 1 000 OC2 time multiplier setting Required if MOC2 IEC IEEE US or C 0 00 300 00 s 0 01 s 0 00 s OC2 definite time setting TOC2R 0 0 300 0 s 0 1 s 0 0 s OC2 definite time delayed reset Required if MOC2 IEC or if OC2R DEF TOC2RM 0 010 1 500 0 001 1 000 OC2 dependent time delayed reset time multiplier Required if OC2R DEP OC3 0 10 150 0 A 0 0...

Page 22: ...stic MOC2C MOC2C IEC MOC2C IEEE MOC2C US NI VI EI LTI MI VI EI CO2 CO8 NI MI CO2 OC2 inverse curve type Required if MOC2 IEC Required if MOC2 IEEE Required if MOC2 US OC2R DEF DEP DEF OC2 reset characteristic Required if MOC2 IEEE or US OC2 2F NA Block NA OC2 2f block Enable OC3EN Off On Off OC3 Enable OC3 2F NA Block NA OC3 2f block Enable OC4EN Off On Off OC4 Enable OC4 2F NA Block NA OC4 2f blo...

Page 23: ...aximum Ia Ib Ic Ie TB1 1 2 3 4 5 6 7 8 Ia Ib Ic Residual current Ia Ib Ic Ie TB1 1 2 3 4 5 6 7 8 Ia Ib Ic from Zero phase current transformer Ie Ie a for Residual current detection wiring b for Zero phase current transformer wiring Ia Ib Ic Ie TB1 1 2 3 4 5 6 7 8 from Zero phase current transformer Ie c for only Zero phase current transformer wiring Figure 2 2 10 Earth fault current detection wiri...

Page 24: ...iently low compared to the fault current so that a highly sensitive setting is available The erroneous current may be caused with load current due to unbalanced configuration of the distribution lines or mutual coupling from adjacent lines The value of the erroneous current during normal conditions can be acquired on the metering screen of the relay front panel The earth fault current for SEF may ...

Page 25: ...al SEF2 TRIP is given The SEF1 protection provide stage 2 trip signal SEF1 S2 through a delayed pick up timer TSE1 S2 When the standby earth fault protection is applied by introducing earth current from the transformer low voltage neutral circuit stage 1 trip signals are used to trip the transformer low voltage circuit breaker If SEF1 D or SEF1 I continues operating after stage 1 has operated the ...

Page 26: ... 67 92 SEF1 SEF1 S2 TRIP 0 00 300 00s TS1S2 t 0 ON SE1S2 122 SE1 2F ICD Block Figure 2 3 2 Inverse Time or Definite Time SEF Protection SEF1 SEF2 D 1 SEF2 TRIP 0 00 300 00s TSE2 t 0 SEF2 I SEF2 BLOCK 1 ON SE2EN D MSE2 IEC IEEE US C 1 123 68 SEF2 SE2 2F ICD Block Figure 2 3 3 Inverse Time or Definite Time SEF Protection SEF2 25 ...

Page 27: ...01 1 000 SEF1 inverse time multiplier setting 0 00 300 00 s 1 0 01 s 1 00 s SEF1 definite time setting Required if MSE1 DT TSE1R 0 0 300 0 s 0 1 s 0 0 s SEF1 definite time delayed reset Required if MSE1 IEC or if SE1R DEF TSE1RM 0 010 1 500 0 001 1 000 SEF1 dependent time delayed reset time multiplier Required if SE1R DEP TS1S2 0 00 300 00 s 1 0 01 s 0 00 s SEF1 stage 2 definite time setting SE2 0...

Page 28: ...ff On Off SEF4 Enable 1 Time setting of TSE1 TSE4 should be set in consideration of the SEF drop off time 80 100ms SEF SEF is set smaller than the available earth fault current and larger than the erroneous zero phase current The erroneous zero phase current exists under normal conditions due to the unbalanced feeder configuration The zero phase current is normally fed from a core balance CT on th...

Page 29: ...y However the actual fault setting of the scheme includes the total current flowing in all parallel paths That is to say that the actual primary current for operation after being referred to the secondary circuit is the sum of the relay operating current the current flowing in the varistor and the excitation current of all the parallel connected CTs at the setting voltage In practice the varistor ...

Page 30: ... using earth fault current and zero phase voltage at the non grounding system Figure 2 3 5 illustrates the directional characteristic with the forward operate zone shaded The reverse zone is simply a mirror image of the forward zone The forward operate zone or reverse operate zone is selectable by the scheme switch SE DIR As shown in Figure 2 3 6 the directional characteristic is composed of a for...

Page 31: ...ation 87 5 leading Reverse Operate Zone CA 90 CA 90 CA Characteristic angle Figure 2 3 5 Directional Operate SEF Characteristic Figure 2 3 6 Directional element Ve Ie Ve Figure 2 3 7 Relationship Polarising signal Directional Forward Directional Reverse Overcurrent 1 4 stage 1 4 Forward 1 4 Reverse Note NOC provides stage 1 and 2 only 30 ...

Page 32: ... 1 C SEF1HS SEF1 HS NON 67 SE1 2F Block ICD 97 121 122 Figure 2 3 8 SEF1 Sensitive Earth Fault Protection Scheme Logic for models 820 and 821 SEF2 1 SEF2 INST ON SE2EN ZPF ZPR OFF ZPEN ON 1 1 1 SEF2 _TRIP 0 00 300 00s TSE2 t 0 D MSE2 IEC IEEE US REV SE2DIR FWD 1 C NON 68 SE2 2F Block ICD 157 123 Figure 2 3 9 SEF2 Sensitive Earth Fault Protection Scheme Logic for models 820 and 821 31 ...

Page 33: ...nts necessary for the sensitive earth fault protection for models 820 and 821 and their setting ranges Element Range Step Default Remarks SEFCT 1 20000 1 150 CT ratio for SEFCT SEθ 95 95 1 0 SEF characteristic angle SEV 0 5 100 0 0 1 V 3 0V SEF ZPS voltage level SE1 0 001 1 000 A 0 001 A 0 005 A SEF1 threshold setting TSE1 0 00 300 00 s 0 01 s 0 00 s SEF1 definite time setting Required if MSE1 D T...

Page 34: ...ON FWD SEF1 directional characteristic MSE1 D IEC IEEE US C D SEF1 characteristic MSE1C MSE1C IEC MSE1C IEEE MSE1C US NI VI EI LTI MI VI EI CO2 CO8 NI MI CO2 SEF1 inverse curve type Required if MSE1 IEC Required if MSE1 IEEE Required if MSE1 US SE1R DEF DEP DEF SEF1 reset characteristic Required if MSE1 IEEE or US SE1S2 Off On Off SEF1 stage 2 timer enable VTF SE1BLK Off On Off VTF block enable SE...

Page 35: ...s three phase only The tripping and alarming outputs can be blocked by scheme switches or a binary input signal Scheme Logic Figure 2 4 1 shows the scheme logic of the phase undercurrent protection Two undercurrent elements UC1 and UC2 output trip and alarm signals UC1 TRIP and UC2 ALARM through delayed pick up timers TUC1 and TUC2 Those protections can be disabled by the scheme switches UC1EN and...

Page 36: ...A 0 01 A 0 40 A UC1 threshold setting TUC1 0 00 300 00 s 0 01 s 0 00 s UC1 definite time setting UC2 0 10 10 0 A 0 01 A 0 20 A UC2 threshold setting TUC2 0 00 300 00 s 0 01 s 0 00 s UC2 definite time setting UC1EN Off On Off UC1 Enable UC2EN Off On Off UC2 Enable 35 ...

Page 37: ...es according to the characteristics defined in IEC60255 8 Refer to Appendix A for the implementation of the thermal model for IEC60255 8 Time to trip depends not only on the level of overload but also on the level of load current prior to the overload that is on whether the overload was applied from cold or from hot Independent thresholds for trip and alarm are available The characteristic of ther...

Page 38: ... 2 5 2 shows the scheme logic of the thermal overload protection The thermal overload element THM has independent thresholds for alarm and trip and outputs alarm signal THM ALARM and trip signal THM TRIP The alarming threshold level is set as a percentage of the tripping threshold The alarming and tripping can be disabled by the scheme switches THMAEN and THMTEN respectively or binary input signal...

Page 39: ... set to lower sensitivity when the load current is large but NPS sensitivity is not affected by magnitude of the load current except in the case of erroneous negative sequence current due to the unbalanced configuration of the distribution lines For some earth faults only a limited amount of zero sequence current is fed while the negative sequence current is comparatively larger This is probable w...

Page 40: ... setting for tripping NPS2 0 10 10 0 A 0 01 A 0 20 A NPS2 threshold setting for alarming TNPS1 0 00 300 00 s 0 01 s 0 00 s NPS1 definite time setting TNPS2 0 00 300 00 s 0 01 s 0 00 s NPS2 definite time setting NPS1EN Off On Off NPS1 Enable NPS2EN Off On Off NPS2 Enable Sensitive setting of NPS1 and NPS2 thresholds is restricted by the negative phase sequence current normally present on the system...

Page 41: ...ion diagram in the case of a single phase series fault assuming that the positive negative and zero sequence impedance of the left and right side system of the fault location is in the ratio of k1 to 1 k1 k2 to 1 k2 and k0 to 1 k0 Positive phase sequence Single phase series fault Zero phase sequence k2Z2 1 k2 Z2 k0Z0 1 k0 Z0 E1A E1B I1F I1F I2F I2F I0F I0F Negative phase sequence 1 k1 Z1 k1Z1 E1B ...

Page 42: ...rent depends on the overall system impedance difference in phase angle and magnitude between the power source voltages behind both ends Broken conductor protection element BCD detects series faults by measuring the ratio of negative to positive phase sequence currents I2F I1F This ratio is given with negative and zero sequence impedance of the system I2F I1F I2F I1F Z0 Z2 Z0 The ratio is higher th...

Page 43: ...and their setting ranges Element Range Step Default Remarks BCD 0 10 1 00 0 01 0 20 I2 I1 TBCD 0 00 300 00s 0 01s 0 00 s BCD definite time setting BCDEN Off On Off BCD Enable BCD 2F NA Block NA BCD blocked by inrush current Minimum setting of the BC threshold is restricted by the negative phase sequence current normally present on the system The ratio I2 I1 of the system is measured in the relay c...

Page 44: ...s EXT TRIP A to C or three phase base trip signal EXT TRIP3PH of the external line protection or an internal trip signal CBF INIT These trip signals must continuously exist as long as the fault is present The backtripping signal to the adjacent breakers CBF TRIP is output if the overcurrent element CBF operates continuously for the setting time of the delayed pick up timer TBTC after initiation Tr...

Page 45: ... 0 t 0 t 0 EXT TRIP CPH EXT TRIP3PH CBF INIT OC RTC 1 1 1 82 83 84 140 139 187 188 189 Figure 2 8 1 Breaker Failure Protection Scheme Logic Fault CBF TRIP TBTC CBF RETRIP TRTC OCBF Original breakers Adjacent breakers TRIP Retrip Toc Toc Tcb Tcb TRTC TBTC Normal trip Open Closed Start CBFP Open Open Closed Trip Figure 2 8 2 Sequence Diagram 44 ...

Page 46: ...rrent The settings of TRTC and TBTC are determined by the opening time of the original circuit breaker Tcb in Figure 2 8 2 and the reset time of the overcurrent element Toc in Figure 2 8 2 The timer setting example when using retrip can be obtained as follows Setting of TRTC Breaker opening time CBF reset time Margin 40ms 10ms 20ms 70ms Setting of TBTC TRTC Output relay operating time Breaker open...

Page 47: ...CD detects the ratio ICD 2f between second harmonic current I2f and fundamental current I1f in each phase current and operates if its ratio is larger than the setting value Figure 2 9 1 shows the characteristic of the ICD element and Figure 2 9 2 shows the ICD block scheme When ICD operates OC EF SEF NPS and BCD elements are blocked independently The scheme logic of each element is shown in the pr...

Page 48: ...by the scheme switch CLSG setting 2 9 2 1 Scheme Logic A state transition diagram and its scheme logic are shown in Figure 2 9 3 and Figure 2 9 4 for the cold load protection Note that the scheme requires the use of two binary inputs one each for CB OPEN and CB CLOSED Under normal conditions where the circuit breaker has been closed for some time the scheme is in STATE 0 and the normal default set...

Page 49: ... current IL CB opens CB closes within TCLE time TCLE timer expires CB closes CB opens within CLR time TCLR timer expires IL ICLDO for TCLDO time Figure 2 9 3 State Transition Diagram for Cold Load Protection 1 1 Change to STATE 2 CB OPEN 0 10000s TCLE t 0 Change to STATE 0 STATE 2 STATE 3 t 0 0 10000s 0 00 100 00s TCLDO TCLR t 0 Change to STATE 3 STATE 0 Change to STATE 1 CB CLOSE 1 ON CLDOEN 1 C ...

Page 50: ... binary output circuit to trip adjacent circuit breakers as shown in Figure 2 10 2 After the trip signal disappears by clearing the fault the reset time of the tripping output relay can be set with the scheme switch Reset to instantaneous Ins delayed Dl dwell Dw or latched Lat The time of the delayed drop off Dl or dwell operation Dw can be set by TBO The setting is respective for each output rela...

Page 51: ...P SEF1 S2 TRIP SEF2 TRIP SEF3 TRIP UC1 TRIP THM TRIP NPS1 TRIP BCD TRIP CBF RETRIP 1 1 Binary output circuit GENERAL TRIP 1 REMOTE RESET 0 00 10 00s 0 t RESET S R F F 1 Tripping output relay Reset button BO m Dl Lat Ins TBO Dw 1 141 Figure 2 10 1 Tripping Output for Local Circuit Breaker 50 ...

Page 52: ...tions are close together and pilot cables can be economically run between switchboards Figure 2 11 1 shows the operation of the scheme Instantaneous phase fault and earth fault pick up signals OC1 HS and EF1 HS of OC1 and EF1 elements are allocated to any of the binary output relays and used as a blocking signal OC2 and EF2 protections are set with a short delay time For pick up signals refer to F...

Page 53: ...e delays and set to grade with downstream protections The incomer protection is programmed to trip via its instantaneous elements OC2 and EF2 set with short definite time delay settings minimum 50ms thus providing rapid isolation for faults in the busbar zone F2 At the incomer inverse time graded operation with elements OC1 and EF1 are available with the scheme switch MOC1 setting thus providing b...

Page 54: ... a limit of 10 may be acceptable Overcurrent factor The multiple of the CT rating up to which the accuracy limit is claimed typically 10 or 20 times A value of 20 should be specified where maximum fault current is high and accurate inverse time grading is required In applications where fault current is relatively low or where inverse time grading is not used then an overcurrent factor of 10 may be...

Page 55: ...econdary winding R2 secondary circuit resistance including lead resistance When using this method it should be noted that it is often not necessary to transform the maximum fault current accurately The knee point should be chosen with consideration of the settings to be applied and the likely effect of any saturation on protection performance Further care should be taken when determining R2 as thi...

Page 56: ...he ARCEN is set to ON TRDY is used to determine the reclaim time If the autoreclose is ready then reclosing can be activated by the PLC signal ARC_INIT etc Auto reclose conditions such as voltage and synchronism check VCHK etc can be provided by PLC signals ARC S _COND Once autoreclose is activated it is maintained using a flip flop circuit until one reclosing cycle is completed Autoreclose succes...

Page 57: ... have not been met In the OC EF and SE protections each tripping is selected by setting OC TP EF TP or SE TP to any one of Inst instantaneous trip Set delayed trip by T and M setting or Off blocked 213 0 1 300 0s TARCP t 0 Reset STEP COUNTER SP3 SP2 SP1 CLK SP4 SP5 ARC SUCCESS ARC FT 0 01 10 00s 1 MANUAL CLOSE 0 1 600 0s TRCOV 0 t 1 CB CLOSE 0 01 300 00s TRSET t 0 0 01 310 00s TR1 t 0 ARC FT ON OF...

Page 58: ...rnal autoreclose initiation is an autoreclose initiation via programmable binary inputs Whether autoreclose initiation is active or not is selected by setting EXT INIT Setting EXT INIT NA On Block BLK EXT INIT ARCEN ON 1 0 0 600 0s TRDY t 0 INIT BLK 211 1 1 EXT_TRIP A EXT_TRIP B EXT_TRIP C EXT_TRIP ARC_INIT 301 1 1 1 302 ARC_READY 1 ON 1 ARC_BLOCK 1 cycle 1 TP1 ARC_NO_ACT INIT ON ARC_BLK_OR 210 RS...

Page 59: ... FT The following cases are judged ARC FT Final Trip and autoreclose is reset without autoreclose output Autoreclose initiation when autoreclose initiation is not ready Autoreclose initiation after output of the final shot for the setting applied in the multi shot mode Autorecloce block signal Autoreclose block signal by programmable BI OC1 to OC4 EF1 to EF4 and SEF1 to SEF 4 trip of setting autor...

Page 60: ...claim time TD1 0 01 300 00 s 0 01 s 10 00 s 1st shot dead time for Stage 1 TR1 0 01 310 00 s 0 01 s 310 00 s 1st shot reset time for Stage 1 TD2 0 01 300 00 s 0 01 s 10 00 s 2nd shot dead time for Stage 1 TR2 0 01 310 00 s 0 01 s 310 00 s 2nd shot reset time for Stage 1 TD3 0 01 300 00 s 0 01 s 10 00 s 3rd shot dead time for Stage 1 TR3 0 01 310 00 s 0 01 s 310 00 s 3rd shot reset time for Stage 1...

Page 61: ...trip mode of 6th trip OC4 INIT NA A1 A2 BLK NA Autoreclose initiation by OC4 OC4 TP1 OFF INST SET SET OC4 trip mode of 1st trip OC4 TP2 OFF INST SET SET OC4 trip mode of 2nd trip OC4 TP3 OFF INST SET SET OC4 trip mode of 3rd trip OC4 TP4 OFF INST SET SET OC4 trip mode of 4th trip OC4 TP5 OFF INST SET SET OC4 trip mode of 5th trip OC4 TP6 OFF INST SET SET OC4 trip mode of 6th trip EF1 INIT NA A1 A2...

Page 62: ...NST SET SET SE2 trip mode of 4th trip SE2 TP5 OFF INST SET SET SE2 trip mode of 5th trip SE2 TP6 OFF INST SET SET SE2 trip mode of 6th trip SE3 INIT NA A1 A2 BLK NA Autoreclose initiation by SE3 SE3 TP1 OFF INST SET SET SE3 trip mode of 1st trip SE3 TP2 OFF INST SET SET SE3 trip mode of 2nd trip SE3 TP3 OFF INST SET SET SE3 trip mode of 3rd trip SE3 TP4 OFF INST SET SET SE3 trip mode of 4th trip S...

Page 63: ...tected Relay Fail Red Lit when a relay failure is detected CB CLOSED Red Green Yellow Lit when CB is closed CB OPEN Green Lit when CB is open LOCAL Yellow Lit when Local Control is enabled REMOTE Yellow Lit when Remote Control is enabled LED1 Red Green Yellow User configurable LED2 Red Green Yellow User configurable LED3 Red Green Yellow User configurable LED4 Red Green Yellow User configurable LE...

Page 64: ...e LOCAL LED is lit CB can be controlled by and keys on front panel When the REMOTE LED lit CB can be controlled by binary input signal or communication When neither of these LEDs is lit the CB control function is disable The key starts the Digest screen Metering Virtual LED indication on LCD The key makes screen change Virtual LED Metering Indication and back light off when the LCD is on the Diges...

Page 65: ... programmable and provided with the function of Logic level inversion detection threshold voltage change and Function selection Logic level inversion and detection threshold voltage change The binary input circuit of the GRE110 is provided with a logic level inversion function a pick up and drop off delay timer function and a detection threshold voltage change as shown in Figure 3 2 1 Each input c...

Page 66: ...n function pick up and drop off delay timer and detection voltage change settings are as follow Element Contents Range Step Default BI1SNS BI6SNS Binary switch Norm Inv Norm BITHR1 BI1 2 threshold Voltage 48 110 220 12 24 48 24 48 110 110 24 48 BITHR2 BI3 6 threshold voltage 110 220 24 48 48 110 110 24 110 TCSPEN TCS enable Off On Opt On Off BI1PUD BI6PUD Delayed pick up timer 0 00 300 00s 0 01s 0...

Page 67: ... the functions listed in Table 3 2 2 Each input signal can be allocated for one or some of those functions by setting For the setting refer to Section 4 2 6 8 The Table also shows the signal name corresponding to each function used in the scheme logic and LCD indication and driving contact condition required for each function BI1 COMMAND ON OC1BLK OC1 BLOCK ON Alarm4 Alarm 4 ON OC2BLK OC2 BLOCK ON...

Page 68: ...CB open state monitoring CB CONT OPN CBOPN CB normally open contact closed CB close state monitoring CB CONT CLS CBCLS CB normally close contact closed Breaker failure protection initiate EXT TRIP3PH EXT3PH External trip 3 phase Breaker failure protection initiate EXT TRIP APH EXTAPH External trip A phase Breaker failure protection initiate EXT TRIP BPH EXTBPH External trip B phase Breaker failure...

Page 69: ...O2 and all other signals are blocked from output relay BO1 when control function is enable Signals can be combined using either an AND circuit or OR circuit with 4 gates each as shown in Figure 3 2 3 The output circuit can be configured according to the setting menu Appendix H shows the factory default settings Further each BO has a programmable reset characteristic settable for instantaneous drop...

Page 70: ...figured signal in many logic sequences PLC logic is assigned to protection signals by using the PLC tool For details of the PLC tool refer to the PLC tool instruction manual see 6F2S0810 Instruction manual PLC TOOL Figure 3 2 4 1 Sample Screen for PLC Tool 3 3 Automatic Supervision 3 3 1 Basic Concept of Supervision Though the protection system is in a non operating state under normal conditions i...

Page 71: ... a prescribed range and that the A D conversion characteristics are correct Memory monitoring Memory is monitored as follows depending on the type of memory and checks are done to verify that memory circuits are healthy Random access memory monitoring Writes reads prescribed data and checks the storage function Program memory monitoring Checks the checksum value of the written data Setting value m...

Page 72: ... TCSV is output when TC FAIL is 0 The monitoring is enabled by setting the scheme switch TCSPEN to ON or OPT ON and the one BI selected TCFAIL When OPT ON is selected the monitoring is enabled only while CB is closed GRE110 Circuit Breaker Binary Input CB Aux Contacts CB Trip Coil Trip Output ve Trip Supply ve Trip Supply Figure 3 3 1 Trip Circuit Supervision by 1 binary input TC FAIL 1 TCSPEN ON ...

Page 73: ... closed A typical value for a 110V dc rated circuit is 3 3kΩ 3 3 4 Circuit Breaker Monitoring The relay provides the following circuit breaker monitoring functions Circuit Breaker State Monitoring Circuit breaker state monitoring is provided for checking the correct condition of the circuit breaker CB in accordance with the position of its auxiliary switches If two binary inputs are programmed to ...

Page 74: ...red For other circuit breaker types especially those for HV systems y may be set lower typically 1 0 An alarm is issued when the count for any phase exceeds a user defined setting Iy ALM The Iy count alarm can be enabled or disabled by setting the scheme switch Iy AEN Operating time monitoring is provided for CB mechanism maintenance It checks CB operating time and the need for mechanism maintenan...

Page 75: ...C err Relay fail A CB state monitoring Err CB On On Off CB err Relay fail A CB condition monitoring Trip count alarm ALM TP COUNT On On Off TP COUNT ALM Relay fail A Operating time alarm ALM OP time On On Off OP time ALM Relay fail A Iy count alarm ALM IY On On Off IY A ALM IY B ALM or IY C ALM Relay fail A 1 Diverse messages are provided as expressed with Err in the table in Section 6 7 2 2 The L...

Page 76: ...Other scheme switches are set in the Scheme sw sub menu 3 4 Recording Function The GRE110 is provided with the following recording functions Fault recording Event recording Disturbance recording These records are displayed on the LCD of the relay front panel or on the local or remote PC 3 4 1 Fault Recording Fault recording is started by a tripping command of the GRE110 and the following items are...

Page 77: ...odel 400 401 402 Model 420 421 422 Model 820 821 Phase current Ia Ib Ic Ia Ib Ic Ia Ic Zero sequence current Ie Ie Ise Ise Zero phase voltage Ve Positive and negative sequence current I1 I2 I1 I2 Ratio of Negative to positive sequence current I2 I1 I2 I1 Percentage of thermal capacity THM THM THM 3 4 2 Event Recording The events shown in Appendix C are recorded with the 1 ms resolution time tag wh...

Page 78: ...he number of records stored is shown in Table 3 4 2 Recording time pre fault recording time post fault recording time Note If the recording time setting is changed the records stored so far are deleted Table 3 4 2 Post Fault Recording Time and Number of Disturbance Records Stored Recording time 0 2s 1 0s 1 5s 2 0s 3 0s 4 0s 5 0s 50Hz 40 29 19 14 9 7 5 60Hz 40 24 16 12 8 6 5 Settings The elements n...

Page 79: ...m value displays above the measured quantity is averaged over a rolling 15 minute time window and the maximum recorded average value is shown on the display screen The zero sequence current Ie in the model 420 is calculated from the three phase input currents and the calculated Ie I0 is displayed The Ie in other settings and models is displayed the current fed from CT The zero phase voltage Ve inp...

Page 80: ...d with a liquid crystal display LCD light emitting diodes LED operation keys and USB type B connector a Model 400 401 420 421 820 821 b Model 402 422 Figure 4 1 1 Front Panel of GRE110 without cover LCD The LCD screen provided with an 8 line 16 character display and back light provides the user with information such as records statuses and settings The LCD screen is normally unlit but pressing key...

Page 81: ...e TRIP LED can be turned off by pressing the RESET key Other LEDs are lit as long as a signal is present and the RESET key is invalid while the signal is being maintained Operation keys The operation keys are used to display records status and set values on the LCD as well as to input or change set values The function of each operation key is as follows Used to move between lines displayed on a sc...

Page 82: ...r USB transmission and is mounted on the front panel By connecting a personal computer to this connector setting operation and display functions can be performed RS485 port The RS485 port is used for MODBUS communication or the IEC60870 5 103 communication to connect between relays and to construct a network communication system The RS485 port is provided on the rear of the relay as shown in Figur...

Page 83: ...section are samples for a typical model 4 2 1 LCD and LED Displays Displays during normal operation When the GRE110 is operating normally the green IN SERVICE LED is lit and the LCD is off Press the key when the LCD is off to display the digest screens which are Indication Metering Latest fault Auto supervision and Alarm Display screens in turn Latest fault Auto supervision and Alarm Display scree...

Page 84: ...igned to trigger by tripping Press the to scroll the LCD screen to read the rest of the messages Press the RESET key for more than 3s to turn off the LEDs Trip LED and configurable LEDs LED1 through LED6 are assigned to latched signal by trigger of tripping To return from the menu screen to the digest Latest fault screen do the following Return to the top screen of the menu by repeatedly pressing ...

Page 85: ... Return to the top screen of the menu by repeatedly pressing the END or CANCEL key Press the END key to turn off the LCD Press the key to display the digest screens Alarm Display Alarm Display ALM1 to ALM4 A L M 1 The four alarm screens can be provided and their text messages are defined by the user For setting see Section 4 2 6 8 These alarms are raised by associated binary inputs Press the to di...

Page 86: ...ontrast Set view Version Description Comms Record Status Protection Binary I P Binary O P LED Control Frequency Set change Password Description Comms Record Status Protection Binary I P Binary O P LED Control Frequency Control Password Ctrl Local Remote CB close open Test Password Test Switch Binary O P Figure 4 2 1 Relay Menu 85 ...

Page 87: ...ping it has password security protection Control The Control menu is used to operate the CB When the cursor is at Local Remote position the CB control location change over key L R is enabled When the cursor is at CB close open position the CB control keys and are enabled Since this is an important menu and is related to relay tripping it has password security protection Test The Test menu is used ...

Page 88: ...higher screen but it must be used carefully because it may cancel entries made so far To move between screens of the same hierarchical depth first return to the higher screen and then move to the lower screen 4 2 3 Displaying Records The sub menu of Record is used to display fault records event records disturbance records and counts such as trip count and ΣIy count 4 2 3 1 Displaying Fault Records...

Page 89: ...0 0 0 0 0 0 Move the cursor to the fault record line to be displayed using the and keys and press the ENTER key to display the details of the fault record The lines which are not displayed in the window can be displayed by pressing the and keys 4 F a u l t 1 0 1 J a n 2 0 0 9 0 0 0 0 0 0 0 0 0 O C 1 P h a s e A B C E P r e f a u l t v a l u e s I a k A I b k A I c k A I e k A I s e k A Not availab...

Page 90: ...fault records stored in back up RAM If all fault records have been cleared the Latest fault screen of the digest screens is not displayed If the metering value exceed the displayable digits the metering value indicate maximam value and at the right of unit Note When changing the units kA A of primary side current with RSM100 press the Units button which is indicated in the primary side screen 4 2 ...

Page 91: ... g 2 0 0 9 0 0 1 O C 1 A t r i p O n The time is displayed by pressing the key 3 E v e n t 1 3 2 2 4 5 2 1 1 O C 1 A t r i p O n 1 3 2 2 4 5 2 0 0 O C 1 A t r i p O N 1 3 2 2 4 5 1 1 1 O C 1 A t r i p O n 1 3 2 2 4 4 2 1 1 O C 1 A t r i P O N 1 3 2 2 4 4 2 0 0 O C 1 A t r i p O N 1 3 2 2 4 4 1 1 1 O C 1 A t r i p O n 1 3 2 2 4 4 1 0 0 O C 1 A t r i p O n Press the key to return the screen with dat...

Page 92: ...in the following sequence For the display on the PC screen refer to RSM100 manual Open the top MAIN MENU screen by pressing ENTER key Select Record to display the Record sub menu Select Disturbance to display the Disturbance screen 2 D i s t u r b a n c e V i e w r e c o r d C l e a r Select View record to display the date and time of the disturbance records from the top in new to old sequence 3 D...

Page 93: ...a r T r i p s C l e a r T r i p s A C l e a r T r i p s B C l e a r T r i p s C C l e a r Σ I y A C l e a r Σ I y B C l e a r Σ I y C C l e a r A R C s Note These settings are only available when single phase External Trip BI functions are used In this case the main Clear Trips option is not available Select Display to display the counts stored in the relay 3 C o u n t e r T r i p s T r i p s A T ...

Page 94: ...r Trips A to display the following confirmation screen C l e a r T r i p s A E N D Y C A N C E L N Select Clear Trips B to display the following confirmation screen C l e a r T r i p s B E N D Y C A N C E L N Select Clear Trips C to display the following confirmation screen C l e a r T r i p s C E N D Y C A N C E L N Select Clear Σ I yA to display the following confirmation screen C l e a r Σ I ｙ ...

Page 95: ...ock adjustment Status of LCD contrast The data are updated every second 4 2 4 1 Displaying Metering Data To display metering data on the LCD do the following Select Status on the top MAIN MENU screen to display the Status screen 1 S t a t u s M e t e r i n g D i r e c t i o n Display at model 820 and 821 B i n a r y I O R e l a y e l e m e n t T i m e s y n c C l o c k a d j u s t L C D c o n t r ...

Page 96: ...V Display at model 820 and 821 To clear all max data do the following Press the RESET key on any max demand screen primary or secondary to display the following confirmation screen C l e a r m a x E N D Y C A N C E L N Press the END Y key to clear all max data stored in back up RAM If the primary side unit A is required select 2 Pri A on the Metering screen See Section 4 2 6 6 Note When changing t...

Page 97: ...e 2 shows the binary output status All binary outputs BO1 to BO4 and FAIL are configurable The status of these outputs is expressed with logical level 1 or 0 at the input circuit of the output relay driver That is the output relay is energised when the status is 1 FAIL is a normally closed contact for detection of a relay fail condition Line 3 shows the binary output status for model 402 or 422 BO...

Page 98: ...PS1 NPS2 BC CBFABC A B C A B C CBF TRIP CBF RETRIP Cold Ld 0 1 2 3 Cold Load state ICD A B C The status of each element is expressed with logical level 1 or 0 Status 1 means the element is in operation 4 2 4 4 Displaying the Status of the Time Synchronisation Source The internal clock of the GRE110 can be synchronised with external clocks such as the binary input signal clock Modbus or IEC60870 5 ...

Page 99: ... 0 _ H o u r 0 _ D a y 2 6 _ M o n t h 8 _ Y e a r 2 0 0 9 _ Line 1 and 2 show the current date and time The time can be adjusted only when the clock is running locally When BI M or S is active the adjustment is invalid Enter a numerical value for each item and press the ENTER key For details to enter a numerical value see 4 2 6 1 Press the END key to adjust the internal clock to the set hours wit...

Page 100: ... condition display If the Ise input dirrection is same as Ve displayed Forwaed If the Ise input direction is same as Ve displayed Reverse 4 2 5 Viewing the Settings The sub menu Set view is used to view the settings made using the Set change The following items are displayed Relay version Description Relay address and baud rate in the Modbus communication or optional communication Record setting S...

Page 101: ... a y t y p e S o f t w a r e Select Relay type to display the relay type form and model number ex GRE110 400A 10 10 G R E 1 1 0 4 0 0 A 1 0 1 0 Select Software to display the relay software type form and version and PLC data ex GS1EM1 01 A S o f t w a r e G S 1 E M 1 0 1 P L C d a t a P G R E 1 1 0 A 4 2 5 2 Settings The Description Comms Record Status Protection Binary I P Binary O P LED Control ...

Page 102: ... in one menu becoming active or inactive depending on the selection made in another menu Therefore it is recommended that all necessary settings changes be made while the circuit breaker tripping circuit is disconnected Alternatively if it is necessary to make settings changes with the tripping circuit active then it is recommended to enter the new settings into a different settings group and then...

Page 103: ... select a character use keys and to move blinking cursor down up left and right and on final line indicate a space and backspace respectively A maximum of 22 characters can be entered _ A B C D E F G H I J K L M N O P Q R S T U V W X Y Z a b c d e f g h i j K l m n o p q r s t u v w x y z 0 1 2 3 4 5 6 7 8 9 _ Set the cursor position in the bracket by selecting or and pressing the ENTER key Move t...

Page 104: ...ue is up or down by pressing the or key Press the ENTER key to enter the value After completing the setting on the screen press the END key to return to the upper screen To correct the entered numerical value do the following If it is before pressing the ENTER key press the CANCEL key and enter the new numerical value If it is after pressing the ENTER key move the cursor to the correcting line by ...

Page 105: ...t number within the brackets after Input and press the ENTER key S e t c h a n g e I n p u t _ 1 2 3 4 5 6 7 8 9 0 For confirmation enter the same 4 digit number in the brackets after Retype S e t c h a n g e R e t y p e _ 1 2 3 4 5 6 7 8 9 0 Press the END key to display the confirmation screen If the retyped number is different from that first entered the following message is displayed on the bot...

Page 106: ...NU screen The screen goes off and the password protection of the GRE110 is canceled Set the password again 4 2 6 3 Plant Name To enter the plant name and other data do the following These data are attached to records Select Set change on the MAIN MENU screen to display the Set change screen Select Description to display the Description screen 2 D e s c r i p t i o n P l a n t n a m e D e s c r i p...

Page 107: ...en to enter the relay address number 3 A d d r P a r a m M o d b u s _ M o d b u s 1 I E C 1 I P 1 1 0 I P 1 2 0 I P 1 3 0 I P 1 4 0 S M 1 1 0 S M 1 2 0 S M 1 3 0 S M 1 4 0 G W 1 1 0 G W 1 2 0 G W 1 3 0 G W 1 4 0 I P 2 1 0 I P 2 2 0 I P 2 3 0 I P 2 4 0 S M 2 1 0 S M 2 2 0 S M 2 3 0 S M 2 4 0 G W 2 1 0 G W 2 2 0 G W 2 3 0 G W 2 4 0 This setting is displayed if submodel of communication type is A D ...

Page 108: ...6 0 I E C I 7 0 I E C I 8 0 I E C 2 B 1 1 I E C 2 B 2 2 I E C 2 B 3 3 I E C 2 B 4 4 I E C 2 G T 1 I E C 2 A T 1 I E C 2 B T 1 I E C 2 C T 1 I E C 2 E 1 0 I E C 2 E 2 0 I E C 2 E 3 0 I E C 2 E 4 0 I E C 2 E 5 0 I E C 2 E 6 0 I E C 2 E 7 0 I E C 2 E 8 0 I E C 2 I 1 0 I E C 2 I 2 0 I E C 2 I 3 0 This setting is displayed if RS485P in comms switch settimg is IEC103 This setting is displayed if submode...

Page 109: ...ECB4 by entering the number corresponding to each signal referring to Appendix B The lines IECGT to IECCT are used for fault indications for IEC103 events INF68 to INF71 in Appendix N Assign signals to the columns IECGT to IECCT by entering the BO numbers 1 to 8 corresponding to the binary output settings The lines IECE1 to IECE8 are used to assign the signals for user customization Assign signals...

Page 110: ... Y e s I E C G I 6 0 N o Y e s I E C G I 7 0 N o Y e s I E C G I 8 0 N o Y e s I E C 2 G I 1 0 N o Y e s I E C 2 G I 2 0 N o Y e s I E C 2 G I 3 0 N o Y e s I E C 2 G I 4 0 N o Y e s This setting is displayed if RS485P in comms switch settimg is IEC103 This setting is displayed if submodel of communication type is A0 D0 This setting is displayed if submodel of communication type is A D and RS485P ...

Page 111: ...ne is to select the communication protocol when the IEC61850 system applied 61850BLK Select 1 Blocked to block transmission from relay to BCU for IEC61850 communication When using the IEC61850 communication select 0 Normal TSTMOD Select 1 On to set the test mode in IEC61850 communication GSECHK This function is to alarm if any one of the GOOSE messages written in a GOOSE subscribe file cannot be r...

Page 112: ...ng the event recording Select Event to display the Event screen 3 E v e n t B I 1 c o m m _ B I 1 c o m m 3 N O R B B I 2 c o m m 3 N O R B B I 3 c o m m 3 N O R B B I 4 c o m m 3 N O R B B I 5 c o m m 3 N O R B B I 6 c o m m 3 N O R B Enter 0 None or 1 Operate or 2 Reset or 3 Both for BI command trigger setting and press the ENTER key Setting the disturbance recording Select Disturbance to displa...

Page 113: ...to display the Scheme sw screen 4 S c h e m e s w T R I P _ T R I P 1 O f f O n B I 1 O f f O n O C 1 O f f O n E F 1 O f f O n S E F 1 Not available for model 400 series O f f O n Not available for model 400 series N P S 1 Not available for model 820 series O f f O n Not available for model 820 series Enter 1 to use as a starter If not to be used as a starter enter 0 To set each signal number to ...

Page 114: ...ay the Scheme sw screen 4 S c h e m e s w T C S P E N _ T C S P E N 1 O f f O n O p t O n C B S M E N 1 O f f O n T C A E N 1 O f f O n Σ I y A E N 1 O f f O n O P T A E N 1 O f f O n Enter 1 to use as a counter If not to be used as a counter enter 0 To set threshold setting do the following Select Alarm set on the Counter screen to display the Alarm set screen 4 A l a r m s e t T C A L M _ T C A ...

Page 115: ...i A to display the primary side current in amperes A Setting the time synchronisation The calendar clock can run locally or be synchronised with the binary input signal or Modbus or IEC103 or SNTP This is selected by setting as follows Select Time sync to display the Time sync screen 3 T i m e s y n c T i m e s y n c _ T i m e s y n c 1 O f f B I M o d 1 0 3 S N T P Enter 0 1 2 3 or 4 and press th...

Page 116: ...ence between GMT and local time Enter numerical values to GMT hours and GMTm minutes and press the ENTER key 3 T i m e z o n e G M T _ G M T 0 h r s G M T m 0 m i n 4 2 6 7 Protection The GRE110 can have 2 setting groups for protection in order to accommodate changes in the operation of the power system one setting group is assigned active To set the protection do the following Select Protection o...

Page 117: ...to control the TRIP LED lighting when an alarm element outputs Enter 1 On to light the TRIP LED when an alarm element outputs and press the ENTER key If not enter 0 Off and press the ENTER key Setting the group Select the group to change the settings and press the ENTER key 4 G r o u p P a r a m e t e r T r i p A R C Setting the parameter Enter the line name and the CT ratio as follows Select Para...

Page 118: ... screen to display the Trip screen 5 T r i p S c h e m e s w P r o t e l e m e n t Setting the scheme switch Select Scheme sw to display the Scheme sw screen 6 S c h e m e s w A p p l i c a t i o n P F p r o t E F p r o t S E F p r o t Not available for model 400 series M i s c p r o t Setting the application To set the application setting do the following Select Application on the Scheme sw scree...

Page 119: ...ng block or only alarming when a failure is detected by the automatic supervision Enter 0 ALM BLK alarming and tripping block or 1 ALM only alarming and press the ENTER key Setting the PF protection Select PF prot to display the PF prot screen 7 P F p r o t O C 1 E N _ O C 1 E N 1 O f f O n M O C 1 C I E C 0 This setting is displayed if MOC1 is 1 IEC N I V I E I L T I M O C 1 C I E E E 0 This sett...

Page 120: ...ey If disabling the OC1 or OC2 enter 0 Off and press the ENTER key MOC1C MOC2C To set the Inverse Curve Type do the following If MOC1C or MOC2C is 1 IEC enter 0 NI or 1 VI or 2 EI or 3 LTI and press the ENTER key If MOC1C or MOC2C is 2 IEEE enter 0 MI or 1 VI or 2 EI and press the ENTER key If MOC1C or MOC2C is 3 US enter 0 CO2 or 1 CO8 and press the ENTER key OC1R OC2R To set the Reset Characteri...

Page 121: ... n M E F 1 C I E C 0 This setting is displayed if MEF1 is 1 IEC N I V I E I L T I M E F 1 C I E E E 0 This setting is displayed if MEF1 is 2 IEEE M I V I E I M E F 1 C U S 0 This setting is displayed if MEF1 is 3 US C O 2 C O 8 E F 1 R 0 This setting is displayed if MEF1 is 2 IEEE 3 US or 4 C D E F D E P E F 1 2 F 0 N A B l o c k E F 2 E N 1 O f f O n M E F 2 C I E C 0 This setting is displayed if...

Page 122: ...EF2C is 3 US enter 0 CO2 or 1 CO8 and press the ENTER key EF1R EF2R To set the Reset Characteristic do the following If MEF1C or MEF2C is 2 IEEE 3 US or 4 C enter 0 DEF or 1 DEP and press the ENTER key EF3EN EF4EN Enter 1 On to enable the EF3 and press the ENTER key If disabling the EF3 enter 0 Off and press the ENTER key The EF4 is the same EF1 2F EF2 2F EF3 2F EF4 2F Enter 1 Block to block the E...

Page 123: ... S E 1 R 0 This setting is displayed if MSE1 is 2 IEEE 3 US or 4 C D E F D E P S E 1 S 2 0 O f f O n S E 1 2 F 0 N A B l o c k S E 2 E N 1 O f f O n S E 2 D I R 0 Display at model 820 series F W D R E V N O N M S E 2 C I E C 0 This setting is displayed if MSE2 is 1 IEC N I V I E I L T I M S E 2 C I E E E 0 This setting is displayed if MSE2 is 2 IEEE M I V I E I M S E 2 C U S 0 This setting is disp...

Page 124: ...r 3 LTI and press the ENTER key If MSE1 or MSE2 is 2 IEEE enter 0 MI or 1 VI or 2 EI and press the ENTER key If MSE1 or MSE2 is 3 US enter 0 CO2 or 1 CO8 and press the ENTER key SE1R SE2R To set the Reset Characteristic do the following If MSE1 or MSE2 is 2 IEEE or 3 US enter 0 DEF or 1 DEP and press the ENTER key SE1S2 To set the Stage 2 Timer Enable do the following Enter 1 On to enable the SE1S...

Page 125: ...e Misc protection The settings for miscellaneous protection are as follows Select Misc prot to display the Misc prot screen 7 M i s c p r o t T H M E N _ T H M E N 1 O f f O n T H M A E N 0 O f f O n N P S 1 E N 0 Not available for model 820 series O f f O n ditto N P S 1 2 F 0 Not available for model 820 series N A B l o c K ditto N P S 2 E N 0 Not available for model 820 series O f f O n ditto N...

Page 126: ...lock the NPS1 NPS2 and BCD against the inrush current and press the ENTER key BTC Enter 1 On to set the Back trip control and press the ENTER key If not setting the Back trip control enter 0 Off and press the ENTER key RTC To set the Re trip control do the following Enter 0 Off or 1 Direct or 2 OC controlled and press the ENTER key CLSG To set the Cold Load settings group do the following Enter 0 ...

Page 127: ...t time multiplier Display if OC1R 1 O C 2 1 0 0 A T O C 2 1 0 0 0 OC2 Time multiplier setting Display if MOC2 1 2 3 or 4 T O C 2 1 0 0 s OC2 Definite time setting Display if MOC2 0 T O C 2 R 0 0 s OC2 Definite time reset delay Display if MOC2 T O C 2 R M 1 0 0 0 OC2 Dependent time reset time multiplier Display if OC2R 1 O C 3 1 0 0 A T O C 3 0 0 0 s O C 4 1 0 0 A T O C 4 0 0 0 s O C 1 k 0 0 0 IDMT...

Page 128: ... multiplier setting Display if MEF1 1 2 3 or 4 T E F 1 1 0 0 s EF1 Definite time setting Display if MEF1 0 T E F 1 R 0 0 s EF1 Definite time reset delay Display if MEF1 1 or EF1R 0 T E F 1 R M 1 0 0 0 EF1 Dependent time reset time multiplier Display if EF1R 1 E F 2 1 0 0 A T E F 2 1 0 0 0 EF2 Time multiplier setting Display if MEF2 1 2 3 or 4 T E F 2 1 0 0 s EF2 Definite time setting Display if ME...

Page 129: ...ries ZPS threshold setting S E 1 0 1 0 0 A T S E 1 1 0 0 0 SEF1 Time multiplier setting Display if MSE1 1 2 3 or 4 T S E 1 1 0 0 s SEF1 Definite time setting Display if MSE1 0 T S E 1 R 0 0 s SEF1 Definite time reset delay Display if MSE1 1 or SE1R 0 T S E 1 R M 1 0 0 0 SEF1 Dependent time reset time multiplier Display if SE1R 1 T S E 1 S 2 0 0 0 s SEF1 Stage 2 Definite time setting S E 2 0 5 0 0 ...

Page 130: ...ng confirmation screen C h a n g e s e t t i n g s E N D Y C A N C E L N Press the ENTER Y key to change settings and return to the Prot element screen Setting the Misc protection Select Misc prot to display the Misc prot screen 7 M i s c p r o t T H M _ A T H M 1 0 0 A T H M 1 P 0 0 0 A T T H M 1 0 0 m i n T H M A 8 0 N P S 1 0 2 0 A Not available for model 820 series T N P S 1 0 0 0 s ditto N P ...

Page 131: ...ARC on the Group screen to display the ARC screen 5 A R C S c h e m e s w A R C e l e m e n t Setting the scheme switch Select Scheme sw on the ARC screen to display the Scheme sw screen 6 S c h e m e s w G e n e r a l O C P r o t E F P r o t S E F P r o t Not available for model 400 series M i s c P r o t Setting the the ARC General function Select General on the Scheme sw screen to set the autor...

Page 132: ...et the autoreclose initiation and trip mode of the OC protection 7 O C P r o t O C 1 I N I T _ O C 1 I N I T 0 N A O n B l o c K O C 1 T P 1 2 O F F I n s t S e t O C 1 T P 2 2 O F F I n s t S e t O C 1 T P 3 2 O F F I n s t S e t O C 1 T P 4 2 O F F I n s t S e t O C 1 T P 5 2 O F F I n s t S e t O C 1 T P 6 2 O F F I n s t S e t O C 2 I N I T 0 N A O n B l o c K O C 2 T P 1 2 O F f I n s t S e t...

Page 133: ...ither initiate or block the autoreclose from the OC1 trip in OC1 INIT To neither initiate nor block it enter 0 NA Enter 1 Inst or 2 Set to set the OC1 first trip to Instantaneous trip or Set time delay trip in the OC1 TP1 If not using the OC1 trip enter 0 Off Note OC1 TP2 to OC1 TP6 shows the OC1 second trip to OC1 sixth trip For OC2 to OC4 the settings are the same as OC1 Enter 1 On or 0 Off to e...

Page 134: ...ordination 6 A R C e l e m e n t T R D Y _ s T R D Y 6 0 0 s T D 1 1 0 0 0 s T R 1 3 1 0 0 0 s T D 2 1 0 0 0 s T R 2 3 1 0 0 0 s T D 3 1 0 0 0 s T R 3 3 1 0 0 0 s T D 4 1 0 0 0 s T R 4 3 1 0 0 0 s T D 5 1 0 0 0 s T R 5 3 1 0 0 0 s T W 2 0 0 s T S U C 3 0 s T R C O V 1 0 0 s T A R C P 1 0 0 s T R S E T 3 0 0 s Enter the numerical value and press the ENTER key After setting press the END key to disp...

Page 135: ...o display the Binary I P screen 2 B i n a r y I P B I S t a t u s B I 1 B I 2 B I 3 B I 4 B I 5 B I 6 A l a r m 1 T e x t A l a r m 2 T e x t A l a r m 3 T e x t A l a r m 4 T e x t Setting Binary Input Status GRE110 can selected binary input detecting threshold voltage The thresh hold voltage supports control voltage of 24V 48V 110V and 220V The BI1 and BI2 can change three threshold voltage 48 1...

Page 136: ...Selection of Binary Input Select the input number BI number on the Binary I P screen Setting Alarm Text If the BI selected is used for an alarm alarm message can be set Select the Alarm text and press the ENTER key to display the text input screen _ A B C D E F G H I J K L M N O P Q R S T U V W X Y Z a b c d e f g h i j k l m n o p q r s t u v w x y z 0 1 2 3 4 5 6 7 8 9 _ Enter the characters up ...

Page 137: ...creen 4 F u n c t i o n s B I 1 S N S _ B I 1 S N S 0 N o r m I n v B I 1 S G S 0 O f f 1 2 O C 1 B L K 0 O f f O n O C 2 B L K 0 O f f O n O C 3 B L K 0 O f f O n O C 4 B L K 0 O f f O n E F 1 B L K 0 Not available for model 820 series O f g O n E F 2 B L K 0 Not available for model 820 series O f f O n E F 3 B L K 0 Not available for model 820 series O f f O n E F 4 B L K 0 Not available for mod...

Page 138: ... series O f f O n T C F A L M 0 O f f O n C B O P N 0 O f f O n C B C L S 0 O f f O n E X T 3 P H 0 O f f O n E X T A P H 0 O f f O n E X T B P H 0 Not available for model 820 series O f f O n E X T C P H 0 O f f O n R M T R S T 0 O f F O n S Y N C L K 0 O f f O n S T O R C D 0 O f f O n A l a r m 1 0 O f f O n A l a r m 2 0 O f f O n A l a r m 3 0 O f f O n A l a r m 4 0 O f f O n R M T O P N O f...

Page 139: ...NTER key After setting press the END key to return to the BI screen 4 2 6 9 Binary Output All the binary outputs of the GRE110 except the relay failure signal are user configurable It is possible to assign one signal or up to four ANDing or ORing signals to one output relay Available signals are listed in Appendix B It is also possible to attach Instantaneous or delayed or latched reset timing to ...

Page 140: ...g signals Select the output relay number BO number and press the ENTER key to display the BO screen 3 B O L o g i c R e s e t F u n c t i o n s Setting the logic gate type and timer Select Logic Reset to display the Logic Reset screen 4 L o g i c R e s e t L o g i c _ L o g i c 0 O R A N D R e s e t 0 I n s D I D w L a t Enter 0 OR or 1 AND to use an OR gate or AND gate and press the ENTER key Ent...

Page 141: ...ontrol key is linked to BO1 and the CB open control key is linked to BO2 when control function is enable 4 2 6 10 LEDs Three LEDs of the GRE110 are user configurable A configurable LED can be programmed to indicate the OR combination of a maximum of 4 elements the individual statuses of which can be viewed on the LED screen as Virtual LEDs The signals listed in Appendix B can be assigned to each L...

Page 142: ...c R e s e t F u n c t i o n s L E D C o l o r Setting the logic gate type and timer Select Logic Reset to display the Logic Reset screen 5 L o g i c R e s e t L o g i c _ L o g i c 0 O R A N D R e s e t 0 I n s t L a t c h Enter 0 OR or 1 AND to use an OR gate or AND gate and press the ENTER key Enter 0 Instantaneous or 1 Latched to select the reset timing and press the ENTER key Press the END key...

Page 143: ...he LED screen Repeat this process for the outputs to be configured Setting the LEDs color Select LED color on the LED screen or on the CB CLOSED screen to display the LED color screen 5 L E D C o l o r C o l o r _ C o l o r 0 R G Y Select the LED colors of red green or yellow Press the END key to return to the LED screen Repeat this process for the LED colors to be configured Selection of virtual ...

Page 144: ...atch state push the RESET key for more than 3 seconds Assigning signals Select Functions on the IND screen to display the Functions screen 5 F n c t i o n s B I T 1 _ B I T 1 B I T 2 B I T 3 B I T 4 B I T 5 B I T 6 B I T 7 B I T 8 Assign signals to bits 1 to 8 by entering the number corresponding to each signal referring to Appendix B Note If signals are not assigned to all the bits 1 to 8 enter 0...

Page 145: ...elect the control function use or not use and press the ENTER key Enter 0 Disable or 1 Enable to select the interlock function use or not use and press the ENTER key Note When the Control function is disabled both the Local LED and the Remote LED are not lit and the sub menu Control on the LCD is not displayed 4 2 6 12 Frequency The GRE110 can change setting of system frequency 50Hz or 60Hz Select...

Page 146: ...d C t r l L o c a l R e m o t e C B c l o s e o p e n Move the cursor to Local Remote on LCD 1 C o n t r o l P a s s w o r d C t r l L o c a l R e m o t e C B c l o s e o p e n The L R key is enabled to change the CB control hierarchy 4 2 7 2 CB close open Control The CB close open function provides CB control Move the cursor to CB close open on the LCD 1 C o n t r o l P a s s w o r d C t r l L o ...

Page 147: ...password must be entered in order to enter the setting change screens If Set change is entered on the MAIN MENU screen the password trap screen Password is displayed If the password is not entered correctly it is not possible to move to the Setting change sub menu screens C o n t r o l P a s s w o r d _ 1 2 3 4 5 6 7 8 9 0 Canceling or changing the password To cancel the password protection enter ...

Page 148: ... either Disabling A M F is useful for blocking the output of unnecessary alarms during testing Select Test on the MAIN MENU screen to display the Test screen 1 T e s t P a s S w o r d T e s t S w i t c h B i n A r y O P Select Switch to display the Switch screen 2 S w i t h A M F _ A M F 1 O f f O n C L P T S T 0 O f f S 0 S 3 T H M R S T 0 O f f O n S H O T N U M 0 O f f S 1 S 6 I E C T S T 0 O f...

Page 149: ...F A I L 0 D i s a b l e E n a b l e Enter 1 Enable and press the ENTER key to operate the output relays forcibly After completing the entries press the END key Then the LCD displays the screen shown below O p e r a t e E N T R Y Y C A N C E L N Keep pressing the ENTER key to operate the assigned output relays Release pressing the ENTER key to reset the operation Press the CANCEL key to return to t...

Page 150: ...If TEST is entered on the MAIN MENU screen the password trap screen Password is displayed If the password is not entered correctly it is not possible to move to the TEST sub menu screens T e s t P a s s w o r d _ 1 2 3 4 5 6 7 8 9 0 Canceling or changing the password To cancel the password protection enter 0000 in the two brackets on the Password screen The Test screen is then displayed without ha...

Page 151: ...on Open Close Time setting synchronization The protocol can be used through the RS 485 port on the relay rear panel The relay supports two baud rates 9 6kbps and 19 2kbps These are selected by setting See Section 4 2 6 4 4 5 IEC 60870 5 103 Interface The GRE110 supports the IEC60870 5 103 communication protocol This protocol is mainly used when the relay communicates with a control system and is u...

Page 152: ... internal clock to the binary input signal by the following method Since the BI signal is an ON or OFF signal which cannot express year month day and hour minute second etc synchronising is achieved by setting the number of milliseconds to zero This method will give accurate timing if the synchronising BI signal is input every second Synchronisation is triggered by an OFF to ON rising edge transit...

Page 153: ... the LCD is not displayed or not displayed clearly the contrast adjustment of LCD might not been appropriate To adjust the contrast of LCD screen on the any screen do the following Press and at same time for 3 seconds or more to shift to LCD contrast adjustment mode L C D C o n t r a s t Press the or key to adjust the contrast LCD and LED check mode To check the LCD and LED check do the following ...

Page 154: ...14 5 13 5 127 117 Fig 5 2 1 Outline of attachment kit This attachment kits can be mounted on the panel thickness of 1 2 5mm when the included screws M4x8 are used When mounted on the panel thickness of 2 5 4 5mm M4x10 screws and some washers should be used 5 2 1 Flush Mounting For flush mounting the panel cut out Mount the case in the panel cut out from front of panel See Fig 5 2 2 Use the mountin...

Page 155: ...6 F 2 T 0 1 7 2 160 143 0 2 0 2 0 2 0 2 a model 400A 401A 420A 421A 820A and 821A 160 217 0 2 0 2 0 2 0 2 b model 402A and 422A Fig 5 2 1 Flush mounting the case into a panel cut out 154 ...

Page 156: ... either DC range 24 48Vdc 48 110Vdc 110 250Vdc or AC 110 220Vac 50 60Hz The voltage range is specified on the relay indicator plate on the front face On models 400A 401A 420A 421A 820A and 821A the power supply should be connected to terminals 13 and 14 of TB1 and the earthing should be connected to terminal 12 of TB1 On models 402A and 422A the power supply should be connected to terminals 13 and...

Page 157: ...nals 13 to 16 or 22 of TB2 On models 402A and 422A the binary inputs should be connected to terminals 13 to 16 or 22 of TB3 A minimum 1 25 mm2 wire size is recommended 5 2 2 4 Binary outputs Output relays Five output relays are available on the relay Four relays are programmable the last relay being assigned to the signaling of a relay fault BO3 and BO4 are NOT applicable for direct CB coil connec...

Page 158: ...usand volts Discharge of these voltages into semiconductor devices when handling electronic circuits can cause serious damage This damage often may not be immediately apparent but the reliability of the circuit will have been reduced The electronic circuits are completely safe from electrostatic discharge when housed in the case Do not expose them to risk of damage 5 5 External Connections Externa...

Page 159: ...following can be detected by monitoring which circuits function when the power is supplied User interfaces Binary input circuits and output circuits AC input circuits Function tests These tests are performed for the following functions that are fully software based Measuring elements Metering and recording Conjunctive tests The tests are performed after the relay is connected with the primary equi...

Page 160: ... 1 Time counter precision timer 1 PC not essential Relay settings Before starting the tests it must be specified whether the tests will use the user s settings or the default settings For the default settings see the following appendixes Appendix D Binary Output Default Setting List Appendix H Relay Setting Sheet Visual inspection After unpacking the product check for any damage to the relay case ...

Page 161: ...the IN SERVICE LED is lit in green Note If there is a failure the LCD will display the ERR screen when the supply voltage is applied Press key for 3 seconds or more and check that white dots appear on the whole screen and all LEDs lit Operation keys Press ENTER key when the LCD is off and check that the LCD displays the MAIN MENU screen Press the END key to turn off the LCD Press ENTER key when th...

Page 162: ... operating the relay drivers and output relays Operation of the output contacts is monitored at the output terminal The output contact and corresponding terminal number are shown in Appendix G Select Binary O P on the Test screen to display the Binary O P screen The LCD displays the name of the output relay 2 B i n a r y O P B O 1 _ B O 1 0 D i s a b l e E n a b l e B O 2 0 D i s a b l e E n a b l...

Page 163: ...6 4 2 Testing AC Input Circuit To check the metering data on the Metering screen do the followings Status sub menu Metering screen If the setting is 0 Primary change the setting to 1 Secondary in the Set change sub menu Set change sub menu Status screen Metering screen Remember to reset it to the initial setting after the test is finished Open the Metering screen in the Status sub menu Status sub ...

Page 164: ... E D Select LED on the 2 LED screen to display the 3 LED screen 3 L E D L E D 1 L E D 2 L E D 3 L E D 4 L E D 5 L E D 6 C B C L O S E D Note The setting is required for all the LEDs If any of the LEDs are not used enter 0 to logic gates 1 to 4 in assigning signals Select the LED number and press the ENTER key to display the LED screen 4 L E D L o g i c R e s e t F u n c t i o n s L E D C o l o r S...

Page 165: ...onding to the testing element referring to Appendix B and assign other gates the 0 Assigning signal to Binary Output Relay Select Binary O P on the Set change screen to display the Binary O P screen 2 B i n a r y O P B O 1 B O 2 B O 3 B O 4 Note The setting is required for all the binaryoutputs If anyof the binaryoutputs are not used enter 0 to logic gates In 1 to 4 in assigning signals Select the...

Page 166: ...o the BO screen Select Functions on the BO screen to display the Functions screen 4 F u n c t i o n s I n 1 _ I n 1 _ _ _ I n 2 _ _ _ I n 3 _ _ _ I n 4 _ _ _ T B O 0 2 0 s Assign the gate In 1 the number corresponding to the testing element referring to Appendix B and assign other gates the 0 6 5 1 1 Overcurrent and undercurrent element OC1 to OC4 UC1 UC2 and CBF The overcurrent element is checked...

Page 167: ...nt Value Test Circuit The output signal of testing element is assigned a configurable LED The output signal numbers of the elements are as follows Element Signal No Element Signal No OC1 A 51 UC1 A 71 OC2 A 54 UC2 A 74 OC3 A 57 CBF A 82 OC4 A 60 Enter the signal number to observe the operation at the LED as shown in Section 6 5 1 and press the ENTER key Apply a test current and change the magnitud...

Page 168: ...characteristic to test by setting the scheme switch MOCI on the PF prot screen Set change sub menu Protection screen Change set Act gp screen Group screen Trip screen Scheme sw screen PF prot The test procedure is as follows Enter the signal number to observe the operating time at a binary output relay as shown in Section 6 5 1 and press the ENTER key Apply a test current and measure the operating...

Page 169: ... for EF and SEF Elements The output signal of testing element is assigned a configurable LED The output signal numbers of the elements are as follows Element Signal No Element Signal No EF1 63 SEF1 67 EF2 64 SEF2 68 EF3 65 SEF3 69 EF4 66 SEF4 70 Enter the signal number to observe the operation at the LED as shown in Section 6 5 1 and press the ENTER key Apply a test current and change the magnitud...

Page 170: ...t screen Set change sub menu Protection screen Change set Act gp screen Group screen Trip screen Scheme sw screen EF prot or SEF prot screen The test procedure is as follows Enter the signal number to observe the operating time at a binary output relay as shown in Section 6 5 1 and press the ENTER key Apply a test current and measure the operating time The magnitude of the test current should be b...

Page 171: ...s is the current setting CAUTION After the setting of a test current apply the test current after checking that the THM has become 0 on the Metering screen Calculate the theoretical operating time using the characteristic equations shown in Section 2 5 Check that the measured operating time is within 5 6 5 1 4 Negative sequence overcurrent element NPS1 and NPS2 The testing circuit is shown in Figu...

Page 172: ...ed a configurable LED The output signal numbers of the elements are as follows Element Signal No BCD 81 Enter the signal number to observe the operation at the LED as shown in Section 6 5 1 and press the ENTER key Apply the three phase balance current at 10 of the rated current and interrupt a phase current Then check the BCD element operates 6 5 1 6 Cold load protection The testing circuit is sam...

Page 173: ...ds Event recording on the external event can be checked by changing the status of binary input command signals Change the status in the same way as the binary input circuit test see Section 6 4 2 and check that the description displayed on the Event screen is correct Some of the internal events can be checked in the protection scheme tests Disturbance recording can be checked while testing the pro...

Page 174: ...O P screen of the Test sub menu as described in Section 6 4 3 Tripping circuit Set the breaker to be closed Select Binary O P on the Test sub menu screen to display the Binary O P screen 2 B i n a r y O P B O 1 _ B O 1 0 D i s a b l e E n a b l e B O 2 0 D i s a b l e E n a b l e B O 3 0 D i s a b l e E n a b l e B O 4 0 D i s a b l e E n a b l e F A I L 0 D i s a b l e E n a b l e BO1 to BO4 are ...

Page 175: ... or LCD display It is also recorded in the event record Failures detected by supervision are traced by checking the Err screen on the LCD Table 6 7 1 shows LCD messages and failure locations The locations marked with 1 have a higher probability than locations marked with 2 Table 6 7 1 LCD Message and Failure Location Message Failure location Relay Unit AC cable CB or Cable PLC IEC 61850 data Err S...

Page 176: ... those stated in the manual 6 7 3 Replacing Failed Relay If the failure is identified to be in the relay and the user has a spare relay the user can recover the protection by replacing the failed relay Repair at the site should be limited to relay replacement Maintenance at the component level is not recommended Check that the replacement relay has an identical Model Number and relay version softw...

Page 177: ...take the following procedures to restore the relay to the service Switch on the power supply and confirm that the IN SERVICE green LED is lit and the ALARM red LED is not lit Supply the AC inputs and reconnect the trip outputs 6 7 5 Storage The spare relay should be stored in a dry and clean room Based on IEC Standard 60255 6 the storage temperature should be 25 C to 70 C but the temperature of 0 ...

Page 178: ...correct Check the settings of all measuring elements timers scheme switches recordings and clock are correct In particular when settings are changed temporarily for testing be sure to restore them Clear any unnecessary records on faults events and disturbances which are recorded during the tests Press key and check that no failure message is displayed on the Auto supervision screen Check that the ...

Page 179: ...6 F 2 T 0 1 7 2 Appendix A Programmable Reset Characteristics and Implementation of Thermal Model to IEC60255 149 178 ...

Page 180: ...s the fault after which the insulation again breaks down and the process repeats An inverse time overcurrent protection with instantaneous resetting cannot detect this condition until the fault becomes permanent thereby allowing a succession of such breakdowns to occur with associated damage to plant and danger to personnel If a definite time reset delay of for example 60 seconds is applied on the...

Page 181: ...tate and 100 represents the thermal limit that is the point at which no further temperature rise can be safely tolerated and the system should be disconnected The thermal limit for any given electrical plant is fixed by the thermal setting IAOL The relay gives a trip output when θ 100 If current I is applied to a cold system then θ will rise exponentially from 0 to I2 IAOL 2 100 with time constant...

Page 182: ...s switched on to an immediate overload Figure A 3 shows a typical thermal profile for a system which initially carries normal load current and is then subjected to an overload condition until a trip results before finally cooling to ambient temperature θ t s 100 Normal Load Current Condition Cooling Curve Overload Current Condition Trip at 100 Figure A 3 183 ...

Page 183: ...6 F 2 T 0 1 7 2 Appendix B Signal List 184 ...

Page 184: ...e block 22 EF4 BLOCK BI command of EF4 protection scheme block 23 SEF1 BLOCK BI command of SEF1 protection scheme block 24 SEF2 BLOCK BI command of SEF2 protection scheme block 25 SEF3 BLOCK BI command of SEF3 protection scheme block 26 SEF4 BLOCK BI command of SEF4 protection scheme block 27 UC BLOCK BI command of UC protection scheme block 28 THM BLOCK BI command of THM protection scheme block 2...

Page 185: ...element operate 65 EF3 EF3 relay element start 66 EF4 EF4 relay element start 67 SEF1 SEF1 relay element operate 68 SEF2 SEF2 relay element operate 69 SEF3 SEF3 relay element start 70 SEF4 SEF4 relay element start 71 UC1 A UC1 A relay element start 72 UC1 B UC1 B relay element start 73 UC1 C UC1 C relay element start 74 UC2 A UC2 A relay element start 75 UC2 B UC2 B relay element start 76 UC2 C UC...

Page 186: ...se 109 OC3 TRIP OC3 trip command 110 OC3 A TRIP OC3 trip command A Phase 111 OC3 B TRIP OC3 trip command B Phase 112 OC3 C TRIP OC3 trip command C Phase 113 OC4 TRIP OC4 trip command 114 OC4 A ALARM OC4 alarm command A Phase 115 OC4 B ALARM OC4 alarm command B Phase 116 OC4 C ALARM OC4 alarm command C Phase 117 EF1 TRIP EF1 trip command 118 EF2 TRIP EF2 trip command 119 EF3 TRIP EF3 trip command 1...

Page 187: ... B_INST OC2 B relay element start 155 OC2 C_INST OC2 C relay element start 156 EF2_INST EF2 relay element start 157 SEF2_INST SEF2 relay element start 158 OC2_INST OC2 relay element start 159 Not in use 160 A M F OFF Automatic monitoring function off 161 RELAY FAIL Relay failure trip blocked alarm 162 RELAY FAIL A Relay failure alarm Trip not blocked 163 TCSV Trip circuit supervision failure 164 C...

Page 188: ... BI2 COMMAND1 Binary Input signal of BI2 after BI2SNS 203 BI3 COMMAND1 Binary Input signal of BI3 after BI3SNS 204 BI4 COMMAND1 Binary Input signal of BI4 after BI4SNS 205 BI5 COMMAND1 Binary Input signal of BI5 after BI5SNS 206 BI6 COMMAND1 Binary Input signal of BI6 after BI6SNS 207 Not in use 208 Not in use 209 Not in use 210 ARC_BLK_OR Auto Reclosing block 211 ARC_READY_T Auto Reclosing ready ...

Page 189: ...ta 2 246 GOOSE_IN_3 Goose data 3 247 GOOSE_IN_4 Goose data 4 248 GOOSE_IN_5 Goose data 5 249 GOOSE_IN_6 Goose data 6 250 GOOSE_IN_7 Goose data 7 251 GOOSE_IN_8 Goose data 8 252 GOOSE_IN_9 Goose data 9 253 GOOSE_IN_10 Goose data 10 254 GOOSE_IN_11 Goose data 11 255 GOOSE_IN_12 Goose data 12 256 GOOSE_IN_13 Goose data 13 257 GOOSE_IN_14 Goose data 14 258 GOOSE_IN_15 Goose data 15 259 GOOSE_IN_16 Goo...

Page 190: ...rated value 0 A Phase 291 IDMT_s1_b OC1 integrated value 0 B Phase 292 IDMT_s1_c OC1 integrated value 0 C Phase 293 IDMT_s1_e EF1 integrated value 0 294 IDMT_s1_se SEF1 integrated value 0 295 IDMT_s2_a OC2 integrated value 0 A Phase 296 IDMT_s2_b OC2 integrated value 0 B Phase 297 IDMT_s2_c OC2 integrated value 0 C Phase 298 IDMT_s2_e EF2 integrated value 0 299 IDMT_s2_se SEF2 integrated value 0 3...

Page 191: ...6 F 2 T 0 1 7 2 Appendix C Event Record Items 192 ...

Page 192: ...rip Off On EF1 trip command 19 EF2 trip Off On EF2 trip command 20 EF3 trip Off On EF3 trip command 21 EF4 alarm Off On EF4 alarm command 22 SEF1 S1 trip Off On SEF1 Stage1 trip command 23 SEF1 S2 trip Off On SEF1 Stage2 trip command 24 SEF2 trip Off On SEF2 trip command 25 SEF3 trip Off On SEF3 trip command 26 SEF4 alarm Off On SEF4 alarm command 27 UC1 A trip Off On UC1 trip command A Phase 28 U...

Page 193: ...element operating 66 NPS1 Off On NPS1 relay element operating 67 NPS2 Off On NPS2 relay element operating 68 BCD Off On BCD relay element operating 69 CLP STATE0 Off On Cold load Protection State 70 CLP STATE1 Off On Cold load Protection State 71 CLP STATE2 Off On Cold load Protection State 72 CLP STATE3 Off On Cold load Protection State 73 BI1 command Off On Binary input signal of BI1 74 BI2 comm...

Page 194: ...n BI command of Alarm1 107 Alarm2 Off On BI command of Alarm2 108 Alarm3 Off On BI command of Alarm3 109 Alarm4 Off On BI command of Alarm4 110 Relay fail Off On Relay failure trip blocked alarm 111 Relay fail A Off On Relay failure alarm Trip not blocked 112 TC err Off On Trip circuit supervision failure 113 CB err Off On Circuit breaker status monitoring failure 114 CT err Off On CT circuit supe...

Page 195: ... operate Off On BO1 operating 154 BO2 operate Off On BO2 operating 155 BO3 operate Off On BO3 operating 156 BO4 operate Off On BO4 operating 157 BO5 operate Off On BO5 operating 158 BO6 operate Off On BO6 operating 159 BO7 operate Off On BO7 operating 160 BO8 operate Off On BO8 operating 161 ARC READY Off On ARC initiation command 162 ARC INIT Off On ARC ready command 163 MANUAL CLS Off On ARC Man...

Page 196: ...6 F 2 T 0 1 7 2 Appendix D Binary Output Default Setting List 197 ...

Page 197: ...ENERAL TRIP GENERAL ALARM NON Relay fail Off Link to CB Close SW Relay trip General Link to CB Open SW Relay alarm General Off 0 141 150 0 0 0 0 0 1 1 1 1 GRE110 420 GRE110 820 BO1 BO2 BO3 BO4 R F TB2 1 2 3 4 5 6 7 8 9 10 NON GENERAL TRIP GENERAL ALARM NON Relay fail Off Link to CB Close SW Relay trip General Link to CB Open SW Relay alarm General Off 0 141 150 0 0 0 0 0 1 1 1 1 GRE110 421 GRE110 ...

Page 198: ...N NON NON Off Link to CB Close SW Relay trip General Link to CB Open SW Relay alarm General Off Off Off Off Off 0 141 150 0 0 0 0 0 0 0 0 0 0 0 0 0 1 1 1 1 1 1 1 1 GRE110 422 BO1 BO2 BO3 BO4 R F BO5 BO6 BO7 BO8 TB3 1 2 3 4 5 6 7 8 9 10 TB1 1 2 3 4 5 6 7 8 NON GENERAL TRIP GENERAL ALARM NON Relay fail NON NON NON NON Off Link to CB Close SW Relay trip General Link to CB Open SW Relay alarm General ...

Page 199: ...6 F 2 T 0 1 7 2 Appendix E Relay Menu Tree 200 ...

Page 200: ... CANCEL N Clear records END Y CANCEL N 2 Fault View record Clear 3 Fault 1 16 Jul 2010 18 13 57 031 3 Disturbance 1 16 Jul 2010 18 13 57 401 2 Event View record Clear 3 Event 16 Jul 2010 Ext trip A On 2 Disturbance View record Clear Refer to Section 4 2 3 1 Refer to Section 4 2 3 2 Refer to Section 4 2 3 3 1 Record Fault Event Disturbance Counter 201 ...

Page 201: ...I yC E6 ARCs 2 Counter View counter Clear Trips Clear Trips A Clear Trips B Clear Trips C Clear Σ I yA Clear Σ I yB Clear Σ I yC Clear ARCs Clear Trips A END Y CANCEL N Clear Trips B END Y CANCEL N Clear Trips C END Y CANCEL N Clear Σ I yA END Y CANCEL N Clear Σ I yB END Y CANCEL N Clear Σ I yC END Y CANCEL N Clear ARCs END Y CANCEL N 202 ...

Page 202: ...g Binary I O Relay element Time sync Clock adjust LCD contrast 1 Set view Version Description Comms Record Status Protection Binary I P Binary O P LED Control Frequency Refer to Section 4 2 4 2 Version Relay type Software 2 Description Plant name Description Refer to Section 4 2 5 Software GS1EM1 01 PLC data 2 Comms Addr Switch GRE110 401A 10 10 3 Addr Addr 3 Switch 203 ...

Page 203: ...r 3 Disturbace Time Starter Scheme sw Binary sig 3 Group1 Parameter Trip ARC 2 Status Metering Time sync Time zone 3 Time sync 3 Metering 5 CT ratio OCCT 400 EFCT 200 4 Parameter Line name CT ratio 4 Scheme sw 4 Alarm set TCALM 10000 3 Counter Scheme sw Alarm set 4 Binary sig SIG1 51 3 Common 2 Act gp Common Group1 Group2 3 Time zone 204 ...

Page 204: ... PF prot EF prot SEF prot Misc prot 6 EF prot 6 SEF prot 6 Misc prot 6 PF prot OC1 1 00A 6 EF prot EF1 0 30A 6 SEF prot SE1 0 100A 6 Misc prot THM 1 00A 2 Binary I P BI STATUS BI1 BI2 BI3 BI4 BI5 BI6 Alarm1 Text Alarm2 Text Alarm3 Text Alarm4 Text 3 BI1 Timers Functions 3 BI6 Timers Functions 4 Timers BI1PUD 0 00s 4 Functions 6 Application 3 BI STATUS 4 ARC Scheme sw ARC element 205 ...

Page 205: ... Description Plant name Description Refer to Section 4 2 6 3 3 LED 2 Binary O P BO1 AND DL 151 0 0 0 BO8 OR Lat 141 1 2 3 Refer to Section 4 2 6 2 a 1 b 1 a 1 b 2 2 Comms Addr Switch 3 Addr Addr 3 Switch RS485 1 Set change Password Description Comms Record Status Protection Binary I P Binary O P LED Control Frequency 2 LED LED Virtual LED 3 Virtual LED IND1 IND2 4 LED1 BIT1 I O 4 LED2 BIT1 I O 2 C...

Page 206: ...3 Time sync Time sync 2 Status Metering Time sync Time zone 2 Protection Change act gp Change set Copy gp 3 Change act gp 3 Act gp 1 Common Group1 Group2 Refer to Section 4 2 6 7 Refer to Section 4 2 6 6 Refer to Section 4 2 6 5 4 Scheme sw 4 Alarm set 3 Counter Scheme sw Alarm set 4 Binary sig 3 Event BI1 comm BI1 comm 3 _ N O R B 4 Common AOLED 3 Time zone GMT _ 207 ...

Page 207: ... Parameter 6 CT ratio OCEFCT 5 Trip Scheme sw Prot element 7 PF prot 6 Scheme sw Application PF prot EF prot SEF prot Misc prot 6 Prot element PF prot EF prot SEF prot Misc prot 7 EF prot 7 SEF prot 7 Misc prot 7 PF prot 7 EF prot 7 SEF prot 7 Misc prot 7 Application a 1 b 2 c 2 5 ARC Scheme sw ARC element 208 ...

Page 208: ...I P BI Status BI1 BI2 BI3 BI4 BI5 BI6 Alarm1 Text Alarm2 Text Alarm3 Text Alarm4 Text 3 BI1 Timers Functions 3 BI6 Timers Functions ABCDEFG 4 Timers 4 Functions Alarm Text a 1 b 2 c 2 a 1 b 2 c 3 5 Logic Reset 5 Functions 4 LED1 Logic Reset Functions LED Color 3 LED LED1 LED2 LED3 LED4 LED5 LED6 CB CLOSED 4 LED6 Logic Reset Functions LED Color 2 LED LED Virtual LED 5 LED Color 4 CB CLOSED LED Colo...

Page 209: ... 3 3 Virtual LED IND1 IND2 5 Reset 5 Functions 4 IND1 Reset Functions 4 IND2 Reset Functions Control Input _ 1234567890 Control Retype _ 1234567890 Refer to Section 4 2 7 2 1 Control Password Ctrl Local Remote CB OPEN CLOSE Refer to Section 4 2 7 Password trap Control Password _ 1234567890 Test Input _ 1234567890 Test Retype _ 1234567890 Refer to Section 4 2 8 2 Password trap Test Password _ 12345...

Page 210: ...6 F 2 T 0 1 7 2 Appendix F Case Outline 211 ...

Page 211: ...6 F 2 T 0 1 7 2 Case Outline for model 400 401 420 421 820 and 821 212 ...

Page 212: ...6 F 2 T 0 1 7 2 Case Outline for model 402 and 422 213 ...

Page 213: ...6 F 2 T 0 1 7 2 Appendix G Typical External Connection 214 ...

Page 214: ...00A N C Threshold 33 6 77 154V Threshold 33 6 77 154V A B COM Relay fail indicator Available for TCS CB CLOSED Available for TCS CB OPEN FRONT PANEL USB Type B Rear PANEL RJ45 N C N C COM A B BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 2 Off COM A B P N N N BO3 and BO4 are NOT applicable for direct CB coil connection Analogue current i...

Page 215: ...eshold 33 6 77 154V Threshold 77 154V A B COM AUXILIARY AUXILIARY AUXILIARY AUXILIARY AUXILIARY Available for TCS AUXILIARY Available for TCS FRONT PANEL USB Type B Rear PANEL RJ45 N C BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 6 Off COM A B COM A B CB CLOSED CB OPEN P N N Relay fail indicator N BO3 and BO4 are NOT applicable for dire...

Page 216: ...6 77 154V A B COM Relay fail indicator Available for TCS CB CLOSED Available for TCS CB OPEN FRONT PANEL USB Type B Rear PANEL RJ45 TB1 1 2 3 4 5 6 7 8 9 10 11 12 13 14 Core balance CT N C BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 2 Off COM A B COM A B N C P N N N BO3 and BO4 are NOT applicable for direct CB coil connection Analogue ...

Page 217: ...M Relay fail indicator AUXILIARY AUXILIARY AUXILIARY AUXILIARY AUXILIARY Available for TCS AUXILIARY Available for TCS FRONT PANEL USB Type B Rear PANEL RJ45 TB1 1 2 3 4 5 6 7 8 9 10 11 12 13 14 Core balance CT BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 6 Off COM A B COM A B CB CLOSED CB OPEN P N N N N C BO3 and BO4 are NOT applicable...

Page 218: ...UXILIARY Available for TCS FRONT PANEL USB Type B Rear PANEL RJ45 N C DEFAULT BI1 6 Off COM A B COM A B 1 2 3 4 5 6 7 8 9 10 11 12 BO5 BO6 BO7 BO8 TB1 AUXILIARY AUXILIARY AUXILIARY AUXILIARY N C Control Power Optional Communication Port 100BASE TX 1port 2port 100BASE FX 1port 2port BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF BO5 OFF BO6 OFF BO7 OFF BO8 OFF OUTPUT CONACTS SIGNAL LIS...

Page 219: ...OM A B COM A B 1 2 3 4 5 6 7 8 9 10 11 12 BO5 BO6 BO7 BO8 TB1 AUXILIARY AUXILIARY AUXILIARY AUXILIARY N C Control Power Ia Ib Ic Ise P N FG POWER SUPPLY GND N C TB2 1 2 3 4 5 6 7 8 9 10 11 12 13 14 Core balance CT BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF BO5 OFF BO6 OFF BO7 OFF BO8 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT N C Optional Communication Port 100BASE TX 1port 2port 100B...

Page 220: ...XILIARY AUXILIARY AUXILIARY AUXILIARY AUXILIARY Available for TCS AUXILIARY Available for TCS FRONT PANEL USB Type B Rear PANEL RJ45 Core balance CT BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 6 Off COM A B COM A B CB CLOSED CB OPEN P N N N N C TB1 1 2 3 4 5 6 7 8 9 10 11 12 13 14 BO3 4 are NOT applicable for direct CB coil connection ...

Page 221: ...54V A B COM AUXILIARY AUXILIARY AUXILIARY AUXILIARY AUXILIARY Available for TCS AUXILIARY Available for TCS FRONT PANEL USB Type B Rear PANEL RJ45 N C BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 6 Off COM A B COM A B CB CLOSED CB OPEN P N N Relay fail indicator N BO3 4 are NOT applicable for direct CB coil connection Analogue current i...

Page 222: ...tor Available for TCS CB CLOSED Available for TCS CB OPEN FRONT PANEL USB Type B Rear PANEL RJ45 TB1 1 2 3 4 5 6 7 8 9 10 11 12 13 14 Core balance CT N C BO1 OFF CB CLOSE BO2 GENERAL TRIP BO3 GENERAL ALARM BO4 OFF OUTPUT CONACTS SIGNAL LIST DEFAULT DEFAULT BI1 2 Off COM A B COM A B N C P N N N BO3 4 are NOT applicable for direct CB coil connection Analogue current input ports are shorted when the ...

Page 223: ...6 F 2 T 0 1 7 2 Appendix H Relay Setting Sheet 1 Relay Identification 2 Line parameter 3 Contacts setting 4 Relay setting sheet 224 ...

Page 224: ...o OC EF SEF 3 Contacts setting TB2 BO1 Terminal 1 2 For model type 402 or 422 the terminal block number is TB3 BO2 Terminal 3 4 BO3 Terminal 5 6 BO4 Terminal 7 8 BI1 Terminal 13 14 BI2 Terminal 15 16 BI3 Terminal 17 22 BI4 Terminal 18 22 BI5 Terminal 19 22 BI6 Terminal 20 22 TB1 Only for model type 402 or 422 BO5 Terminal 1 2 BO6 Terminal 3 4 BO7 Terminal 5 6 BO8 Terminal 7 8 225 ...

Page 225: ...ons 2 4 1 IECBLK Normal Blocked Switch for communications Normal 0 IECB1 0 312 IEC user specified signal 1 1 IECB2 0 312 IEC user specified signal 2 2 IECB3 0 312 IEC user specified signal 3 3 IECB4 0 312 IEC user specified signal 4 4 IECGT 0 8 IEC General Trip 2 IECAT 0 8 IEC Trip A phase 2 IECBT 0 8 IEC Trip B phase 2 IECCT 0 8 IEC Trip C phase 2 IECE1 0 312 IEC user event 1 0 IECE2 0 312 IEC us...

Page 226: ...ubnet mask Eth port 1 GW1 1 0 254 Default gate way of Eth GW1 2 0 254 Default gate way of Eth GW1 3 0 254 Default gate way of Eth GW1 4 0 254 Default gate way of Eth SI1 1 0 254 SNTP server address SI1 2 0 254 SNTP server address SI1 3 0 254 SNTP server address SI1 4 0 254 SNTP server address PG1 1 0 254 Ping check address PG1 2 0 254 Ping check address PG1 3 0 254 Ping check address PG1 4 0 254 P...

Page 227: ... 102 SIG6 0 312 103 SIG7 0 312 104 SIG8 0 312 117 SIG9 0 312 141 SIG10 0 312 142 SIG11 0 312 143 SIG12 0 312 144 SIG13 0 312 145 SIG14 0 312 0 SIG15 0 312 0 SIG16 30 0 312 0 SIG31 0 312 0 SIG32 0 312 0 Counter TCSPEN Off On Opt On Trip Circuit Supervision Enable Off CBSMEN Off On Circuit Breaker State Monitoring Alarm Enable Off TCAEN Off On Trip Count Alarm Enable Off ΣIyALM Off On ΣIy Alarm Enab...

Page 228: ... SEF1BLK Off On SEF1 Block Off SEF2BLK Off On SEF2 Block Off SEF3BLK Off On SEF3 Block Off SEF4BLK Off On SEF4 Block Off UCBLK Off On UC Block Off THMBLK Off On THM Block Off NPSBLK Off On NPS Block Off BCDBLK Off On BCD Block Off TCFALM Off On Trip Circuit Fail Alarm Off CBOPN Off On Circuit Breaker Open Off CBCLS Off On Circuit Breaker Closed Off EXT3PH Off On External Trip 3Phase Off EXTAPH Off...

Page 229: ...The following items are same as BI1 BI4 BI4PUD 0 00 300 00 BI4 Pick up delay 0 00 BI4DOD 0 00 300 00 BI4 Drop off delay 0 00 BI4SNS Norm Inv BI4 Trigger Norm BI4SGS Off 1 2 BI4 Settings Group Off The following items are same as BI1 BI5 BI5PUD 0 00 300 00 BI5 Pick up delay 0 00 BI5DOD 0 00 300 00 BI5 Drop off delay 0 00 BI5SNS Norm Inv BI5 Trigger Norm BI5SGS Off 1 2 BI5 Settings Group Off The foll...

Page 230: ...D1 Logic OR AND Logic Gate Type OR Reset Inst Latch Reset Operation Inst In 1 0 312 Functions 0 In 2 0 312 Functions 0 In 3 0 312 Functions 0 In 4 0 312 Functions 0 Color R G Y LED Color R LED2 Same as LED1 LED3 Same as LED1 LED4 Same as LED1 LED5 Same as LED1 LED6 Same as LED1 CB CLOSED Color R G Y CB CLOSED LED Color R IND1 Reset Inst Latch IND1 Reset operation Inst IND2 Reset Inst Latch IND2 Re...

Page 231: ...me OCCT 1 20000 CT ratio of Phase CT 400 EFCT 1 20000 CT ratio of Earth Fault CT 200 SEFCT 1 20000 CT ratio of Sensitive Earth Fault CT 400 VEVT 1 20000 VT ratio for Sensitive Earth Fault function 1 SVCNT ALM BLK ALM AC input imbalance ALM BLK OC OC1EN Off On OC1 Enable On MOC1 D IEC IEEE US C OC1 Delay Type if OC1EN On D MOC1C IEC NI VI EI LTI OC1 IEC Inverse Curve Type if MOC1 IEC NI MOC1C IEEE ...

Page 232: ...F NA Block OC4 2f Block Enable NA UC UC1EN Off On UC1 Enable Off UC2EN Off On UC2 Enable Off EF EF1EN Off On EF1 Enable On MEF1 D IEC IEEE US C EF1 Delay Type if EF1EN On D MEF1C IEC NI VI EI LTI EF1 IEC Inverse Curve Type if MEF1 IEC NI MEF1C IEEE MI VI EI EF1 IEEE Inverse Curve Type if MEF1 IEEE MI MEF1C US CO2 CO8 EF1 US Inverse Curve Type if MEF1 US CO2 EF1R DEF DEP EF1 Reset Characteristic if...

Page 233: ...LTI SEF1 IEC Inverse Curve Type if MSE1 IEC NI MSE1C IEEE MI VI EI SEF1 IEEE Inverse Curve Type if MSE1 IEEE MI MSE1C US CO2 CO8 SEF1 US Inverse Curve Type if MSE1 US CO2 SE1R DEF DEP SEF1 Reset Characteristic if MSE1 IEEE US or C DEF SE1S2 Off On SEF1 Stage2 Timer Enable if SE1EN On Off SE1 2F NA Block SEF1 2f Block Enable NA SE2EN Off On SEF2 Enable Off MSE2 D IEC IEEE US C SEF2 Delay Type if SE...

Page 234: ...Cold Load drop off Enable Off ARC ARCEN Off On Autoreclosing Enable Off ARC NUM S1 S2 S3 S4 S5 Reclosing shot max number S1 OC1 INIT NA On Block Autoreclosing initiation by OC1 enable NA OC1 TP1 Off Inst Set OC1 trip mode of 1st trip Set OC1 TP2 Off Inst Set OC1 trip mode of 2nd trip Set OC1 TP3 Off Inst Set OC1 trip mode of 3rd trip Set OC1 TP4 Off Inst Set OC1 trip mode of 4th trip Set OC1 TP5 O...

Page 235: ...ode of 4th trip Set EF2 TP5 Off Inst Set EF2 trip mode of 5th trip Set EF2 TP6 Off Inst Set EF2 trip mode of 6th trip Set EF3 INIT NA On Block Autoreclosing initiation by EF3 enable NA EF3 TP1 Off Inst Set EF3 trip mode of 1st trip Set EF3 TP2 Off Inst Set EF3 trip mode of 2nd trip Set EF3 TP3 Off Inst Set EF3 trip mode of 3rd trip Set EF3 TP4 Off Inst Set EF3 trip mode of 4th trip Set EF3 TP5 Off...

Page 236: ... mode of 3rd trip Set SE3 TP4 Off Inst Set SEF3 trip mode of 4th trip Set SE3 TP5 Off Inst Set SEF3 trip mode of 5th trip Set SE3 TP6 Off Inst Set SEF3 trip mode of 6th trip Set SE4 INIT NA On Block Autoreclosing initiation by SEF4 enable NA SE4 TP1 Off Inst Set SEF4 trip mode of 1st trip Set SE4 TP2 Off Inst Set SEF4 trip mode of 2nd trip Set SE4 TP3 Off Inst Set SEF4 trip mode of 3rd trip Set SE...

Page 237: ...2R DEF 0 0s TOC2RM 0 010 1 500 OC2 Dependent time reset delay if OC2R DEP 1 000 OC3 0 10 150 00 A OC3 Threshold 10 00A TOC3 0 00 300 00 s OC3 Definite time setting 0 00s OC4 0 10 150 00 A OC4 Threshold 10 00A TOC4 0 00 300 00 s OC4 Definite time setting 0 00s OC1 k 0 00 300 00 Configurable IDMT Curve setting if MOC1 C 0 14 OC1 α 0 00 5 00 0 02 OC1 C 0 000 5 000 0 000 OC1 kr 0 00 300 00 2 00 OC1 β ...

Page 238: ... D 0 00s TEF2R 0 0 300 0 s EF2 Definite time reset delay if EF2R DEF 0 0s TEF2RM 0 010 1 500 EF1 Dependent time reset time if EF2R DEP 1 000 EF2 k 0 00 300 00 Configurable IDMT Curve setting if MEF2 C 0 14 EF2 α 0 00 5 00 0 02 EF2 C 0 000 5 000 0 000 EF2 kr 0 00 300 00 2 00 EF2 β 0 00 5 00 2 00 EF3 0 05 100 00 A EF3 Threshold 5 00A TEF3 0 00 300 00 s EF3 Definite time 0 00s EF4 0 05 100 00 A EF4 T...

Page 239: ...Curve setting if MSE2 C 0 14 SE2 α 0 00 5 00 0 02 SE2 C 0 000 5 000 0 000 SE2 kr 0 00 300 00 2 00 SE2 β 0 00 5 00 2 00 SE3 0 001 0 250 A SEF3 Threshold 0 500 TSE3 0 00 300 00 s SEF3 Definite time 0 00 SE4 0 001 0 250 A SEF4 Threshold 0 500 TSE4 0 00 300 00 s SEF4 Definite time 0 00 THM THM 0 40 10 00 A Thermal Overload 1 00A THMIP 0 00 5 00 A Prior load Test 0 00A TTHM 0 5 500 0 min Thermal heatin...

Page 240: ...1 310 00 s 2nd shot Reset timer of Stage1 310 00 TD3 0 01 300 00 s 3rd shot Dead timer of Stage1 10 00 TR3 0 01 310 00 s 3rd shot Reset timer of Stage1 310 00 TD4 0 01 300 00 s 4th shot Dead timer of Stage1 10 00 TR4 0 01 310 00 s 4th shot Reset timer of Stage1 310 00 TD5 0 01 300 00 s 5th shot Dead timer of Stage1 10 00 TR5 0 01 310 00 s 5th shot Reset timer of Stage1 310 00 TW 0 01 10 00 s Out p...

Page 241: ...rdware check 3 1 User interface check 3 2 Binary input binary output circuit check 3 3 AC input circuit 4 Function test 4 1 Overcurrent elements test 4 2 Operating time test IDMT 4 3 BCD element check 4 4 Cold load function check 5 Protection scheme test 6 Metering and recording check 7 Conjunctive test 242 ...

Page 242: ...heme Witness Active settings group number 2 Preliminary check Ratings CT shorting contacts Power supply Power up Wiring Relay inoperative alarm contact Calendar and clock 3 Hardware check 3 1 User interface check 3 2 Binary input binary output circuit check Binary input circuit Binary output circuit 3 3 AC input circuit 243 ...

Page 243: ...est Element Current setting Measured current OC1 A OC2 A OC3 A OC4 A EF1 EF2 EF3 EF4 SEF1 SEF2 SEF3 SEF4 UC1 A UC2 A THM A THM T NPS1 NPS2 BCD CBF A 4 2 Operating time test IDMT Element Curve setting Multiplier setting Measured time OC1 A EF1 EF2 SEF1 SEF2 244 ...

Page 244: ...6 F 2 T 0 1 7 2 4 3 BCD element check 4 4 Cold load function check 5 Protection scheme test 6 Metering and recording check 7 Conjunctive test Scheme Results On load check Tripping circuit 245 ...

Page 245: ...6 F 2 T 0 1 7 2 Appendix J Return Repair Form 246 ...

Page 246: ...ype GRE110 Model Example Type GRE110 Model 401A Product No Serial No Date 1 Reason for returning the relay mal function does not operate increased error investigation others 2 Fault records event records or disturbance records stored in the relay and relay settings are very helpful information to investigate the incident Please provide relevant information regarding the incident on USB stick or CD...

Page 247: ... 1 7 2 Fault Record Date Month Year Time Example 04 Jul 2010 15 09 58 442 Faulty phase Prefault values Ia A Ib A Ic A IE A ISE A I1 A I2 A I2 I1 THM Fault values Ia A Ib A Ic A IE A ISE A I1 A I2 A I2 I1 THM 248 ...

Page 248: ...as the message on the LCD display at the time of the incident 4 Describe the details of the incident 5 Date incident occurred Day Month Year Example 10 July 2010 6 Give any comments about the GRE110 including the documents 249 ...

Page 249: ...6 F 2 T 0 1 7 2 Customer Name Company Name Address Telephone No Facsimile No Signature 250 ...

Page 250: ...6 F 2 T 0 1 7 2 Appendix K Technical Data 251 ...

Page 251: ...current inputs 0 2VA AC earth current inputs 0 4VA AC sensitive earth inputs 1 2VA DC power supply 10W quiescent 15W maximum Binary input circuit 0 5W per input at 220Vdc Current Transformer Requirements Phase Inputs Typically 5P20 with rated burden according to load refer to manual for detailed instructions Standard Earth Inputs Core balance CT or residual connection of phase CTs Sensitive Earth ...

Page 252: ...0 0 300 0s in 0 1s steps Stage 1 RTMS 0 010 1 500 in 0 001 steps Stage 2 DTL delay 0 00 300 00s in 0 01s steps 3 rd 4 th thresholds OFF 0 001 0 250A in 0 001A steps DTL delay 0 00 300 00s in 0 01s steps Residual Power ZP setting 0 00 100 00W in 0 01W steps Phase Undercurrent Protection 37 1 st 2 nd threshold OFF 0 10 10 00A in 0 01A steps DTL delay 0 00 300 00s in 0 01s steps Thermal Overload Prot...

Page 253: ...ms input 80 of setting NPS Operate Time DTL 150ms input 200 of setting CBF Operate Time DTL 30ms input 200 of setting Transient Overreach for instantaneous elements 5 Time delays includes operating time of trip contacts Front Communication port local PC USB Connector type USB Type B Cable length 5m max Rear Communication port remote PC RS485 Connection Multidrop max 32 relays Cable type Twisted pa...

Page 254: ...ronment Temperature IEC 60068 2 1 2 IEC 60068 2 30 Operating range 20 C to 60 C Storage Transit 25 C to 70 C Humidity IEC 60068 2 78 56 days at 40 C and 93 relative humidity Enclosure Protection IEC 60529 IP52 front IP20 rear IP40 top Mechanical Environment Vibration IEC 60255 21 1 Response Class 1 Endurance Class 1 Shock and Bump IEC 60255 21 2 Shock Response Class 1 Shock Withstand Class 1 Bump ...

Page 255: ...Supply Unit and I O ports 2kV 1kV peak RS485 port 1kV peak Conducted RF Electromagnetic Disturbance IEC 60255 22 6 Class 3 IEC 61000 4 6 10Vrms applied over frequency range 150kHz to 100MHz Additional spot tests at 27 and 68MHz Power Frequency Disturbance IEC 60255 22 7 Class A IEC 61000 4 16 300V 50Hz for 10s applied to ports in common mode 150V 50Hz for 10s applied to ports in differential mode ...

Page 256: ...6 F 2 T 0 1 7 2 Appendix L Symbols Used in Scheme Logic 257 ...

Page 257: ...ed with Scheme switch position Unmarked Internal scheme logic signal AND gates A B C Output 1 1 1 1 Other cases 0 A B C Output 1 1 0 1 Other cases 0 A B C Output 1 0 0 1 Other cases 0 OR gates A B C Output 0 0 0 0 Other cases 1 A B C Output 0 0 1 0 Other cases 1 A B C Output 0 1 1 0 Other cases 1 XOR gates A B Output 0 1 1 1 0 1 Other cases 0 A Output B C A Output B 1 C A Output B C A Output B 1 C...

Page 258: ...h variable setting XXX YYY Setting range Delayed drop off timer with variable setting XXX YYY Setting range One shot timer XXX YYY Setting range Flip flop S R Output 0 0 No change 1 0 1 0 1 0 1 1 0 Scheme switch A Switch Output 1 ON 1 Other cases 0 Switch Output ON 1 OFF 0 0 t XXX t 0 XXX 0 t XXX YYY XXX YYY t 0 Output ON Output ON A S Output F F R Output A 1 XXX YYY A Output A Output 259 ...

Page 259: ...6 F 2 T 0 1 7 2 Appendix M Modbus Interoperability 260 ...

Page 260: ...alog inputs 05 Write Single Coil Remote command and Time synchronization 06 Write Single Register Need to specify record number 07 Read Exception status Returns relay and CB status 08 Diagnostic 16 Write Multiple Registers Current time setting etc 17 Report Slave ID Returns device ID 43 Read device Identification SC 14 Returns device information For FC Function Code 01 02 03 04 05 06 and 16 the re...

Page 261: ...pervision alarm bit14 Reserved bit15 Reserved 03 not supported 17 Report Slave ID Response Data Byte Count 1byte 18bytes Slave ID 17bytes Relay type and model ID GRE110 401A 00 10 ASCII Run Indicator Status 1byte 0x00 out of service 0xFF in service 43 Read Device Identification SC 14 Response Data Param OID 01 Basic device identification 00 TOSHIBA Vendor Name 01 GRE110 401 Product Code 02 A Major...

Page 262: ...00 72 Event record No Time ID Status 10 out of max 200 records write protected 0x3800 4 Current time data IEC format 0x3810 36 Counter data number of trips Iy etc 2 word long 0x3E82 2 Password for remote control 0x4000 Setting value see Appendix H for detail 0x8000 Undefined after this address Discrete Inputs Single bit Read Only Coils Single bit Read Write Input Registers 16 bit word Read Only Ho...

Page 263: ...ut 1017 BO1 1018 BO2 1019 BO3 101A BO4 101B BO5 101C BO6 101D BO7 101E BO8 LED lamp status R 1040 IN SERVICE 1041 TRIP 1042 ALARM 1043 RELAY FAIL 1044 CB CLOSED 1045 CB OPEN 1046 LOCAL 1047 REMOTE 1048 LED1 1049 LED2 104A LED3 104B LED4 104C LED5 104D LED6 Virtual LED status R 1080 IND1 BIT1 1081 IND1 BIT2 1082 IND1 BIT3 1083 IND1 BIT4 1084 IND1 BIT5 1085 IND1 BIT6 1086 IND1 BIT7 1087 IND1 BIT8 10...

Page 264: ...IO 1000 kA 2005 Ic L Secondary Value 0 005 A 2006 Ie H Primary value 0 0025 CT_RATIO 1000 kA 2007 Ie L Secondary value 0 0025 A 2008 Ise H Only for GRE110 42xA 2009 Ise L 200A I1 H Primary value 0 005 CT_RATIO 1000 kA 200B I1 L Secondary Value 0 005 A 200C I2 H Primary value 0 005 CT_RATIO 1000 kA 200D I2 L Secondary Value 0 005 A 200E I2 I1 H 100x displayed value 200F I2 I1 L 2010 Thermal H Prima...

Page 265: ...5 Ic L 2806 Ie H 2807 Ie L 2808 Ise H Only for GRE110 42xA 2809 Ise L 280A I1 H 280B I1 L 280C I2 H 280D I2 L 280E I2 I1 H 280F I2 I1 L 2810 Thermal H 2811 Thermal L 2812 2813 2814 Ia max H 2815 Ia max L 2816 Ib max H 2817 Ib max L 2818 Ic max H 2819 Ic max L 281A Ie max H 281B Ie max L 281C Ise max H Only for GRE110 42xA 281D Ise max L 281E I2 max H 281F I2 max L 2820 I2 I1 max H 2821 I2 I1 max L...

Page 266: ...g data are set to 0 3009 milliseconds 0 59999 millisecond 300A hours minutes 0 23 h 0 59 m 300B months days 1 12 m 1 31 d 300C year 0 99 y 300D Fault phase 300E Trip mode 300F No 3 Indication of record 3 If no data all following data are set to 0 3010 milliseconds 0 59999 millisecond 3011 hours minutes 0 23 h 0 59 m 3012 months days 1 12 m 1 31 d 3013 year 0 99 y 3014 Fault phase 3015 Trip mode 30...

Page 267: ...months days 1 12 m 1 31 d 320D year 0 99 y 320E Event ID See Appendix C 320F Action 1 on 2 off 3210 No X 2 Returns Set No 2 If no data all of the following data is set to 0 3211 milliseconds 0 59999 millisecond 3212 hours minutes 0 23 h 0 59 m 3213 months days 1 12 m 1 31 d 3214 year 0 99 y 3215 Event ID See Appendix C 3216 Action 1 on 2 off 3217 No X 3 Returns Set No 3 If no data all of the follo...

Page 268: ...2 off 3233 No X 7 Returns Set No 7 If no data all of the following data is set to 0 3234 milliseconds 0 59999 millisecond 3235 hours minutes 0 23 h 0 59 m 3236 months days 1 12 m 1 31 d 3237 year 0 99 y 3238 Event ID See Appendix C 3239 Action 1 on 2 off 323A No X 8 Returns Set No 8 If no data all of the following data is set to 0 323B milliseconds 0 59999 millisecond 323C hours minutes 0 23 h 0 5...

Page 269: ... Trips Phase A L 3812 Trips Phase B H Can be set initial value 3813 Trips Phase B L 3814 Trips Phase C H Can be set initial value 3815 Trips Phase C L 3816 Trips any phase H Can be set initial value 3817 Trips any phase L 3818 Iy A H Can be set initial value 3819 Iy A L 381A Iy B H Can be set initial value 381B Iy B L 381C Iy C H Can be set initial value 381D Iy C L Password 3E82 Control H 3E82 3E...

Page 270: ... 6007 OC Disturbance trigger 6008 EF Disturbance trigger 6009 SEF Disturbance trigger 600A NPS Disturbance trigger 600B SIG1 Disturbance trigger 600C SIG2 Disturbance trigger 600D SIG3 Disturbance trigger 600E SIG4 Disturbance trigger 600F SIG5 Disturbance trigger 6010 SIG6 Disturbance trigger 6011 SIG7 Disturbance trigger 6012 SIG8 Disturbance trigger 6013 SIG9 Disturbance trigger 6014 SIG10 Dist...

Page 271: ... 6401 Time sync Time synchronization method 4A61 Time sync Time synchronization method by optional com 4A62 GMT Time zone hour 4A6A GMTm Time zone minutes Binary Input 6C00 BITHR1 BI threshold for BI1 BI2 6C01 BITHR2 BI threshold for BI3 6 6C02 BI1 BI1PUD Binary Input 1 Pick up delay 6C03 BI1 BI1DOD Binary Input 1 Drop off delay 6C04 BI1 BI1SNS Binary Input 1 Sense 6C05 BI1 BI1SGS Binary Input 1 S...

Page 272: ...d 6C28 BI1 ARCNAT ARC not applied command 6C29 BI1 ARCMCL ARC manual close command 6C2A BI2 BI2PUD Binary Input 2 Pick up delay 6C2B BI2 BI2DOD Binary Input 2 Drop off delay 6C2C BI2 BI2SNS Binary Input 2 Sense Binary Input 6C2D BI2 BI2SGS Binary Input 2 Settings Group Select 6C2E BI2 OC1BLK OC1 Block 6C2F BI2 OC2BLK OC2 Block 6C30 BI2 OC3BLK OC3 Block 6C31 BI2 OC4BLK OC4 Block 6C32 BI2 EF1BLK EF1...

Page 273: ...ary Input 3 Drop off delay 6C54 BI3 BI3SNS Binary Input 3 Sense 6C55 BI3 BI3SGS Binary Input 3 Settings Group Select 6C56 BI3 OC1BLK OC1 Block 6C57 BI3 OC2BLK OC2 Block Binary Input 6C58 BI3 OC3BLK OC3 Block 6C59 BI3 OC4BLK OC4 Block 6C5A BI3 EF1BLK EF1 Block 6C5B BI3 EF2BLK EF2 Block 6C5C BI3 EF3BLK EF3 Block 6C5D BI3 EF4BLK EF4 Block 6C5E BI3 SE1BLK SEF1 Block 6C5F BI3 SE2BLK SEF2 Block 6C60 BI3...

Page 274: ...lock 6C7F BI4 OC2BLK OC2 Block 6C80 BI4 OC3BLK OC3 Block 6C81 BI4 OC4BLK OC4 Block 6C82 BI4 EF1BLK EF1 Block Binary Input 6C83 BI4 EF2BLK EF2 Block 6C84 BI4 EF3BLK EF3 Block 6C85 BI4 EF4BLK EF4 Block 6C86 BI4 SE1BLK SEF1 Block 6C87 BI4 SE2BLK SEF2 Block 6C88 BI4 SE3BLK SEF3 Block 6C89 BI4 SE4BLK SEF4 Block 6C8A BI4 UCBLK Undercurrent Block 6C8B BI4 THMBLK Thermal Protection Block 6C8C BI4 NPSBLK N...

Page 275: ... BI5 EF3BLK EF3 Block 6CAD BI5 EF4BLK EF4 Block Binary Input 6CAE BI5 SE1BLK SEF1 Block 6CAF BI5 SE2BLK SEF2 Block 6CB0 BI5 SE3BLK SEF3 Block 6CB1 BI5 SE4BLK SEF4 Block 6CB2 BI5 UCBLK Undercurrent Block 6CB3 BI5 THMBLK Thermal Protection Block 6CB4 BI5 NPSBLK NPS Block 6CB5 BI5 BCDBLK Broken Conductor Protection Block 6CB6 BI5 TCFALM Trip Circuit Fail Alarm 6CB7 BI5 CBOPN Circuit Breaker Open 6CB8...

Page 276: ...I6 SE4BLK SEF4 Block 6CDA BI6 UCBLK Undercurrent Block 6CDB BI6 THMBLK Thermal Protection Block 6CDC BI6 NPSBLK NPS Block 6CDD BI6 BCDBLK Broken Conductor Protection Block 6CDE BI6 TCFALM Trip Circuit Fail Alarm 6CDF BI6 CBOPN Circuit Breaker Open 6CE0 BI6 CBCLS Circuit Breaker Close 6CE1 BI6 EXT3PH External Trip 3 phase 6CE2 BI6 EXTAPH External Trip A phase 6CE3 BI6 EXTBPH External Trip B phase 6...

Page 277: ... In 1 Functions 7409 BO3 In 2 Functions 740A BO3 In 3 Functions 740B BO3 In 4 Functions 7452 BO3 TBO Delay Pulse Width 742E BO4 Logic Logic Gate Type 742F BO4 Reset Reset operation 740C BO4 In 1 Functions 740D BO4 In 2 Functions 740E BO4 In 3 Functions 740F BO4 In 4 Functions 7453 BO4 TBO Delay Pulse Width 7430 BO5 Logic Logic Gate Type 7431 BO5 Reset Reset operation 7410 BO5 In 1 Functions 7411 B...

Page 278: ...5 LED3 Reset LED3 Reset operation 7026 LED4 Logic LED4 Logic Gate Type 7027 LED4 Reset LED4 Reset operation 7028 LED5 Logic LED5 Logic Gate Type 7029 LED5 Reset LED5 Reset operation 702A LED6 Logic LED6 Logic Gate Type 702B LED6 Reset LED6 Reset operation 7000 LED1 In 1 LED Functions 7001 LED1 In 2 LED Functions 7002 LED1 In 3 LED Functions 7003 LED1 In 4 LED Functions 7004 LED2 In 1 LED Functions...

Page 279: ...030 IND1 BIT1 Virtual LED 7031 IND1 BIT2 Virtual LED 7032 IND1 BIT3 Virtual LED 7033 IND1 BIT4 Virtual LED 7034 IND1 BIT5 Virtual LED 7035 IND1 BIT6 Virtual LED 7036 IND1 BIT7 Virtual LED 7037 IND1 BIT8 Virtual LED 7038 IND2 BIT1 Virtual LED 7039 IND2 BIT2 Virtual LED 703A IND2 BIT3 Virtual LED 703B IND2 BIT4 Virtual LED 703C IND2 BIT5 Virtual LED 703D IND2 BIT6 Virtual LED 703E IND2 BIT7 Virtual ...

Page 280: ...rve Type 402D 502D OC OC2R OC2 Reset Characteristic 4039 5039 OC OC2 2F 2f Block Enable 4008 5008 OC OC3EN OC3 Enable 403A 503A OC OC3 2F 2f Block Enable 4009 5009 OC OC4EN OC4 Enable 403B 503B OC OC4 2F 2f Block Enable 400A 500A UC UC1EN UC1 Enable 400B 500B UC UC2EN UC2 Enable 400C 500C EF EF1EN EF1 Enable 400D 500D EF MEF1 EF1 Delay Type 400E 500E EF MEF1C IEC EF1 IEC Inverse Curve Type 400F 50...

Page 281: ...able 401D 501D SEF SE3EN SEF3 Enable 4042 5042 SEF SE3 2F 2f Block Enable 40A9 50A9 SEF SE3 DIR SEF3 Directional 401E 501E SEF SE4EN SEF4 Enable 4043 5043 SEF SE4 2F 2f Block Enable 40AA 50AA SEF SE4 DIR SEF4 Directional 40AB 50AB SEF ZPEN Residual Power block Enable 401F 501F Thermal THMEN Thermal OL Enable 4020 5020 Thermal THMAEN Thermal Alarm Enable 4021 5021 NPS NPS1EN NPS1 Enable 4044 5044 N...

Page 282: ...4 5804 UC UC1 UC1 Threshold setting 4404 5404 UC TUC1 UC1 Definite time setting 4805 5805 UC UC2 UC2 Threshold setting 4405 5405 UC TUC2 UC2 Definite time setting 4809 5809 EF EF1 EF1 Threshold setting 480D 580D EF TEF1 EF1 Time multiplier setting 4406 5406 EF TEF1 EF1 Definite time setting 480E 580E EF TEF1R EF1 Definite time reset delay 480F 580F EF TEF1RM EF1 Dependent time reset time multiplie...

Page 283: ...ime setting 4834 5834 SEF SE1 k Configurable IDMT Curve setting of SEF1 4835 5835 SEF SE1 α Configurable IDMT Curve setting of SEF1 4836 5836 SEF SE1 C Configurable IDMT Curve setting of SEF1 4837 5837 SEF SE1 kr Configurable IDMT Curve setting of SEF1 4838 5838 SEF SE1 β Configurable IDMT Curve setting of SEF1 4839 5839 SEF SE2 k Configurable IDMT Curve setting of SEF2 483A 583A SEF SE2 α Configu...

Page 284: ...ode of 2nd trip 405C 505C ARC OC2 TP3 OC2 trip mode of 3rd trip 405D 505D ARC OC2 TP4 OC2 trip mode of 4th trip 405E 505E ARC OC2 TP5 OC2 trip mode of 5th trip 405F 505F ARC OC2 TP6 OC2 trip mode of 6th trip 4060 5060 ARC OC3 INIT Autoreclosing initiation by OC3 4061 5061 ARC OC3 TP1 OC3 trip mode of 1st trip 4062 5062 ARC OC3 TP2 OC3 trip mode of 2nd trip 4063 5063 ARC OC3 TP3 OC3 trip mode of 3r...

Page 285: ... of 3rd trip 4087 5087 ARC EF4 TP4 EF4 trip mode of 4th trip 4088 5088 ARC EF4 TP5 EF4 trip mode of 5th trip 4089 5089 ARC EF4 TP6 EF4 trip mode of 6th trip 408A 508A ARC SE1 INIT Autoreclosing initiation by SE1 408B 508B ARC SE1 TP1 SE1 trip mode of 1st trip 408C 508C ARC SE1 TP2 SE1 trip mode of 2nd trip 408D 508D ARC SE1 TP3 SE1 trip mode of 3rd trip 408E 508E ARC SE1 TP4 SE1 trip mode of 4th t...

Page 286: ...ot Dead timer of Stage1 4424 5424 ARC TR3 3rd shot Reset timer of Stage1 4425 5425 ARC TD4 4th shot Dead timer of Stage1 4426 5426 ARC TR4 4th shot Reset timer of Stage1 4427 5427 ARC TD5 5th shot Dead timer of Stage1 4428 5428 ARC TR5 5th shot Reset timer of Stage1 4429 5429 ARC TW Output pulse timer 442A 542A ARC TSUC Autoreclosing Pause Timer after manually close 442B 542B ARC TRCOV Autoreclosi...

Page 287: ...E820002 B Enable flag setting for remote control To enable the remote control turn on the address of 0200 Remote control enable flag When the operation completed or time out occurs the flag is reset Flag state can be checked in the command of FC 01 Read Coils Message example to relay 02050200FF00 from relay 02050200FF00 C Remote control To control the CB at remote site turn on or off the address o...

Page 288: ...6 F 2 T 0 1 7 2 Message example Relay address 01 CB off need CRC frame to relay 010504000000 from relay 010504000000 289 ...

Page 289: ...6 F 2 T 0 1 7 2 Appendix N IEC60870 5 103 Interoperability 290 ...

Page 290: ... a Class 2 poll The rate at which the relay produces new measured values is 2 seconds It should be noted that the measurands transmitted by the relay are sent as a proportion of either 1 2 or 2 4 times the rated value of the analog value Either 1 2 or 2 4 can be selected by the IECNFI setting 3 4 Commands A list of the supported commands is contained in the table below The relay will respond to ot...

Page 291: ...aracteristic1 Setting group 1 active GI 1 1 7 9 11 12 20 21 160 24 Characteristic2 Setting group 2 active GI 1 1 7 9 11 12 20 21 160 25 Characteristic3 Setting group 3 active Not supported 26 Characteristic4 Setting group 4 active Not supported 27 Auxiliary input1 User specified signal 1 Signal specified by IECB1 ON 1 GI 1 1 7 9 160 28 Auxiliary input2 User specified signal 2 Signal specified by I...

Page 292: ...tion Signal received Carrier signal receiving Not supported 78 Zone1 Zone 1 trip Not supported 79 Zone2 Zone 2 trip Not supported 80 Zone3 Zone 3 trip Not supported 81 Zone4 Zone 4 trip Not supported 82 Zone5 Zone 5 trip Not supported 83 Zone6 Zone 6 trip Not supported 84 General Start Pick up Any elements pick up GI 2 1 7 9 160 85 Breaker Failure CBF trip or CBF retrip 2 1 7 160 86 Trip measuring...

Page 293: ...surand meaurand I 3 2 2 7 160 146 Measurand I V P Q Ib measurand meaurand I 3 3 2 7 160 147 Measurand IN VEN Ie Io measurand meaurand I 3 4 2 7 160 148 Measurand IL1 2 3 VL1 2 3 P Q f Ia Ib Ic measurand meaurand II 9 2 7 160 Generic Function 240 Read Headings Not supported 241 Read attributes of all entries of a group Not supported 243 Read directory of entry Not supported 244 Real attribute of en...

Page 294: ...s of all entries of one group Not supported 243 Read directory of a single entry Not supported 244 Read values or attributes of a single entry Not supported 245 General Interrogation of generic data Not supported 248 Write entry Not supported 249 Write entry with confirmation Not supported 250 Write entry with execution Not supported 251 Write entry abort Not supported Note 4 When the relay is rec...

Page 295: ...29 transmission of tags 30 transmission of disturbance values 31 end of transmission COT Cause of Transmission refer to IEC60870 5 103 section 7 2 3 1 spontaneous 2 cyclic 3 reset frame count bit FCB 4 reset communication unit CU 5 start restart 6 power on 7 test mode 8 time synchronization 9 general interrogation 10 termination of general interrogation 11 local operation 12 remote operation 20 po...

Page 296: ...6 F 2 T 0 1 7 2 Appendix O PLC Default setting 297 ...

Page 297: ...2 T 0 1 7 2 INPUT ARC READY 302 CONSTANT 1 10 OUTPUT ARC S1 COND 303 CONSTANT 1 10 ARC S2 COND 304 CONSTANT 1 10 ARC S3 COND 305 CONSTANT 1 10 ARC S4 COND 306 CONSTANT 1 10 ARC S5 COND 307 CONSTANT 1 10 298 ...

Page 298: ...6 F 2 T 0 1 7 2 Appendix P Inverse Time Characteristics 299 ...

Page 299: ... 0 1 1 10 100 1 10 100 Current Multiple of Setting Operating Time s 1 0 5 0 1 0 2 1 5 TMS IEC UK Inverse Curves VI Time Multiplier TMS 0 1 1 5 0 01 0 1 1 10 100 1 10 100 Current Multiple of Setting Operating Time s 1 0 0 5 0 2 0 1 1 5 TMS Normal Inverse Very Inverse 300 ...

Page 300: ... 1 10 100 1000 1 10 100 Current Multiple of Setting Operating Time s 1 0 0 5 0 2 0 1 1 5 TMS UK Inverse Curves LTI Time Multiplier TMS 0 1 1 5 0 1 1 10 100 1000 1 10 100 Current Multiple of Setting Operating Time s 1 0 0 2 0 5 0 1 1 5 TMS Extremely Inverse Long Time Inverse 301 ...

Page 301: ... 0 1 1 10 100 1 10 100 Current Multiple of Setting Operating Time s 1 5 1 0 0 5 0 2 0 1 TMS IEEE Inverse Curves VI Time Multiplier TMS 0 1 1 5 0 01 0 1 1 10 100 1 10 100 Current Multiple of Setting Operating Time s 1 5 1 0 0 5 0 2 0 1 TM Moderately Inverse Very Inverse 302 ...

Page 302: ...6 F 2 T 0 1 7 2 IEEE Inverse Curves EI Time Multiplier TMS 0 1 1 5 0 01 0 1 1 10 100 1 10 100 Current Multiple of Setting Operating Time s 1 5 1 0 0 5 0 2 0 1 TMS Extremely Inverse 303 ...

Page 303: ... 0 1 1 10 100 1 10 100 Current Multiple of Setting Operating Time s 1 5 1 0 0 5 0 2 0 1 TMS US Inverse Curves CO2 Time Multiplier TMS 0 1 1 5 0 01 0 1 1 10 1 10 100 Current Multiple of Setting Operating Time s 1 5 1 0 0 5 0 2 0 1 TMS CO8 Inverse CO2 Short Time Inverse 304 ...

Page 304: ...6 F 2 T 0 1 7 2 Appendix Q IEC61850 Interoperability 305 ...

Page 305: ...ical Nodes GRE110 L System Logical Nodes LPHD Yes Common Logical Node Yes LLN0 Yes P Logical Nodes for Protection functions PDIF PDIR PDIS PDOP PDUP PFRC PHAR Yes PHIZ PIOC PMRI PMSS POPE PPAM PSCH PSDE PTEF PTOC Yes PTOF PTOV PTRC Yes PTTR Yes PTUC Yes PTUV PUPF PTUF PVOC PVPH PZSU R Logical Nodes for protection related functions RDRE RADR RBDR RDRS RBRF Yes RDIR RFLO RPSB RREC Yes RSYN C Logical...

Page 306: ...al Nodes for Metering and measurement MDIF MHAI MHAN MMTR MMXN MMXU Yes MSQI Yes MSTA S Logical Nodes for Sensors and monitoring SARC SIMG SIML SPDC X Logical Nodes for Switchgear XCBR Yes XSWI T Logical Nodes for Instrument transformers TCTR TVTR Y Logical Nodes for Power transformers YEFN YLTC YPSH YPTR Z Logical Nodes for Further power system equipment ZAXN ZBAT ZCAB ZCAP ZCON ZGEN ZGIL ZLIN ZM...

Page 307: ...S INS Yes ACT Yes ACD Yes SEC BCR Measured information CMV Yes SAV WYE Yes DEL SEQ Yes HMV HWYE HDEL Controllable status information SPC Yes DPC Yes INC Yes BSC ISC Controllable analogue information APC Status settings SPG ING Yes Analogue settings ASG Yes CURVE Description information DPL Yes LPL Yes CSD 308 ...

Page 308: ...all be inherited by ALL LN but LPHD Mod INC Mode M Y Beh INS Behaviour M Y Health INS Health M Y NamPlt LPL Name plate M Y Optional Logical Node Information Loc SPS Local operation O N EEHealth INS External equipment health O N EEName DPL External equipment name plate O N OpCntRs INC Operation counter resetable O N OpCnt INS Operation counter O N OpTmh INS Operation time O N Data Sets see IEC 6185...

Page 309: ...on Str ACD Start M Y Op ACT Operate T M Y TmASt CSD Active curve characteristic O N Settings TmACrv CURVE Operating Curve Type O N StrVal ASG Start Value O Y TmMult ASG Time Dial Multiplier O N MinOpTmms ING Minimum Operate Time O N MaxOpTmms ING Maximum Operate Time O N OpDITmms ING Operate Delay Time O Y TypRsCrv ING Type of Reset Curve O N RsDITmms ING Reset Delay Time O N DirMod ING Directiona...

Page 310: ...r current measurement Thermal model O N TmpMax ASG Maximum allowed temperature O N StrVal ASG Start Value O Y OpDlTmms ING Operate Delay Time O N MinOpTmms ING Minimum Operate Time O N MaxOpTmms ING Maximum Operate Time O N RsDlTmms ING Reset Delay Time O N ConsTms ING Time constant of the thermal model O N AlmVal ASG Alarm Value O N PTUC class Attribute Name Attr Type Explanation T M O GRE110 LNN...

Page 311: ...Delay O N DetValA ASG Current Detector Value O Y ReTrMod ING Retrip Mode O N Condition C At least one of either data shall be used depending on the applied tripping schema RREC class Attribute Name Attr Type Explanation T M O GRE110 LNName Shall be inherited from Logical Node Class see IEC 61850 7 2 Data Common Logical Node Information LN shall inherit all Mandatory Data from Common Logical Node C...

Page 312: ...PosB DPC Switch L2 O N PosC DPC Switch L3 O N OpOpn ACT Operation Open Switch T O N OpCls ACT Operation Close Switch T O N XCBR class Attribute Name Attr Type Explanation T M O GRE110 LNName Shall be inherited from Logical Node Class see IEC 61850 7 2 Data Common Logical Node Information LN shall inherit all Mandatory Data from Common Logical Node Class M EEHealth INS External equipment health ext...

Page 313: ... status output O N DPCSO DPC Double point controllable status output O N ISCSO INC Integer status controllable status output O N Status Information IntIn INS Integer status input O N Alm SPS General single alarm O N Ind1 SPS General indication binary input O Y Ind2 SPS General indication binary input O Y Ind3 SPS General indication binary input O Y Ind4 SPS General indication binary input O Y Ind5...

Page 314: ... status output O N Status Information IntIn INS Integer status input O N Alm SPS General single alarm O N Ind1 SPS General indication binary input O Y Ind2 SPS General indication binary input O Y Ind3 SPS General indication binary input O Y Ind4 SPS General indication binary input O Y Ind5 SPS General indication binary input O Y Ind6 SPS General indication binary input O Y Ind7 SPS General indicat...

Page 315: ... MSQI class Attribute Name Attr Type Explanation T M O GRE110 LNName Shall be inherited from Logical Node Class see IEC 61850 7 2 Data Common Logical Node Information LN shall inherit all Mandatory Data from Common Logical Node Class M EEHealth INS External equipment health external sensor O N EEName DPL External equipment name plate O N Measured values SeqA SEQ Positive Negative and Zero Sequence...

Page 316: ...IBLE STRING255 EX AC_DLNDA_M N dataNs VISIBLE STRING255 EX AC_DLN_M N Services As defined in Table 13 see IEC 61850 7 3 INS class Attribute Name Attribute Type FC TrgOp Value Value Range M O C GRE110 DataName Inherited from Data Class see IEC 61850 7 2 DataAttribute status stVal INT32 ST dchg M Y q Quality ST qchg M Y t TimeStamp ST M Y Substitution subEna BOOLEAN SV PICS_SUBST N subVal INT32 SV P...

Page 317: ...gOp Value Value Range M O C GRE110 DataName Inherited from Data Class see IEC 61850 7 2 DataAttribute status general BOOLEAN ST dchg M Y dirGeneral ENUMERATED ST dchg unknown forward backward both M Y phsA BOOLEAN ST dchg GC_2 1 Y dirPhsA ENUMERATED ST dchg unknown forward backward GC_2 1 Y phsB BOOLEAN ST dchg GC_2 2 Y dirPhsB ENUMERATED ST dchg unknown forward backward GC_2 2 Y phsC BOOLEAN ST d...

Page 318: ...ig CF AC_SCAV N angRef ENUMERATED CF V A other O N smpRate INT32U CF O N d VISIBLE STRING255 DC Text O N dU UNICODE STRING255 DC O N cdcNs VISIBLE STRING255 EX AC_DLNDA_M N cdcName VISIBLE STRING255 EX AC_DLNDA_M N dataNs VISIBLE STRING255 EX AC_DLN_M N Services As defined in Table 21 see IEC 61850 7 3 WYE class Attribute Name Attribute Type FC TrgOp Value Value Range M O C GRE110 DataName Inherit...

Page 319: ...DataAttribute measured attributes seqT ENUMERATED MX pos neg zero dir quad zero M Y configuration description and extension phsRef ENUMERATED CF A B C O N d VISIBLE STRING255 DC Text O N dU UNICODE STRING255 DC O N cdcNs VISIBLE STRING255 EX AC_DLNDA_M N cdcName VISIBLE STRING255 EX AC_DLNDA_M N dataNs VISIBLE STRING255 EX AC_DLN_M N Services As defined in Table 21 see IEC 61850 7 3 320 ...

Page 320: ...l BOOLEAN ST dchg FALSE TRUE AC_ST Y q Quality ST qchg AC_ST Y t TimeStamp ST AC_ST Y stSeld BOOLEAN ST dchg AC_CO_O N Substitution subEna BOOLEAN SV PICS_SUBST N subVal BOOLEAN SV FALSE TRUE PICS_SUBST N subQ Quality SV PICS_SUBST N subID VISIBLE STRING64 SV PICS_SUBST N configuration description and extension pulseConfig PulseConfig CF AC_CO_O N CtlModel CtlModels CF M Y sboTimeout INT32U CF AC_...

Page 321: ...rmediate state off on bad state M Y q Quality ST qchg M Y t TimeStamp ST M Y stSeld BOOLEAN ST dchg AC_CO_O N Substitution subEna BOOLEAN SV PICS_SUBST N subVal CODED ENUM SV intermediate state off on bad state PICS_SUBST N subQ Quality SV PICS_SUBST N subID VISIBLE STRING64 SV PICS_SUBST N configuration description and extension pulseConfig PulseConfig CF AC_CO_O N ctlModel CtlModels CF M Y sboTi...

Page 322: ... Quality ST qchg M Y T TimeStamp ST M Y stSeld BOOLEAN ST dchg AC_CO_O N substitution subEna BOOLEAN SV PICS_SUBST N subVal INT32 SV FALSE TRUE PICS_SUBST N subQ Quality SV PICS_SUBST N subID VISIBLE STRING64 SV PICS_SUBST N configuration description and extension CtlModel CtlModels CF M Y sboTimeout INT32U CF AC_CO_O N sboClass SboClasses CF AC_CO_O N minVal INT32 CF O N maxVal INT32 CF O N stepS...

Page 323: ..._M N Services As defined in Table 39 see IEC 61850 7 3 ASG class Attribute Name Attribute Type FC TrgOp Value Value Range M O C GRE110 DataName Inherited from Data Class see IEC 61850 7 2 DataAttribute setting setMag AnalogueValue SP AC_NSG_M Y setMag AnalogueValue SG SE AC_SG_M N configuration description and extension units Unit CF see Annex A O Y sVC ScaledValueConfig CF AC_SCAV Y minVal Analog...

Page 324: ...M N Services As defined in Table 45 see IEC 61850 7 3 LPL class Attribute Name Attribute Type FC TrgOp Value Value Range M O C GRE110 DataName Inherited from Data Class see IEC 61850 7 2 DataAttribute configuration description and extension vendor VISIBLE STRING255 DC M Y swRev VISIBLE STRING255 DC M Y d VISIBLE STRING255 DC M Y dU UNICODE STRING255 DC O N configRev VISIBLE STRING255 DC AC_LN0_M Y...

Page 325: ...C11 OC1 PTOC12 OC2 PTOC13 OC3 PTOC14 OC4 PTOC21 EF1 PTOC22 EF2 PTOC23 EF3 PTOC24 EF4 PTOC31 SEF1 PTOC32 SEF2 PTOC33 SEF3 PTOC34 SEF4 PTOC41 NPS1 PTOC42 NPS2 PTOC5 BC PTRC PTRC1 General Trip PTTR PTTR1 THM A THM T PTUC PTUC1 UC1 PTUC2 UC2 RBRF RBRF1 CBF trip CBF retrip RREC RREC1 Auto reclose 326 ...

Page 326: ...rmance Statement PICS of the IEC 61850 interface in GRE series IED with communication firmware MVM850 01 series Together with the MICS the PICS forms the basis for a conformance test according to IEC 61850 10 CONTENTS OF THIS DOCUMENT Each tables of this document is specified in IEC 61850 7 2 Annex A 3 ACSI models conformance statement 327 ...

Page 327: ... M5 Substitution O O N M6 Setting group control O O Y Reporting M7 Buffered report control O O Y M7 1 sequence number Y M7 2 report time stamp Y M7 3 reason for inclusion Y M7 4 data set name Y M7 5 data reference Y M7 6 buffer overflow Y M7 7 entryID Y M7 8 BufTm Y M7 9 IntgPd Y M7 10 GI Y M8 Unbuffered report control O O Y M8 1 sequence number Y M8 2 report time stamp Y M8 3 reason for inclusion...

Page 328: ...ng Buffered report control block BRCB S24 Report c6 c6 Y S24 1 data change dchg Y S24 2 quality change qchg Y S24 3 data update dupd N S25 GetBRCBValues c6 c6 Y S26 SetBRCBValues c6 c6 Y Unbuffered report control block URCB S27 Report c6 c6 Y S27 1 data change dchg Y S27 2 quality change qchg Y S27 3 data update dupd N S28 GetURCBValues c6 c6 Y S29 SetURCBValues c6 c6 Y Logging Log control block S...

Page 329: ...s T3 Supported TimeStamp resolution 100ms M Mandatory O Optional c1 shall be M if support for LOGICAL DEVICE model has been declared c2 shall be M if support for LOGICAL NODE model has been declared c3 shall be M if support for DATA model has been declared c4 shall be M if support for DATA SET Substitution Report Log Control or Time model has been declared c5 shall be M if support for Report GSE o...

Page 330: ...r any service specified in Table 9 are declared within the ACSI basic conformance statement c4 Support for at least one other A Profile shall be declared e g in A1 A3 in order to claim conformance to IEC 61850 8 1 PICS for T Profile support A Profile shortcut Profile Description Client Server IED Remarks F S F S T1 TCP IP T Profile c1 c1 Y T2 OSI T Profile c2 c2 N T3 GOOSE GSE T Profile c3 c3 Y T4...

Page 331: ...ly 6 As2 TCP_KEEPALIVE value 7200 seconds at the default setting Setting range is from 1s to 43200s As3 Lost connection detection time After the KEEPALIVE is no response retrying 9 times every X seconds until declaring that the association has been lost X is one tenth of TCP_KEEPALIVE value Ex The lost connection detection time is 18s 9 times x 2 s when TCP_KEEPALIVE value is 20 s As4 Is authentic...

Page 332: ...2 Which status value ST quality bits are supported can be set by server Validity Y Good Y Invalid N Reserved Y Questionable N BadReference N Oscillatory Y Failure N OldData N Inconsistent N Inaccurate Source N Process N Substituted Y Test N OperatorBlocked Sr3 What is the maximum number of data values in one GetDataValues request Not restricted depend on the max MAX PDU size given in previous page...

Page 333: ...sistent data sets can be created by one or more clients N A PIXIT for Substitution model ID Description Value Clarification Sb1 Are substituted values stored in volatile memory N A PIXIT for Setting group control model ID Description Value Clarification Sg1 What is the number of supported setting groups for each logical device compare NumSG in the SGCB 2 Sg2 What is the effect of when and how the ...

Page 334: ...2 14 2 2 9 Send report immediately Rp5 Multi client URCB approach compare IEC 61850 7 2 14 2 1 Each URCB is visible to all clients Rp6 What is the format of EntryID It is made up of the circular buffer counter at the time the event was entered Rp7 What is the buffer size for each BRCB or how many reports can be buffered For example LLN0 ST Health can be stored 40 events Rp8 Pre configured RCB attr...

Page 335: ...ed N source MAC address Y destination MAC address as configured Y Ethertype 0x88B8 Y APPID as configured and 0 Y gocbRef as configured N timeAllowedtoLive N datSet Y goID as configured N t N stNum Y sqNum Y test N confRev Y ndsCom N numDatSetEntries Go2 Can the test flag in the published GOOSE be turned on off N Go3 What is the behavior when the GOOSE publish configuration is incorrect If the conf...

Page 336: ...ted retransmission time What is the maximum supported retransmission time Is it fixed or configurable minTime 300 milliseconds maxTime Fixed Go14 Can the Goose publish be turned on off by using SetGoCBValues GoEna Y Go15 What is the fast retransmission scheme Is it fixed or configurable 300 milliseconds with TAL 600 milliseconds Fixed Go16 What is the behavior when one subscribed GOOSE message exc...

Page 337: ...ubscribe quality information is GOOD the IED receives the payload data Go20 Dataset structure of a subscribed GOOSE This is not checked Two GOOSEs which have same header e g GoID and different dataset structure are treated as the same GOOSEs And if received GOOSEs have same header the fixed position of the GOOSE dataset is read E g the 1st element of the dataset is set to read it keeps reading the...

Page 338: ...t6 What are the conditions for the time T attribute in the SelectWithValue and or Operate request N A Ct7 Is pulse configuration supported N Ct8 What is the behavior of the DUT when the check conditions are set Is this behavior fixed configurable online changeable Only interlock bit is checked This behavior is fixed Note When interlock is an enable the control request is rejected by IED with AddCa...

Page 339: ...ejected by IED with AddCause Blocked by Interlocking DOes SBOes N A Ct16 Does the IED accept a select operate on the same control object from 2 different clients at the same time DOns Y SBOns N DOes SBOes N A Ct17 Does the IED accept a Select SelectWithValue from the same client when the control object is already selected tissue 334 SBOns N SBOes N A Ct18 Is for SBOes the internal validation perfo...

Page 340: ...et N A Tm4 When is the time quality bit Clock not synchronised set It depends on the condition of synchronization Typically 120 seconds Tm5 Is the timestamp of a binary event adjusted to the configured scan cycle N Tm6 Does the device support time zone and daylight saving Y Support time zone only Tm7 Which attibutes of the SNTP response packet are validated Y Leap indicator not equal to 3 N Mode i...

Page 341: ...le N A Ft2 Directory names are separated from the file name by N A Ft3 The maximum file name size including path recommended 64 chars N A Ft4 Are directory file name case sensitive N A Ft5 Maximum file size N A Ft6 Is the requested file path included in the file name of the MMS fileDirectory respond N A Ft7 Is the wild char supported MMS fileDirectory request N A Ft8 Is it allowed that 2 client ge...

Page 342: ...ed on the certificate This document is applicable for GRE series IED with communication firmware MVM850 01 series version upper than A MVM850 01 A Mandatory Intop Tissues During the October 2006 meeting IEC TC57 working group 10 decided that green Tissues with the category IntOp are mandatory for IEC 61850 edition 1 Tissues with the category Ed 2 Tissues should not be implemented Below table gives...

Page 343: ...OSE Message AppID to GoID Y 41 GsCB AppID to GsID n a 42 SV timestamp EntryTime to TimeStamp n a 43 Control T semantic n a 44 AddCause Object not sel n a 45 Missing AddCauses neg range Y 46 Synchro check cancel n a 47 in LD Name Y 49 BRCB TimeOfEntry part of 453 Y 50 LNName start with number Y 51 ARRAY 0 num missing n a 52 Ambiguity GOOSE SqNum Y 53 Add DstAddr to GsCB SV n a 151 Name constraint f...

Page 344: ...s n a 7 2 333 Enabling of an incomplete GoCB n a 7 2 453 Combination of all reporting and logging tissues N 6 245 Attribute RptId in SCL N 6 529 Replace sev Unknown by unknown n a Other Implemented Tissues Part Tissue Nr Description Implemented Y N n a 8 1 109 GOOSE GSE SV Addresses Y 118 File directory n a 121 GOOSE subscriber behavior Y 344 TimeOfEntry misspelled Y 7 4 76 CBOpCap and SwOpCap N 7...

Page 345: ... the control reaction depending on the CB Status CB Status Response BI a CB_OPC_BI BI b CB_CLC_BI CB LED lighting CB Open Operation CB Close Operation 0 0 CLOSE Unlock operate Lock not operate Unlock not operate Lock not operate 1 0 CLOSE Unlock operate Lock not operate Unlock not operate Lock not operate 1 1 CLOSE Unlock not operate Lock not operate Unlock not operate Lock not operate 0 1 OPEN Un...

Page 346: ...6 F 2 T 0 1 7 2 Appendix R Ordering 347 ...

Page 347: ...ail 6 x BIs 4 x BOs 1 x Relay fail 6 x BIs 8 x BOs 1 x Relay fail 420 421 422 Rating CT 1 5A f 50 60Hz 110 250Vdc or 100 220Vac CT 1 5A f 50 60Hz 48 110Vdc CT 1 5A f 50 60Hz 24 48Vdc 1 2 A Standard and language IEC English ANSI English Chinese 0 1 2 Communication RS485 1port Modbus IEC60870 5 103 RS485 1port Modbus DNP3 0 Optional Communication for Model 402 and 422 100BASE TX 1port Modbus IEC6185...

Page 348: ...ied the description Modified the description Modified the description Modified the description Added Appendix N IEC60870 5 103 4 1 May 25 2012 2 13 3 2 4 4 2 6 Appendix M Modified the description Modified the description Modified the description Modified the description 4 2 Jan 28 2013 Appendix G Appendix K Appendix P Modified the diagrams Modified the description Modified the Ordering Cords 5 0 M...

Page 349: ...ppendix K Added the GRE110 820A and 821A models Added Dirrectional sensitive Earth fault protection Added the GRE110 820A and 821A models Modified the diagram Modified the description Added the GRE110 820A and 821A models Added the GRE110 820A and 821A models Added ZP signal Added the GRE110 820A and 821A models Added the GRE110 821A model Added ZP setting Added ZP setting 5 3 Jun 24 2014 4 3 5 6 ...

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Toshiba GRE110, Instruction Manual, Page: 239 / 349

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